Gram v. Secretary of Health and Human Services
Date Filed2022-12-15
Docket15-515
JudgeMindy Michaels Roth
Cited0 times
StatusPublished
Syllabus
PUBLIC DECISION (Originally filed: 11/16/2022) regarding DECISION of Special Master. Signed by Special Master Mindy Michaels Roth. (msg) Service on parties made.
Full Opinion (html_with_citations)
In the United States Court of Federal Claims
OFFICE OF SPECIAL MASTERS
No. 15-515V
Filed: November 16, 2022
* * * * * * * * * * * * *
ELIZABETH GRAM, for and on behalf of * To Be Published
her minor daughter, A.L.M., *
*
Petitioner, * Ruling on Entitlement; Afebrile Seizures;
* Epilepsy; DTaP, Hib, MMR,
v. * Prevnar 13, Varicella Vaccines;
* Insufficient Proof of Causation.
SECRETARY OF HEALTH *
AND HUMAN SERVICES, *
*
Respondent. *
*
* * * * * * * * * * * * *
Sean Greenwood, Esq., Greenwood Law Firm, Houston, TX, for petitioner.
Christine Becer, Esq., U.S. Department of Justice, Washington, DC, for respondent.
DECISION1
Roth, Special Master:
On May 19, 2015, Elizabeth Gram (âMs. Gramâ or âpetitionerâ) filed a petition on behalf
of her minor child, A.L.M., for compensation under the National Vaccine Injury Compensation
Program, 42 U.S.C. §300aa-10, et seq.2 (the âVaccine Actâ or âProgramâ). The petition alleges
that A.L.M. received DTaP, Hib, MMR, Pneumococcal conjugate, and Varicella vaccinations on
October 25, 2012 and thereafter developed a seizure disorder. Petition at 1, ECF No. 1.
An entitlement hearing was held on November 23, 2020 via videoconferencing. Following
careful review and analysis of all the documentary evidence and testimony submitted in this case
1
This Decision has been designated âto be published,â which means I am directing it to be posted on the
Court of Federal Claimsâ website, in accordance with the E-Government Act of 2002, Pub. L. No. 107-347,
116Stat. 2899, 2913 (codified as amended at44 U.S.C. § 3501
note (2006)). This means the Decision will be available to anyone with access to the internet. However, the parties may object to the Decisionâs inclusion of certain kinds of confidential information. Specifically, under Vaccine Rule 18(b), each party has fourteen days within which to request redaction âof any information furnished by that party: (1) that is a trade secret or commercial or financial in substance and is privileged or confidential; or (2) that includes medical files or similar files, the disclosure of which would constitute a clearly unwarranted invasion of privacy.â Vaccine Rule 18(b). Otherwise, the whole Decision will be available to the public.Id.
2 National Childhood Vaccine Injury Act of 1986,Pub. L. No. 99-660, 100
Stat. 3755. Hereinafter, for ease
of citation, all â§â references to the Vaccine Act will be to the pertinent subparagraph of 42 U.S.C. § 300aa
(2012).
by both petitioner and respondent and in accordance with the applicable legal standards, I find that
petitioner has not proffered sufficient evidence to demonstrate that the vaccinations A.L.M.
received on October 25, 2012 caused or contributed to her afebrile seizure disorder. Accordingly,
I find that petitioner is not entitled to compensation.
I. Issues to be Determined
The parties dispute whether any of the vaccines A.L.M. received on October 25, 2012 can
cause afebrile seizures and epilepsy, and, if so, whether the vaccines caused A.L.M.âs injury here.
Thus, all three Althen prongs are at issue.
II. Procedural History
Ms. Gram filed the petition on May 19, 2015, and her case was initially assigned to Special
Master Nora Beth Dorsey. Pet. Ex. 1, ECF No. 1. Petitioner filed medical records in the form of
compact discs on the following dates: July 7, 2015, March 8, 2016, and June 14, 2016. On October
21, 2015, the case was reassigned to the undersigned. ECF No. 15. Petitioner filed additional
medical records on the following dates: March 4, 2016, August 8, 2016, August 7, 2017. Pet. Ex.
13, 15, 19, and 20, ECF Nos. 23, 33, and 46.
Petitioner filed expert reports from Dr. Marcel Kinsbourne on August 8, 2016, Pet. Ex. 14,
ECF Nos. 35, 41, and 91; on March 13, 2017, Pet. Ex. 16, ECF Nos. 42 and 91; on September 7,
2017, Pet. Ex. 21, ECF. Nos. 49 and 91; and on April 16, 2018, Pet. Ex. 36, ECF Nos. 53 and 91.
Petitioner also filed expert reports from Dr. Alan Levin on September 24, 2018, Pet. Ex.
39, ECF No. 62; and on May 20, 2019, Pet. Ex. 50, ECF No. 80.
In support of petitionerâs expert reports, petitioner filed medical literature on September 7,
2017, Pet. Ex. 22-35, ECF No. 49; on April 16, 2018, Pet. Ex. 37, ECF Nos. 53 and 91; on August
17, 2018, Pet. Ex. 37 and 38, ECF No. 58; on September 24, 2018, Pet. Ex. 41-45, ECF No. 63;
on June 26, 2019, Pet. Ex. 51-55, ECF No. 81; on October 13, 2020, Pet. Ex. 58, ECF No. 100;
and November 17, 2020, Pet. Ex. 59-61, ECF No. 105.
Respondent filed expert reports from Dr. Gregory Holmes on November 8, 2016, Resp.
Ex. A, ECF No. 37; on December 29, 2017, Resp. Ex. Q, ECF No. 51; on June 15, 2018, Resp.
Ex. V, ECF No. 55; and on August 16, 2019, Resp. Ex. YY, ECF No. 82.
Respondent also filed expert reports from Dr. Christine McCusker on December 21, 2018,
Resp. Ex. Z, ECF Nos. 73 and 75; and on August 16, 2019, Resp. Ex. FFF, ECF No. 82.
In support of the expert reports, respondent filed medical literature on December 8, 2016,
Resp. Ex. C-P, ECF No. 38; on December 29, 2017, Resp. Ex. R-U, ECF No. 51; on June 15, 2018,
Resp. Ex. W-Y, ECF No. 55; on April 17, 2019, Resp. Ex. BB-XX, ECF Nos. 78 and 79; and on
August 16, 2019, Resp. Ex. ZZ, AAA-EEE, GGG, and HHH, ECF No. 82.
An entitlement hearing was held on November 23, 2020 via videoconferencing. Both
2
parties filed post-hearing briefs on March 11, 2021, and petitioner filed a reply brief on January
14, 2022. See ECF Nos. 109, 110, and 111.
This matter is now ripe for decision.
III. Relevant Medical Terminology
The following medical terms appear throughout this decision.
A seizure is defined as the sudden attack or recurrence of a disease or the single episode
of epilepsy.3 It involves a temporary, uncontrolled surge of electrical activity in the brain.4 Multiple
seizures occurring in a 24-hour period are considered a single event.5
A focal seizure, also known as a âpartialâ seizure, is a seizure that occurs in a specific part
of the brain, although the surge of electrical activity can move from one location to another as the
seizure intensifies.6 These seizures are most common in people with head injuries, febrile
childhood seizures, brain infections, or other conditions that affect the brain.7
A complex partial seizure is a partial seizure characterized by varying degrees of
impairment of consciousness; the person affected performs non-purposeful, repetitive movements
which they may not remember.8
A provoked seizure is a seizure that is the result of environmental stress, such as low blood
sugar, low blood sodium, fever, alcohol or drug withdrawal, or an infection that does not usually
affect the brain. 9 Tr. 141. On the other hand, an unprovoked seizure occurs without a concurrent
illness, fever, or acute brain injury.10
Epilepsy is characterized by paroxysmal transient disturbances of brain function that may
manifest as loss of consciousness, abnormal motor phenomena, sensory disturbances, or
perturbation of the autonomic nervous system.11 It is considered one of the most common nervous
system disorders.12
Mesial temporal sclerosis is scarring in the inner portions of the temporal lobe. It may be
caused by brain infection or head trauma that interrupts the flow of oxygen to the temporal lobe,
3
Dorlandâs Illustrated Medical Dictionary 1660 (33rd ed. 2019) [hereinafter âDorlandâsâ].
4
Cleveland Clinic, Seizure, https://my.clevelandclinic.org/health/diseases/22789-seizure.
5
Wei-Ling Lee, MD & Hian-Tat Ong, MD, Afebrile Seizures Associated with Minor Infections:
Comparison with Febrile Seizures and Unprovoked Seizures, 31 PEDIATRIC NEUROLOGY 157, 158 (2004),
filed as âPet. Ex. 29.â
6
Cleveland Clinic, Focal Seizure, https://my.clevelandclinic.org/health/diseases/22893-focal-seizure.
7
Id.
8
Dorlandâs 1660.
9
Lee & Ong, supra note 5.
10
Id.
11
Dorlandâs 626.
12
Johns Hopkins Medicine, Epilepsy: Overview, https://www.hopkinsmedicine.org/health/conditions-and-
diseases/epilepsy.
3
resulting in brain cell death. It can cause a form of temporal lobe epilepsy with partial (focal)
seizures that can spread and affect other areas of the brain.13
Encephalopathy is any degenerative disease of the brain that alters brain function or
structure.14 Abnormal results from cerebrospinal fluid (âCSFâ) may show encephalopathy.15
Landau-Kleffner Syndrome is an epileptic syndrome of childhood characterized by
partial or generalized seizures, psychomotor abnormalities, and aphasia progressing to mutism.16
IV. The Factual Record
A. A.L.M.âs Medical History Prior to the Vaccinations
A.L.M. was born on October 24, 2011. Pet. Ex. 14. Apart from being slightly jaundiced at
birth, A.L.M. was the product of an uncomplicated term pregnancy. Pet. Ex. 10 at 5; Pet. Ex. 14
at 3. She received a Hepatitis B vaccination on the day she was born. Pet. Ex. 10 at 7, 9. She was
discharged home with her mother on October 26, 2011. Pet. Ex. 11 at 221-37; Pet. Ex. 10 at 5-10.
A.L.M. was presented for follow up examinations of neonatal jaundice on October 27,
2012 and October 29, 2012. Pet. Ex. 11 at 196, 219-22.
A.L.M. had some feeding difficulties in the first month of life that resolved without event.
Pet. Ex. 11 at 181-82, 191-92, 194.
On November 29, 2011, at five weeks old, A.L.M. was presented to the pediatrician with
acute respiratory infection, congestion, and spitting up. Pet. Ex. 11 at 175. A.L.M. was gasping at
times, seemed unable to breathe, and had not slept well the night prior; she tested positive for
respiratory syncytial virus (âRSVâ). Id. at 176-77, 179.
At a follow up examination on December 2, 2011, A.L.M.âs physician noted that she had
acute bronchiolitis due to RSV with eyes tearing, loss of appetite, ear problem, increased
congestion, and coughing. Pet Ex. 11 at 167-68, 170-72. Petitioner was instructed to use a
humidifier, saline drops, and a bulb syringe. Id. at 172. At follow up on December 8, 2011, A.L.M.
was improving with an increased appetite, but she had a raspy cry. Id. at 167.
At her two-, four-, and six-month-old well baby visits, A.L.M. was meeting all milestones.
Pet. Ex. 11 at 146-48, 151-54, 158-61. On January 13, 2012, she received Pediarix (a combination
vaccine which includes DTaP, Hepatitis B and polio) and Hib vaccinations; petitioner declined
13
Johns Hopkins Medicine, Epilepsy Causes, https://www.hopkinsmedicine.org/health/conditions-and-
diseases/epilepsy/epilepsy-causes.
14
Dorlandâs 608; National Institute of Neurological Disorders and Stroke, Encephalopathy,
https://www.ninds.nih.gov/health-information/disorders/encephalopathy.
15
T. Ichiyama et al., Tumor Necrosis Factor-[alpha], interleukin-1[beta], and interleukin-6 in
Cerebrospinal Fluid from Children with Prolonged Febrile Seizures: Comparison with Acute
Encephalitis/Encephalopathy, 50 AM. ACAD. OF NEUROLOGY 407 (1998), filed as âPet. Ex. 42.â
16
Dorlandâs 1806.
4
Prevnar and Rotateq at this visit. Id. at 161. On March 6, 2012, A.L.M. received Hib, Pediarix, and
Prevnar 13 (a pneumococcal vaccine that protects against bacterium Streptococcus pneumoniae)
vaccinations. Id. at 155. On April 25, 2012, she received Pediarix and Prevnar 13. Id. at 150.
A.L.M. received all the above vaccinations without event.
On June 5, 2012, A.L.M. was presented to the pediatrician after rolling off the bed and
hitting her head on the carpeted floor. Pet. Ex. 11 at 141. Her mother reported a bump on her
forehead. Id. Petitioner also reported that A.L.M. had rolled off the bed earlier in the week as well
and was found on her belly. Id. A.L.M. cried a bit but was laughing later. Id. She had no vomiting,
was acting fine, and was using all extremities. Id. The physician noted that A.L.M. had a possible
bump on the right side of her forehead. Id. at 142.
On July 24, 2012, at her nine-month-old well baby check, A.L.M. was meeting all
milestones and had a normal checkup. Pet. Ex. 11 at 86-90, 137, 139.
On August 21, 2012, A.L.M. was presented to the emergency room (âERâ) at Memorial
Hermann Southeast Hospital (âMemorial Hermannâ) with vomiting, diarrhea, and fever since the
night before. Pet. Ex. 7 at 141. An abdominal X- ray showed gaseous distention of the stomach
and portions of the small and large bowel with multiple air fluid levels on upright view. Id. at 142.
The physician noted that the findings were ânot normalâ and may be related to adynamic ileus or
a small bowel obstruction. Id. at 142, 145. Petitioner left with A.L.M. before the results were
discussed and before discharge papers were given. Id. at 143. The discharge notes indicated that
A.L.M. was in good and stable condition. Id.
A.L.M. was presented to the pediatrician the next day with a two-day history of vomiting,
diarrhea, and decreased appetite. Pet. Ex. 11 at 129. Petitioner advised that she took A.L.M. home
before receiving any test results from the ER because A.L.M. had a large bowel movement. Id. at
130. Petitioner also noted that A.L.M.âs diaper was dry this morning, and she seemed perkier. Id.
at 129-31. The physicianâs assessment was that A.L.M. had colitis, enteritis, and gastroenteritis of
infectious origin. Id. at 129.
On October 25, 2012, at her one-year-old checkup, A.L.M. was meeting all milestones.
Pet. Ex. 11 at 120-21. At this point, she was walking 2-3 steps independently, drinking from a cup,
babbling with inflection, and playing simple games (peek-a-boo and pat-a-cake). Id. at 121.
A.L.M. received her DTaP, Hib, MMR, Prevnar 13, and Varicella vaccinations, but petitioner
declined the Influenza vaccine. Id. at 122.17
17
At the October 25, 2012 checkup, petitioner was provided with a fact sheet associated with the vaccines
A.L.M. received that day, which included in pertinent part:
A small number of children get a rash and fever 7 to 14 days after the measles-mumps-
rubella (MMR) or the varicella vaccines. The rash is usually on the main body area and
lasts 2 to 3 days. Call your healthcare provider within 24 hours if the rash lasts more than
3 days or gets itchy. Call your childâs provider immediately if the rash changes to purple
spots.
Pet. Ex. 11 at 122, 127 (emphasis in original).
5
B. A.L.M.âs Medical Records after the Vaccinations
A.L.M.âs next medical visit was on November 26, 2012, when petitioner brought her in for
âpossible seizure activities.â Pet. Ex. 11 at 115-16. Petitioner reported that A.L.M. was having
staring episodes with chewing motions starting about one week prior. Id. at 116. A.L.M. was noted
to be sitting during the episodes. Id. A.L.M. reportedly had two episodes on November 25, 2016,
the day before petitioner brought her in to be seen, which also involved twitching of the left eye.
Id. She had an episode the day of the appointment with staring and movement of her tongue and
left fingers for about 4 seconds. Id. The progress notes stated that she did not drool and had no
injuries, trauma, URI symptoms, or fever. Id. The pediatricianâs assessment was âstaring spell;
suspect seizure activity.â Id. The pediatrician made a referral for an electroencephalogram
(âEEGâ) and a neurology appointment with Dr. Dreyer. Id. at 116, 118. A.L.M. had an EEG on
November 29, 2012 that was ânormal in wake and sleep.â Id. at 238.
Petitioner telephoned the pediatrician on December 1, 2012.18 Pet. Ex. 4 at 2.
The next day, December 2, 2012, A.L.M. was presented to Texas Childrenâs Hospital
(âTCHâ) with a history of âhaving sz like episodesâ beginning 4-6 weeks prior. Pet. Ex. 15 at 2.
Petitioner reported that A.L.M. would stare, left eye twitching, lips smacking, and not responding
to her name during the episodes. Id. There was no associated body shaking or stiffness, but she
seemed to be losing her balance more in the past week. Id. Initially, the episodes lasted 10-15
seconds and occurred twice daily, but now lasted 30-45 seconds and occurred 4-5 times daily. Id.
Petitioner reported five episodes that day. Id. A.L.M. was otherwise healthy and meeting all
milestones. Id. Petitioner reported that A.L.M. was seen by a neurologist last week and had a 30-
minute EEG that was normal. Id. Petitioner was told to follow up with the primary care physician.
Id. A.L.M. was noted to be ânegative for feverâ and âpositive for seizures.â Id. at 2, 3. The record
documented a â[H]istory consistent with possible complex partial seizure, asymptomatic currently.
Okay for outpatient workup.â Id. at 4. Discharge instructions were to schedule an EEG and discuss
an outpatient Magnetic Resonance Imaging (âMRIâ) to be done by the primary care physician. Id.
The following morning, December 3, 2012, A.L.M. was presented to the pediatrician. Pet.
Ex. 11 at 111; Pet. Ex. 4 at 3. The pediatrician ordered an MRI without contrast and issued a
referral for Dr. Dreyer in neurology and EEG/EP. Pet. Ex. 11 at 45, 112. Petitioner was instructed
to go to the ER if A.L.M.âs condition worsened. Id. at 112.
On December 3, 2012, around 7pm, A.L.M. was presented to the ER at Memorial Hermann
for seizure onset at about 3:30pm. Pet. Ex. 7 at 157. She reportedly had three seizures that day but
was awake and alert on presentation. Id. at 157, 159. A.L.M.âs vitals were taken, and her
temperature was 98.8 degrees Fahrenheit. Id. at 157. Petitioner reported that the seizures began
one month ago and were getting worse. Id. at 171. The seizures lasted seconds with no loss of
consciousness and no confusion postictally. Id. Petitioner stated that A.L.M.âs first episode
occurred while A.L.M. was playing and crawling and then she sat up and made chewing motions
for approximately ten seconds; this occurred twice. Id. at 2. In later episodes, her left eye started
to twitch, then her eyes moved back and forth slowly from left to right; additionally, in more recent
18
The phone log does not contain any content other than a date.
6
episodes, both hands shook, and she made a chewing motion. Id. A.L.M. did not respond to her
name during the episodes. Id. After the episodes, she briefly appeared tired before returning to
baseline. Id. Petitioner reported that A.L.M. had these episodes 4 to 5 times per day. Id. A.L.M.
had an episode during this ER visit that lasted for about one minute. Id.
The notes indicated that A.L.M. was seen three days ago at TCH ER, at which time neither
an EEG or MRI was performed, and no medication was started. Pet. Ex. 7 at 2; Pet. Ex 10 at 67.
The physician noted that A.L.M. was afebrile but positive for diarrhea, which had now resolved.
Pet. Ex. 7 at 16. She was walking, said âmomma,â and knew her name. Id. at 17. There were no
developmental delays. Id. Petitioner herself was noted to have a history of febrile seizures at age
three but does not have epilepsy, and A.L.M.âs paternal half uncle has epilepsy. Pet. Ex. 7 at 17;
Pet. Ex. 10 at 82. The physician concluded that A.L.M. had an unprovoked seizure, was
developmentally normal for her age, and had multiple nonfebrile tonic and clonic seizures. Pet.
Ex. 7 at 18. There was no overt perinatal insult identified. Id.
On December 4, 2012, A.L.M. was transferred from Memorial Hermann to Childrenâs
Memorial Herman Hospital (âCMHHâ). Pet. Ex. 7 at 175-76; Pet. Ex. 10 at 81. The same day,
petitioner called the pediatrician.19 Pet. Ex. 4 at 3. A 23-hour EEG at CMHH showed a seizure
unofficially read as temporal lobe epilepsy more prominent on left. Pet. Ex. 7 at 2-3, 21-22, 33-
34; Pet. Ex. 10 at 71-72. She also had a brain MRI, the results of which were normal. Pet. Ex. 7 at
80; Pet. Ex. 10 at 84. Complete blood count (âCBCâ) results showed a right shift to be monitored
for fever or signs of infection. Pet. Ex. 7 at 18, 180-81. While in the hospital, a urine analysis was
abnormal. Id. at 182. A.L.M. had multiple seizure events during her two-day hospitalization. Pet.
Ex. 10 at 85. She was discharged on December 6, 2012 with a prescription for Keppra and
Diazepam for seizures greater than 10 minutes. Follow up was recommended. Pet. Ex. 7 at 21-22.
The diagnosis was likely temporal lobe epilepsy. Id. at 21.
Petitioner called the pediatrician on December 7, 2012 and presented that day for follow
up. Pet. Ex. 4 at 3; Pet. Ex. 11 at 108. Petitioner reported that A.L.M. was diagnosed with complex
partial seizures and prescribed Keppra; petitioner noted that A.L.M. was doing well with no
seizures since her hospital discharge the day before. Pet. Ex. 11 at 106, 108. Her neurologist at the
hospital was Dr. Butler. Id. at 109.
A.L.M. continued to do well until she reportedly had five seizures between December 25
and 26, 2012. Pet. Ex. 7 at 222-79. She was admitted to CMHH for generalized epileptic seizures.
Id. at 227. Tests performed earlier that month showed left temporal lobe epilepsy on a video-
electroencephalogram (âvEEGâ) and a normal brain on the MRI. Id. at 22, 270. Her initial seizures
included staring, chewing motions, then left eye twitching; current seizures included collapsing
with more involvement of bilateral extremities lasting 1 to 1.5 minutes. Id. at 2, 210. She was on
â300 mg po BIDâ of Keppra daily and taking it as recommended. Id. at 225, 270. Multiple seizures
were reported with no post ictal phase. Id. at 225. She was scheduled to see Dr. Heard, a pediatric
epileptologist, on January 8, 2013. Id. at 197, 199, 272. She was discharged on December 28, 2012
with a plan to continue weaning her off Keppra and adding Trileptal. Id. at 209, 272.
19
The records only show that a call was made to the pediatricianâs office on that date.
7
A.L.M. was presented to the pediatrician on January 2, 2013 with a respiratory infection
for two days. She was noted to have complex partial epilepsy. Pet. Ex. 11 at 105. She was in the
process of weaning off Keppra and switching to Trileptal. Id. Since starting Trileptal, she had no
further seizures. Id.
A.L.M. was presented to neurologist Dr. Heard on January 8, 2013. Pet. Ex. 10 at 64.
A.L.M.âs seizures reportedly began a month prior to her first hospitalization with staring and lip
smacking which increased over the next several weeks with left eye twitching and left hand
twitching. Id. A 23-hour EEG performed during her early December hospital stay showed left
temporal epileptiform activity. MRI was normal. Id. A.L.M. was discharged from the hospital on
December 6, 2012 with a prescription for Keppra. Id. Despite the prescription, her seizures
continued, and now involved her entire body with bowel incontinence. Id. The Keppra prescription
was increased to maximum without success. Id. A.L.M. was again admitted to the hospital on
December 25, 2012, weaned off Keppra and prescribed Trileptal. Id. While being weaned from
Keppra and switched to Trileptal, A.L.M. was seizure-free for four days. Id. However, while at
Dr. Heardâs office, she had a seizure that lasted 25 seconds with a few clonic hand jerks, left eye
twitching, and blue lips and mouth. Id. at 66. The entire episode lasted 45-60 seconds. Id. A.L.M.
âspaced outâ for about 5 seconds afterwards then continued eating her snack. Id. Dr. Heard
increased the Trileptal, ordered a helmet, and instructed petitioner to follow up in 1-2 months. Id.
At her 16-month-old well child visit on March 15, 2013, A.L.M. was noted to have a past
diagnosis of complex partial seizure and was taking Trileptal. Pet. Ex. 11 at 100. There were no
current health problems or concerns. Id. A.L.M. was reaching all milestones, walking
independently, and had 4-6 words. Id. Petitioner declined vaccinations. Id. at 100-01.
On the 18-month Ages & Stages Questionnaire (âASQâ)20 petitioner noted concern about
A.L.M.âs speech delay and âthe fact that seizures began within 2 weeks of 12 month vaccination.â
Pet. Ex. 2 at 6.
Over the next several months, A.L.M. was presented with multiple febrile illnesses
including: April 1, 2013 for viral gastroenteritis with a four-day fever of 102 degrees Fahrenheit,
Pet Ex. 11 at 92-93; April 12, 2013 for otitis media, URI with fever upon presentation, a âterribleâ
runny nose, vomiting with cough and âbanging her head on the wallâ for 1-2 weeks, Pet. Ex. 11 at
84-85; and May 14, 2013 for Hand, Foot and Mouth disease with 103.2 fever. Pet. Ex. 11 at 212-
13. A.L.M. had no seizures from any of these febrile illnesses.
At her neurology visit with Dr. Heard on June 3, 2013, A.L.M.âs last seizure was noted to
be on February 4, 2013. Pet. Ex. 10 at 50. Her seizures were under control with Trileptal. Id. at 51.
A.L.M. was noted at this visit to have a speech impediment and that the left temporal lobe epilepsy
could be playing a part in her speech difficulties. Id. She was diagnosed with Landau Kleffner
syndrome, although she did not have the typical symptoms and features. Id. Dr. Heard prescribed
speech therapy, as well as Lamictal to help with A.L.M.âs language development. Id. Petitioner
was encouraged to bring A.L.M. up to date on her immunizations, but she expressed concern
âabout the coincidence of seizures occurring within weeks of her 1 yr immunizations.â Id.
20
The form does not contain a date.
8
Thereafter, A.L.M. was presented for medical care on July 11, 2013 for sinusitis and
drainage and redness of her eyes without fever, Pet. Ex. 11 at 75; September 8, 2013 for periorbital
cellulitis, Pet. Ex. 11 at 24; September 9, 2013 for eye swelling, acute upper respiratory infection,
and acute otitis media, Pet. Ex. 11 at 70; and September 12, 2013 for a follow up from the last
appointment, at which time she was doing well. Pet. Ex. 11 at 66.
At her well child visit on September 16, 2013, A.L.M. had ear pulling, no fever, good
appetite and had reached all milestones appropriate for her age. Pet. Ex. 11 at 56-57. She could
run, scribble spontaneously with a crayon, had 7 to 10 words, and imitated use of objects (for
example, using a comb and a phone). Id. at 57. An M-Chat was completed with no concerns noted.
Id. at 57-58. However, speech delay was noted on ASQ survey, so petitioner was instructed to
contact Early Childhood Intervention (âECIâ) for speech services. Id. at 59. Petitioner again
declined vaccinations for A.L.M. Id.
An occupational therapist and intervention specialist performed an ECI Assessment for
A.L.M. at petitionerâs home on October 1, 2013. Pet. Ex. 10 at 17-32. The comments noted that
A.L.M. âhas a diagnosis of seizure disorder, which automatically qualifies her for ECI
enrollment,â and âmomâs primary concern developmentally is communication.â Id. at 17.
At a follow up visit on October 8, 2013, Dr. Heard documented a 19-month-old whose
seizures were controlled on Trileptal; A.L.M. had not had a seizure since February 4, 2013. Pet.
Ex. 10 at 43. Petitioner reported numerous URIs and viral illnesses since starting day care in
March. Id. She was concerned about A.L.M.âs communication skills since she could only
pronounce a few words and her vocabulary was limited. Id. A.L.M. had been evaluated by a speech
therapist, but the therapy had not yet started. Id. She had a diagnosis of Landau Kleffner syndrome,
though she did not have the typical symptoms. Id. at 45. Dr. Heard again suggested that Lamictal
be started to reduce the spikes in the temporal lobe and improve neuronal development for
language; petitioner was âmore amenable today to give the Lamictal a try.â Id. at 45.
Genetic testing for chromosomal microarray analysis performed on October 8, 2013 was
negative.21 Pet. Ex. 10 at 47.
On June 3, 2014, A.L.M. was presented to the pediatrician for herpangina, an infection in
the back of the throat. Pet. Ex. 11 at 52. She was a two-year-old with a three-day fever, a slight
cough the day before, and a sore throat the night prior. Id. Her current medication was listed as
Trileptal. Id. Petitioner was advised to encourage fluids and give Tylenol or ibuprofen as needed.
Id. at 53.
In October 2014, an initial evaluation at the Westwood Elementary School was performed
for an Individual Education Program (âIEPâ) Report. Pet. Ex. 5 at 1. A.L.M. was nearly three years
old. Id. at 2. She attended daycare three days a week. Id. at 18, 23. Her primary disability was
âSpeech Impairmentâ with articulation as the main concern. Id. at 5-7. Speech Language Therapy
for fourteen 30-minute sessions over nine weeks was recommended to begin on October 24, 2014.
Id. at 16. Her history was seizures controlled with medication and no seizures since February 2013.
21
The record is incomplete. The document filed contains only a description of chromosomal microarray
analysis. See Pet. Ex. 10 at 47.
9
Id. at 20. She lived with her mother, stepfather, and 12-year-old sister. Id. at 23. She was the
product of an uneventful pregnancy and delivery with normal childhood illnesses until two weeks
after her 12-month vaccinations, at which time she began having seizures. Id. at 24. She was
hospitalized and diagnosed with epilepsy, complex partial seizures with secondary generalization.
Id. Petitioner reported no issues with word development until after her seizures began, after which
time she went months without progress in her speech. Id. Petitioner believed that A.L.M.âs speech
was affected by the type of seizures she experienced. Id. at 24, 42. Her hearing, vision, and motor
skills were normal. Id. at 24. A.L.M. was well behaved and responded appropriately to discipline.
Id. The report also said that A.L.M. separated well from her mother, played by herself, and was
agreeable and happy. Id. at 25. A.L.M. scored within the average range for receptive, expressive,
and total language; further, âno concerns were raised regarding her language development.â Id.
She used primarily âd,â ât,â and âbâ in substitution, placing her in the 3rd percentile below the
criteria used to determine an articulation disability. Id. at 26. Her language, voice, and fluency
skills were intact. Id. at 27.
Petitioner filed a request for exemption of vaccinations with the Texas Department of State
Health Services on October 29, 2014. Pet. Ex. 3.
At a March 26, 2015 neurology visit, A.L.M. was taking Trileptal two times daily, and was
making âgood progressâ in speech therapy in both her language and speech. Pet. Ex. 10 at 38. Her
last seizure was on February 4, 2013 and last EEG was in 2012. Id. at 37. Petitioner gave A.L.M.
one dose of Lamictal but stopped it because A.L.M. fell and petitioner felt that Lamictal made her
unsteady. Id. at 38, 39. She had not received vaccinations since October 2012 because petitioner
believed that the vaccines triggered her seizures. Id. at 38. A.L.M. attended daycare three days a
week and stayed with her aunt or grandmother on the other days. Id. She liked to play with dolls,
Legos, and coloring books. Id. She was affectionate and had good eye contact, with no other
behaviors suggestive of autism spectrum disorder (âASDâ). Id. The record documented onset of
seizures at 13 months of age with no trigger. She had no further seizures since February 4, 2013;
the seizure type included staring spells and lip smacking lasting 10 seconds 4-5 times a day. Id. at
39. It was also noted that her paternal half uncle has epilepsy. Id. A 23-hour EEG done on
December 4, 2012 was abnormal âdue to bihemispheric multifocal independent epileptiform
discharges, more prominent in the left hemisphere, particularly the temporal area, and 1
electrographic seizure that appeared to arise from the left temporal area.â Id. at 40. Her brain MRI
done the same day was normal. Id. The assessment was a three-year-old on Trileptal, seizure free
for two years since February 2013, with speech impairment improved. Id. Before considering
weaning her off medication, the physician wanted another EEG and repeat brain MRI to evaluate
myelination. Id. at 40-41.
A chromosomal microarray analysis â HR + SNP screen performed on March 27, 2015
was normal. Pet. Ex. 6 at 1. A 23-hour video and scalp EEG done on July 5, 2015 was normal for
her age. Pet. Ex. 19 at 6. The brain MRI without contrast was performed on August 27, 2015 and
compared to the December 2012 MRI; results were negative and normal with no migrational
anomaly or focal cortical dysplasia. Id. at 107.
A.L.M.âs assessment for the 2016-2017 school year was speech impairment in the area of
articulation. Pet. Ex. 20 at 4, 26. The notes document that A.L.M. âno longer takes medication for
10
seizures. Mom reports she has been off of the medication for about a year.â Id. at 5. A.L.M. was
noted to need only speech services and could enter kindergarten with no need for accommodations.
Id. at 26.
C. Other Evidence
i. VAERS report
Two years post-vaccination, petitioner completed a VAERS report on October 15, 2014,
reporting a reaction to A.L.M.âs October 25, 2012 vaccines. Pet. Ex. 12 at 3-4. She reported that
A.L.M. suffered a rash on her neck, chest, and face on November 2, 2012. Id. In an attached
statement, petitioner reported that she called the doctorâs office and was told the rash was a normal
reaction to immunizations. Id. at 4. The rash disappeared within a few hours. Id. Within two weeks,
A.L.M. started making chewing motions with staring spells, was not reacting to her surroundings,
and was motioning as if she was rubbing something between her fingers on her left hand. Id.
A.L.M.âs physician referred her to neurologist Dr. Dreyer. A.L.M. underwent a 30-minute EEG
which was normal. Id. Petitioner reported that A.L.M.âs seizures persisted and later included eye
twitching. Id.
Petitioner took A.L.M. to TCH ER, where she was seen but discharged with a referral to
another neurologist. Pet. Ex. 12 at 4. The following day, petitioner took A.L.M. to Memorial
Hermann ER, where she was admitted and subsequently transferred to Houston Memorial
Hermann Childrenâs Hospital, where staff performed two EEGs, one of which showed seizure
activity. An MRI was normal. Id. A.L.M. was discharged with a diagnosis of complex partial
seizures and prescription for Keppra. Id.
A.L.M. then had an appointment with an epilepsy specialist, Dr. Heard, who diagnosed her
with complex partial seizure with secondary generalization seizures. Pet. Ex. 12 at 4. Near the end
of December 2012, A.L.M. was again admitted to the hospital where doctors switched her to
Trileptal. Id. According to petitioner, A.L.M.âs seizures were under control with Trileptal, but
A.L.M.âs pediatrician and Dr. Heard, as well as petitioner, noticed that A.L.M. was not talking. Id.
A.L.M.âs speech was evaluated, and she has been in speech therapy, which has improved her
speech. Id. Petitioner concluded her statement noting that A.L.M. was babbling and saying simple
words prior to the seizures; after the seizures began, she was quieter. Id.
ii. Additional Records from Pediatricianâs Office
Petitioner filed phone logs from the pediatricianâs office. Pet. Ex. 4. The record contains a
list of telephone calls and office visits between November 26, 2012 and September 18, 2013. Pet.
Ex. 4. The record is internally inconsistent and not all entries are contained in the pediatric medical
record. Focusing on November and December 2012, Pet. Ex. 4 reflects telephone calls with
petitioner on November 2, 2012, December 1, 2012, December 3, 2012, and December 4, 2012.
Pet. Ex. 4 at 1-3. However, Pet. Ex. 4 at 3 does not contain the telephone call on December 1, 2012
that is documented at Pet. Ex. 4 at 2. Additionally, Pet. Ex. 4 at 3 includes a telephone call on
December 4, 2012 that is not listed on Pet. Ex. 4 at 2. Further, Pet. Ex. 4 at 1 reflects a telephone
11
call on November 2, 2012, not contained in either Pet. Ex. 4 at 2 or 3. The discrepancies in the
record have not been explained.
D. Fact Witness Affidavits and Testimony
i. Affidavit and Testimony of Elizabeth Gram
Petitioner submitted her affidavit with her petition and testified at the hearing. Pet. Ex. 1.
Petitioner testified that A.L.M. was a typical, healthy baby who received all her shots with
no problem. Tr. 6-7. On October 25, 2012, she had a one-year-old checkup and received all her
vaccinations; no vaccines were declined. Tr. 7.
Petitioner testified that A.L.M. developed a rash on her neck, face, chest, and back on
November 2, 2012, one week after her October 25, 2012 vaccines. Tr. 9; but see Pet. Ex. 1 at 1,
affirming that the rash was on A.L.M.âs chest and face. She telephoned the pediatrician who said
it was a normal reaction. Tr. 9. Petitioner stated the rash was gone the next morning. Tr. 10; but
see Pet. Ex. 12 at 4, stating that the rash disappeared within a few hours. Later during the hearing,
petitioner did not remember if the rash was gone within hours or the next day. Tr. 21. Petitioner
stated she had to look at the pediatric record for the date of the phone call regarding the rash to
know that it was November 2, 2012. Tr. 21. Petitioner felt A.L.M. at the time of the rash and she
was not feverish. Tr. 21-22.
Petitioner affirmed âwithin days and over the next few weeksâ A.L.M. began making
chewing motions and would sit up abruptly while playing or walking. Pet. Ex. 1 at 2. Petitioner
would check her mouth but find nothing. Id. Then she began rubbing her fingers together and had
eye twitching. Id. During these episodes she would stare off, not react to sound or her name, and
her eyes would slowly move back and forth. Id.
During the hearing, petitioner stated that A.L.M. started chewing and progressed to staring
spells, chewing, and rubbing of her fingers within days of the rash. Tr. at 11. The behavior started
happening more frequently and progressed to twitching, so petitioner took A.L.M. to the doctor on
November 26, 2012. Tr. at 12; Pet. Ex. 1 at 2. The record for that appointment documents that
petitioner told the doctor these episodes began a week prior to the November 26, 2012 visit.
However, at hearing, petitioner stated the episodes began a few days after the rash and that she
âmisspoke or misjudged the time frameâ because she had a lot going on at the time and her father
was terminally ill. Tr. at 13. A.L.M.âs physician referred her to neurologist Dr. Dreyer because her
symptoms sounded âlike staring spells.â Tr. 13.
The week following the appointment, petitioner called the pediatrician to report that A.L.M.
had several episodes of âstaring, lack of attention to sounds, and trembling.â Pet. Ex. 1 at 2. She
was told to take A.L.M. to the emergency room. Id. While at the TCH ER on December 3, 2012,
A.L.M. had an episode. Id.
Petitioner affirmed that A.L.M. had episodes throughout the night of December 3, 2012,
so petitioner took her to Memorial Hermann Southeast ER. Pet. Ex. 1 at 2. That evening, A.L.M.
12
was transferred by ambulance to CMHH, where she was admitted for two days. Id. The physician
ordered an EEG, which showed a seizure. Blood tests were normal. Id. A.L.M. was put on Keppra
for complex partial seizures; but, according to petitioner, the Keppra was ânot workingâ and âhad
not helped at all.â Id. at 3; Tr. 15.
Petitioner affirmed that the episodes increased over the next few weeks and A.L.M.âs whole
body would shake, her lips would turn blue, she would not respond to her name, and she would
lose bladder/bowel control. Pet. Ex. 1 at 3. Petitioner updated Dr. Grant with the Pediatric
Neurology Department at CMHH about what was happening, and he increased A.L.M.âs Keppra
dose until she reached the maximum for her age and weight. Id. Another neurologist, Dr. Heard,
examined A.L.M. later in December 2012, during which time A.L.M. had a seizure; Dr. Heard
diagnosed A.L.M. with complex partial seizures and secondary generalization. Id.
Petitioner affirmed contacting Dr. Grant on Christmas day to report that A.L.M. was having
several seizures a day over shorter timeframes and was on the maximum dose of Keppra. Pet. Ex.
1 at 3. Dr. Grant advised petitioner to take A.L.M. to the ER, have her admitted and her prescription
changed. Id. During this hospital stay, A.L.M. was weaned off Keppra and switched to Trileptal.
Id. She was discharged the following day with a diagnosis of temporal lobe seizures. Id.
Petitioner affirmed that the Trileptal lessened the frequency of A.L.M.âs seizures. Pet. Ex. 1
at 3. A.L.M. has not had a seizure since February 2013. Id.; Tr. at 17. All medication was stopped
in late 2015, after A.L.M. had another 24-hour EEG, which came back normal. Tr. at 17-18.
Petitioner stated that A.L.M. was evaluated by speech therapists in October 2013 because
her speech and language were not progressing as they should. Pet. Ex. 1 at 4; Tr. 18. At the time
of the evaluation, A.L.M. was two years old, but she had the vocabulary of a 15-month-old. Id.;
Tr. 18. She started speech therapy at age 2. Tr. at 18. Petitioner affirmed A.L.M. has delayed verbal
communication and cognitive skills and social interaction issues. Pet. Ex. 1 at 4. At hearing,
petitioner stated that A.L.M. still has articulation issues, gets frustrated, and does not handle things
emotionally well compared to petitionerâs other child. Tr. 18-19. Petitioner considered taking
A.L.M. to a child psychologist and back to speech therapy but has not done so yet. Tr. 19-20.
The undersigned questioned petitioner about various items in the VAERS report including
petitionerâs reports that (1) within hours the rash disappeared, (2) chewing motions started two
weeks after the rash, (3) the 24-day gap between the rash on November 2, 2012 and the first
doctorâs visit on November 26, and (4) the phrase âdays to weeks.â Tr. 24-30. Petitioner responded
that the rash was on A.L.M.âs back, neck, face, and chest until the following morning. Tr. 9, 26-
27. After the rash, A.L.M. started with chewing motions, then staring, then hand rubbing, then
twitching, and the combination of these symptoms prompted her to take A.L.M. to the doctor on
November 26. Tr. 24-26. Her best estimate was that the chewing started within a week or two after
the November 2, 2012 rash. Tr. 27. Petitioner then stated that the chewing started within a few
days of the rash. Tr. 27. She believed the rash was on a Friday and the chewing, staring off, rubbing
fingers, and eye-twitching began within days. Tr. 25-26, 30. Petitioner stated that when she took
A.L.M. to the hospital on December 2, 2012 reporting onset of 4 to 6 weeks prior, she was referring
to the onset of the rash. Tr. 31. Petitioner confirmed that A.L.M. had no rashes prior to November
2, 2012. Tr. 31. Petitioner agreed she prepared the VAERS report and wrote that the onset of
13
chewing was approximately two weeks after the rash on November 2, 2012 then things progressed
very quickly. Tr. 32-33.
ii. Affidavit and Testimony of Lisa Spencer
Lisa Spencer is petitionerâs sister and A.L.M.âs aunt. Tr. 37. She submitted an affidavit and
testified at hearing. Pet. Ex. 17; Tr. 36-37. Around the time of her vaccinations, Ms. Spencer saw
A.L.M. 3-4 times a week. Tr. 37.
Ms. Spencer affirmed shopping at Target with petitioner and A.L.M. on November 2, 2012
when A.L.M. âbroke out in a rash.â Pet. Ex. 17 at 1. She stated that petitioner called the doctor
and was told that it was a normal post-vaccine reaction but if it got worse, to take A.L.M. to the
doctor. Id. at 1-2. The rash did not get worse, and they continued shopping. Id. at 2.
At hearing, Ms. Spencer was unsure when they were at Target, but it was either on
November 7, 8, or 9. Tr. 40. She stated A.L.M. was cranky and had developed a rash on her neck
and the front and back of her body. Tr. 38. Petitioner told Ms. Spencer that A.L.M. had her shots
a week prior. Tr. 38, 48. Ms. Spencer stated that A.L.M. felt warm at the time. Tr. 39; but see Tr.
21-22, where petitioner stated at hearing that A.L.M. was not feverish at the time of the rash. Ms.
Spencer stated that petitioner called the doctor who said the rash was normal. Tr. 39.
Ms. Spencer affirmed that petitioner told her A.L.M. had started making chewing motions
with nothing in her mouth a few days after the rash. Pet. Ex. 17 at 2. Ms. Spencer then noticed that
A.L.M. would stop what she was doing, sit up and make chewing motions. Tr. 40. At the time, she
did not think it was something that required medical attention. Pet. Ex. 17 at 2. She then saw
A.L.M. rubbing her fingers together, chewing, and staring off into nothing. Id. After this started,
petitioner took A.L.M. to the doctor. Id. Ms. Spencer affirmed that she and petitioner initially
thought A.L.M. was just doing ârandom âweirdâ actions all young children occasionally engage
in.â Id. When they all started happening together, they realized medical care was needed. Id.
Consistent with her affidavit, Ms. Spencer testified that she noticed a few days after the
rash that A.L.M. was making chewing motions and in a little bit of a daze; the week after the rash,
she made chewing motions at least once when petitioner dropped A.L.M. off at her house for an
hour or two. Tr. 40-41. She didnât think much of it until it progressed where she would sit, stare,
chew, and rub her fingers. Tr. 42.
However, on cross examination, Ms. Spencer stated that she witnessed A.L.M. making
chewing motions only two days after they were in Target. Tr. 46. She then stated that the family
was all together over Thanksgiving, and A.L.M.âs chewing motions had progressed to staring and
finger rolling, which led them to take A.L.M. to the emergency room. Tr. 47. Ms. Spencer later
corrected herself, saying that this occurred on Christmas day, not Thanksgiving. Tr. 47.
Ms. Spencer testified that she has two children and never saw a rash after their vaccinations,
only fussiness and fever, which usually occurred the night of the vaccine or the next day. Tr. 47-
48. She never saw a fever from vaccines a week after vaccination. Tr. 48.
14
According to Ms. Spencer, A.L.M. still has speech issues and writes things backwards, but
she is able to understand A.L.M. because her own son has a little stutter. Tr. 43-44.
iii. Affidavit of Sherry Mathison
Sherry Mathison is petitionerâs sister who lived with petitioner from August 2012 until
January 2013. Pet. Ex. 18 at 1. She submitted an affidavit but did not testify at hearing. Id. Ms.
Mathison affirmed in August 2012, A.L.M. was a well-behaved, typical child and was speaking a
couple of words. Id.
Ms. Mathison affirmed in November 2012, A.L.M. began making chewing motions with
nothing in her mouth and would rub her hands with nothing in her hand. Pet. Ex. 18 at 2. At first,
she and petitioner did not think anything of it. Id.
According to Ms. Mathison, âeventuallyâ A.L.M. engaged in all these behaviors at once;
she would stop what she was doing, sit down, and make chewing motions while rubbing her fingers
together. Pet. Ex. 18 at 2. She further stated that â[i]t was around this time that I also noticed that
A.L.M. stopped making an effort to speak the words she learned.â Id. At this point, petitioner
decided to take A.L.M. to the doctor. Id.
Ms. Mathison witnessed A.L.M.âs seizures on multiple occasions where A.L.M. would fall
to her left side, have body shakes, have her hands at her chest, and her lips would lose color. Pet.
Ex. 18 at 2. For an âextended period of time,â A.L.M. had several seizures a day and âwe could
never take our eyes off of her because we never knew when she might have seizure (sic).â Id.
V. The Expertsâ Opinions
A. Qualifications
Petitioner filed four reports from of Dr. Kinsbourne and two reports from Dr. Levin. Pet.
Ex. 14, 16, 21, 36, 5622, 39, 50.
Dr. Marcel Kinsbourne is a medical doctor who specializes in pediatric neurology. Pet. Ex.
57; Tr. 50. He graduated from Oxford University in England in 1955 with a B.M.B.Ch., the
equivalent of an American M.D. Pet. Ex. 57 at 2. Dr. Kinsbourne began practicing in the United
States as a pediatric neurologist and neuropsychologist in 1967. Id. at 3. From 1967 to 2015, Dr.
Kinsbourne served as an associate professor in pediatrics and neurology and a senior research
associate at Duke University Medical Center before holding a series of academic positions,
including professorships in pediatrics, neurology, and psychology. His clinical experience includes
serving as a senior staff physician in Ontario from 1974-1980 and a clinical associate in neurology
at Massachusetts General Hospital from 1981-1991. See Fantini v. Secây of Health & Human
Servs., No. 15-1332V, 2022 WL 1760730, at *5 (Fed. Cl. Spec. Mstr. May 2, 2022).
Dr. Kinsbourneâs last hospital-based neurology practice was in 1992 and he has since
retired from the active practice of neurology. He has had various appointments as a professor since
22
It appears that Pet. Ex. 16 and 56 are the same report.
15
with his last position being at the New School in New York, which ended in 2015. Pet. Ex. 57 at
4. An amended CV was filed for Dr. Kinsbourne in this case as Pet. Ex. 57. Dr. Kinsbourne is well
known to the Court having been involved in Vaccine Program cases since the inception of the
Program, although (as noted in other cases) many years have passed since he has regularly seen
patients. See, e.g., Strong v. Sec'y of Health & Human Servs., No. 15-1108V, 2018 WL 1125666, at *6 (Fed. Cl. Spec. Mstr. Jan. 12, 2018); Pope v. Sec'y of Health & Human Servs., No. 14â078V,2017 WL 2460503
, at *8 (Fed. Cl. Spec. Mstr. May 1, 2017).
Dr. Levin graduated from the University of Illinois-Chicago Medical Center in 1964. Pet.
Ex. 40. However, he has spent most of the last 25 years since he passed the bar practicing law,
with 95% of his income related to his law practice. Tr. 109. He does other work for his wife and
Dr. Ramey, the chief epidemiologist from California researching environmentally induced
illnesses. Tr. 109-10. He is board certified in allergy, immunology, clinical pathology, and
emergency medicine. Tr. 110. Although he spends the majority of his time in the legal field, he
keeps his medical board certifications up to date, in part by routinely attending medical lectures.
Tr. 110, 126. The last time he taught medicine was 1998, though he has been giving lectures at the
VA on environmentally induced illnesses. Tr. 110-11. He still has admitting privileges at UCSF
as an attending, but the last time he treated a patient was in 1998. Tr. 111. He last published 20
years ago. Tr. 111-12. Dr. Levin derives about 20% of his income from medical-legal expert work
and conceded that his opinions are not popular in the legal system outside of the Vaccine Program.
Tr. 112.
Respondent filed four reports from Dr. Holmes and two reports from McCusker. Resp. Ex.
A, Q, V, YY, FFF, Z.
Dr. Holmes is a pediatric neurologist. Tr. 128. He earned his medical degree at the
University of Virginia, trained in pediatrics at Yale, and returned to the University of Virginia to
train in neurology with special competence in pediatric neurology. Tr. 128. He is the chairman of
the Department of Neurological Sciences at the University of Vermont. Tr. 128. He spends 50%
of his time in clinical practice primarily seeing children with epilepsy. Tr. 128-29. The other 50%
of his time is spent doing research, administrative work, and teaching. Tr. 129; Resp. Ex. B.
Dr. McCusker is a pediatric immunologist and allergist. Tr. 184. She has an undergraduate
honors degree in microbiology and immunology, a masterâs degree in molecular virology, and
spent three years in a Ph.D. program studying immunology. Tr. 184. She then went to medical
school and completed training in allergy, pediatrics, and clinical immunology after medical school.
Tr. 184. She later conducted postdoctoral research in an immunology lab for another year. Tr. 184;
Resp. Ex. AA.
Dr. McCusker is currently an associate professor of pediatrics at McGill University and the
director of the Division of Pediatric, Allergy, Immunology, and Dermatology at the Montreal
Childrenâs Hospital and the McGill University Health Center. Tr. 185. She spends 50 percent of
her time with patients and doing clinical work and 50 percent of her time in primary research
and/or teaching and administration. Tr. 185; Resp. Ex. AA.
16
B. Causation Opinions
i. The Expert Reports
Dr. Kinsbourne opined that A.L.M.âs growth and development were normal until
November 4, 2012, when her seizures began with chewing motions then escalated thereafter. Pet.
Ex. 14 at 1-2. At 19- and 23-months of age, A.L.M. knew only a handful of words, required speech
therapy and an IEP. Id. at 3. A.L.M. has not had a seizure since February 2013.Id. at 3
. He described the onset of her seizures as âsudden and intenseâ in the second week following the MMR vaccine. Pet Ex. 14 at 3. He relied on Bourgeoisâ diagnostic criteria for complex partial seizures of the temporal lobe in infants which includes: (1) predominance of behavioral arrest with possible impairment of consciousness; (2) no identifiable aura; (3) automatisms that are discrete and mostly orofacial; (4) more prominent convulsive activity; and (5) a longer duration (more than 1 minute).Id.
Dr. Kinsbourne opined that A.L.M. had a hyperexcitable neural network in the left
temporal lobe, seen on the EEG as an active seizure focus in that area of the brain. Pet. Ex. 14 at
4. The localized nature of A.L.M.âs seizure activity was either due to past historical event, such as
ischemia or encephalitis, or an underlying structural abnormality. Id.The focal origin featured abnormal connectivity between neurons, making it more likely to discharge and cause a lowered seizure threshold. Pet. Ex. 14 at 4-5; Pet. Ex. 32.23 He explained that the propensity for seizure activity is greater in infancy because inhibitory GABA interneurons that present later in life are premature in infancy. Pet. Ex. 14 at 4; Pet. Ex. 27.24 These interneurons act as an excitatory neurotransmitter, potentially feeding incipient paroxysmal discharge.Id.
Dr. Kinsbourne referred to focal cortical dysplasia as an example of a neural disorder that lowers seizure threshold. Itsâ neural mechanisms âapply broadly to other epileptogenic structural anomalies of cortical neural networks,â and greater than 24% of epilepsies are associated with cortical malformations.Id. at 5
. Genetic causes or vascular malformations, stroke, and posttraumatic scars were all ruled out in A.L.M.âs case by an MRI and genetic testing; thus, cerebral cortical dysgenesis being the largest diagnostic category supports his view that it is medically reasonable A.L.M.âs vaccination more likely than not triggered her complex partial seizure disorder.Id.
However, Dr. Kinsbourne explained, cortical dysplasia alone would not be sufficient to
trigger epilepsy. Pet. Ex. 14 at 5, 6. He described a two-hit theory whereby a latent brain
abnormality exists which is then provoked by a second hitâhere, the MMR vaccine. Id. at 6. Regarding the first hit, areas of cortical dysgenesis feature microglial activation which releases proinflammatory cytokines, including interleukin-1 beta (also referred to a âIL-1betaâ, âIL-1bâ, or âIL-1ÎČâ), imposing on an already lowered seizure threshold.Id. at 7
.25 Vaccinations serve as the
second hit, activating the innate immune system to release proinflammatory cytokines including
23
David A. McCormick & Diego Contreras, On the Cellular and Network Bases of Epileptic Seizures, 63
ANN. REV. PHYSIOLOGY 815 (2001), filed as âPet. Ex. 32.â
24
Ilgam Khalilov et al., Epileptogenic Actions of GABA and Fast Oscillations in the Developing
Hippocampus, 48 NEURON 787 (2005), filed as âPet. Ex. 27.â
25
Jieun Choi & Sookyong Koh, Role of Brain Inflammation in Epileptogenesis, 49 YONSEI MED. J. 1
(2008), filed as âResp. Ex. J.â
17
IL-1b, which is necessary for the stimulation of an adaptive response to confer immunity.26 Id. at
6. IL-1b specifically has a âwell-documented propensity to cause seizures, and seizure activity tends to cause further releaseâ IL-1b. Id.; Pet. Ex. 34.27 The receptor for IL-1b is expressed by neurons in the hippocampus and other seizure-sensitive regions of the brain. Pet. Ex. 14 at 6-7. When IL-1b binds to its receptor, it causes enhanced neuronal excitability and a decreased seizure threshold.Id. at 7
. The second hit would initiate the cycle of seizure begetting seizure, thus leading to epilepsy.Id. at 6
.
Dr. Kinsbourne posited that patients with congenital/perinatal dysplastic lesions do not
express epilepsy until later in life and if they do, it is after some trigger. Pet. Ex. 14 at 6. The
stressors, or second hit, may facilitate eventual epileptogenesis. Id.Epileptogenic focus located in the left temporal lobe results in delays in âlanguage comprehension skills and persisting deficits in speech expression.âId.
Succinctly, Dr. Kinsbourneâs theory presumes the existence of a hyperexcitable neural
network or lower-than-normal seizure threshold due to congenital or perinatal lesions on the brain
as the first hit. Pet. Ex. 14 at 7. The MMR, which released IL-1b necessary to stimulate an adaptive
immune response, triggered the hyperexcitable neural network in the temporal lobe, causing
seizure onset emanating from that area of the brain as the second hit. Id.Dr. Kinsbourne also opined that A.L.M.âs seizures occurred in a medically reasonable time after her MMR vaccination.Id.
He further stated that there was no evidence of an alternative cause.Id.
Dr. Holmes issued a responsive report in which he opined that A.L.M.âs clinical course
was consistent with idiopathic epilepsy, and her language dysfunction was indicative of the
location from where her seizures arose. Resp. Ex. A at 6. He noted that the cause of epilepsy is
unknown in approximately 55-75% of cases. Id. at 7.
Dr. Holmes agreed that vaccines are intended to activate the innate immune system and
cause the release of proinflammatory cytokines. Resp. Ex. A at 7. He disagreed that there is any
evidence that the MMR vaccine can cause an inflammatory reaction in the temporal lobe that
results in seizures and language delay. Id.Dr. Holmes added that A.L.M. had no symptoms of inflammatory reactions after her vaccinations only a transient rash.Id.
Further, she does not have cortical dysgenesis. Clinically, her EEG and MRI showed no acute inflammatory response and none of her treaters considered her epilepsy to be vaccine related.Id.
Further, the Institute of Medicine (âIOMâ) concluded that an association between the MMR vaccine and afebrile seizures is lacking.Id.
Dr. Holmes posited that âthere is no evidence to indicate the MMR vaccine results
26
Akiko Iwasaki & Ruslan Medzhitov, Toll-like Receptor Control of the Adaptive Immune Response, 5
NATURE IMMUNOLOGY 987 (2004). This article was not filed.
27
Annamaria Vezzani, PhD & Tallie Z. Baram, MD, PhD, New Roles for Interleukin-1 Beta in the
Mechanisms of Epilepsy, 7 EPILEPSY CURRENTS 45 (2007), filed as âPet. Ex. 34.â
18
in non-febrile seizures. Id.; Resp. Ex. M;28 Resp. Ex. N;29 Resp. Ex. O.30 In conclusion, Dr. Holmes
believed that A.L.M. has âwell controlled epilepsy and an expressive speech disorder.â Resp. Ex.
A at 8.
Dr. Kinsbourne responded to Dr. Holmesâ report, clarifying that his reference to cortical
dysgenesis in his first report was for illustrative purposes only. Pet. Ex. 16 at 1. He agreed that
A.L.M. does not have cortical dysgenesis. Id.He argued that his theory, which involves the release of proinflammatory cytokines, specifically IL-1b, is a medically reasonable mechanism to show that vaccines can cause or trigger the onset of seizures to satisfy Prong I.Id. at 2
. It is well known that vaccines produce proinflammatory cytokines necessary to achieve immunity.Id.
Dr. Kinsbourne submitted that only the MMR vaccination A.L.M. received could cause seizures in the second week after vaccination, agreeing that the timeframe was not as plausible for the other vaccines.Id.
Dr. Kinsbourne issued a third report addressing afebrile seizures and MMR vaccine,
asserting that seizures may occur without fever. Pet. Ex. 21 at 1, 5; Pet. Ex. 29;31 Pet. Ex. 35.32
According to Dr. Kinsbourne, while âIL-1beta also causes feverâŠthe epileptogenic effect of IL-
beta is not mediated by its propensity also to elevate body temperature.â Id. at 5; Pet. Ex. 24.33 Dr. Kinsbourne explained that IL-1beta is expressed in neurons in the hippocampus and other seizure- sensitive areas of the brain and when it binds to its receptor, it causes enhanced neuronal excitability and decreased seizure threshold. Pet. Ex. 21 at 5. The presumption that A.L.M. had a lowered seizure threshold is required and is reasonable âsince great numbers of other children who receive [the MMR vaccine] do not have seizures.âId.
Further, Dr. Kinsbourne submitted, âhere, seizures occurred after MMR vaccination and
during the period of viremia from the attenuated live measles virus. As with mild infections, a
minority of seizures are afebrile. A substantial amount of literature documents afebrile seizures
occurring in the risk period after MMR vaccination.â Pet. Ex. 21 at 5. For example, Le Saux
reported 78 cases of new onset seizures, of which 16 were afebrile; further, there were â33 reports
of hospitalization for afebrile seizures occurring 5 to 30 days after receipt of MMR vaccine.â Pet.
Ex. 21 at 5; Pet. Ex. 31.34 Further, von Spiczak reported 44 cases of afebrile seizures, as compared
28
Robert L. Davis & William Barlow, Placing the Risk of Seizures with Pediatric Vaccines in a Clinical
Context, 5 PEDIATRIC DRUGS 717 (2003), filed as âResp. Ex. M.â
29
William E. Barlow, PhD et al., The Risk of Seizures After Receipt of Whole-cell Pertussis or Measles,
Mumps, and Rubella Vaccine, 345 NEW ENGLAND J. OF MEDICINE 656 (2001), filed as âResp. Ex. N.â
30
V. Demicheli et al., Vaccines for Measles, Mumps, and Rubella in Children (Review), COCHRANE
DATABASE SYST REV. (2012), filed as âResp. Ex. O.â
31
Lee & Ong, supra note 5.
32
Ting Zhang et al., Are Afebrile Seizures Associated with Minor Infections a Single Seizure Category? A
Hospital-based Prospective Cohort Study on Outcomes of First Afebrile Seizure in Early Childhood, 55
EPILEPSIA 1001 (2014), filed as âPet. Ex. 35.â
33
Céline M. Dubé et al., Febrile Seizures: Mechanisms and Relationship to Epilepsy, 31 BRAIN AND
DEVELOPMENT 366 (2010), filed as âPet. Ex. 24.â
34
Nicole Le Saux, MD, et al., Decrease in Hospital Admissions for Febrile Seizures and Reports of
Hypotonic-hyporesponsive Episodes Presenting to Hospital Emergency Departments Since Switching to
Acellular Pertussis Vaccine in Canada: a Report from IMPACT, 112 PEDIATRICS 348, 351 (2003), filed as
âPet Ex. 31.â
19
with 136 cases of febrile seizures, noting â[s]ingle afebrile seizures were reported in 44 (17.8%)
of 247 cases, including single focal seizures (n = 4), tonic seizures (n = 2), atonic seizures (n = 3),
generalized tonic-clonic seizures (n = 14), and afebrile status epilepticus (n = 6).â Pet. Ex. 21 at 5;
Pet. Ex. 33.35
Dr. Kinsbourne agreed that the IOM committee on adverse effects of vaccines by Stratton36
did not credit any of the ânumerous reports of afebrile seizures related to MMR.â Pet. Ex. 21 at 5.
However, he claimed the committee âhardly credits any causal relations between any vaccine and
any adverse event, since it chose a standard of adjudication that is quite unrealistically elevated for
purposes of vaccine injury compensation proceedings.â Id.
In his second report, Dr. Holmes agreed that A.L.M. had localized epilepsy emanating from
the left hemisphere of her brain. Resp. Ex. Q at 2. He agreed that seizures arise from abnormal
brain tissue. Id. However, Dr. Holmes was unclear about petitionerâs two-hit theory, specifically,
what constituted the first hit and what the biological mechanism was for the MMR to be the second
hit. Id. He pointed out that there is no evidence that A.L.M. had any inflammatory response
following her vaccines. Id.
Dr. Holmes added that âthe adjusted incidence of new-onset epilepsy in children is 44.5
cases per 100,000 persons per year with the highest incidence rates in the first year of life.â Resp.
Ex. Q at 3. Neither the Le Saux nor the von Spiczak studies relied on by Dr. Kinsbourne examined
the comparative risk of afebrile seizures in children who were not immunized. Id.; Pet. Ex. 31;37
Pet. Ex. 33.38 Dr. Holmes agreed that a small number of children have developed epilepsy after
having afebrile seizures following an MMR vaccine but submitted those children would have
likely developed epilepsy regardless. Resp. Ex. Q at 3. For this reason, neither Le Saux nor von
Spiczak were considered by the IOM in evaluating epidemiologic or mechanistic evidence related
to the MMR vaccine; the IOM ultimately concluded that an association between MMR and afebrile
seizures was lacking. Id.; Pet. Ex. 31;39 Pet. Ex. 33.40 Additionally, Dr. Holmes added, the von
Spiczak article specifically noted that âpassive surveillance [is] not suitable for determining the
frequency of a particular adverse effect.â Resp. Ex. Q at 3; Pet. Ex. 33.41 In sum, Dr. Holmes
restated his opinion that A.L.M. has well controlled epilepsy and an expressive language disorder,
but disagreed her neurological condition was related to the vaccine. Resp. Ex. Q at 3.
In his fourth report and in response to questions raised by the undersigned, Dr. Kinsbourne
submitted that the exact abnormality on the brain is immaterial; what matters is that abnormal brain
tissue exists in the area from which the epilepsy is generated. Pet. Ex. 36 at 1. Dr. Kinsbourne
added, â[t]he evidence that A.L.M. had a lowered seizure threshold resides in the facts of this
case.â Id. All that is necessary is that the personâs brain tissue includes hyperexcitable neuronal
35
Sarah von Spiczak et al., A Retrospective Population-based Study on Seizures Related to Childhood
Vaccination, 52 EPILEPSIA 1506 (2011), filed as âPet. Ex. 33.â
36
Based on review of the record, it does not appear that the Stratton et al. (2012) article was filed.
37
Le Saux et al., supra note 34.
38
von Spiczak et al., supra note 35.
39
Le Saux et al., supra note 34.
40
von Spiczak et al., supra note 35.
41
Id.
20
tissue, by virtue of which the seizure threshold is lowered; this renders the individual susceptible
to generating seizures if provoked by a triggering event, such as receiving a vaccine. Id. According
to Dr. Kinsbourne, â[t]he damage to the neural network could theoretically have been inflicted by
the vaccinations. But far more likely it was in place before the vaccination, which rendered this
susceptibility into the reality of [A.L.M.âs] seizure disorder.â Id.
Dr. Kinsbourne claimed that the Dubé and Vezzani articles support his opinion that
proinflammatory cytokinesâIL-1bâcan cause seizures as well as fever, though one is not
contingent on the other. Pet. Ex. 36 at 2; Pet. Ex. 38; 42 Pet. Ex. 37. 43 He further opined that a
seizure triggered by measles viremia need not be accompanied by fever. Pet. Ex. 36 at 2. Pointing
to a chart contained in the Vezzani study, Dr. Kinsbourne suggested that IL-beta generates
epileptogenesis through different pathways that can be activated in parallel, but neither of which
features fever. Id.; Pet. Ex. 37.44
Dr. Kinsbourne conceded whether she had fever or no fever and regardless of if her seizure
threshold was lowered or her neural network hyperexcitable, the vaccine would not be responsible
for A.L.M.âs seizures if it is found that her seizures had an onset in excess of two weeks after the
MMR vaccine. Pet. Ex. 36 at 2.
Dr. Holmes responded in a third report, which addressed the temporal relationship between
vaccination and symptom onset. He submitted that febrile seizures present between 7-14 days after
MMR vaccination but can range from hours to 28 days. Resp. Ex. V at 2. If the time interval
between A.L.M.âs MMR vaccine and her first seizure is found to be 31 days, then it would fall
outside of the timeframe even for MMR-induced febrile seizures. Id. However, Dr. Holmes posited
there is no biological mechanism by which the MMR vaccine can cause afebrile seizures. Id.
Further, neither Dubé nor Vezzani address vaccination-induced proinflammatory cytokines. Id. at
3; See Pet. Ex. 38;45 Pet. Ex. 37.46 He added neither Dubé nor Dr. Kinsbourne have explained how
the MMR vaccine can increase cytokines in the absence of fever and cause seizures. Resp. Ex. V
at 3.
Dr. Holmes further opined that there was no evidence either epidemiologically or
mechanistically to support Dr. Kinsbourneâs opinion that A.L.M. had âhyperexcitable neuronal
tissue,â resulting in a lower seizure threshold and rendering her susceptible to a seizure disorder
that was activated by the MMR vaccine. Resp. Ex. V at 2-3.
Petitionerâs expert Dr. Levin issued a report which also discussed the two-hit theory. Pet.
Ex. 39 at 2. Dr. Levin proposed that the first hit was from birth trauma or a genetic propensity that
42
Céline M. Dubé et al., Cytokines: A Link Between Fever and Seizures: Interleukin-1b Contributes to the
Generation of Experimental Febrile Seizures, 57 ANN. NEUROLOGY 152 (2005), filed as âPet. Ex. 38â and
âResp. Ex. QQ.â
43
Annamaria Vezzani et al., The Role of Cytokines in the Pathophysiology of Epilepsy, 22 BRAIN,
BEHAVIOR, & IMMUNITY 797 (2008), filed as âPet. Ex. 37.â
44
Id. at 801.
45
Dubé et al., supra note 42.
46
Vezzani et al., supra note 43.
21
lowered seizure threshold. Id. The second hit was from âthe multiple vaccinationsâ47 A.L.M.
received on October 25, 2012 that caused or substantially contributed to her seizures and epilepsy,
with or without fever, because âall vaccines are engineered to activate the innate immune system
and cytokine enhancement.â Id. at 1-2. The enhanced cytokine production, then caused neuronal
damage. Pet. Ex. 39 at 2. The first clinical signs of neuronal damage were the chewing motions,
staring, not reacting to sound, and rubbing of her fingers, all of which began within two weeks of
the vaccination. Id. The seizures âwere simply a further indication of the progression of neuronal
damage and were noted one month later.â48 Id. A.L.M.âs rash on November 2 was an inflammatory
response caused by cytokine production evoked by vaccination. Id.
Dr. Levin opined that MMR vaccine is associated with afebrile seizures relying on Eckerle,
Weibel, and the MMR vaccine package insert. Pet. Ex. 39 at 2; Pet. Ex. 41;49 Pet. Ex. 45;50 Pet.
Ex. 43. According to Dr. Levin, peripheral vaccinations produce cytokines, which can cause both
fevers and seizures independent of one another, writing, âseizures are caused by the neuronal
damage which, in turn, is caused by the cytokines and independent of the fever.â Pet. Ex. 39 at 2;
Pet. Ex. 42.51
Dr. Levin concluded that Prong I was âclearlyâ established in â[t]he fact that her symptoms
began within 2 weeks of the vaccination and they all biologically plausibly related to cytokine
reactions satisfies the 1st first signs of cytokine induced neuronal damage is totally appropriate
satisfies the 2nd prong.â52 Pet. Ex. 39 at 2 (emphasis in original). Further, Dr. Levin opined that
the vaccinations received by A.L.M. on October 25, 2012 were the cause or substantial contributor
to her neurologic pathology. Id.
Dr. McCusker responded to both Drs. Kinsbourne and Levin in her first report. She
provided an in-depth explanation of how vaccines work to produce immunity and the function of
cytokines. Resp. Ex. Z. She defined cytokines as communication proteins that interact with
receptors, inducing a response that affects the behavior and the function of the recipient cell. Id. at
3. âCytokines shape the innate and adaptive immune response and depending upon the profile and
amount of cytokines released these responses may be pro- or anti-inflammatory.â Id. Unlike
cytokines expressed in the periphery, cytokines expressed in the brain can play a distinct role in
normal brain homeostasis and are not considered âpro inflammatory.â Id. at 3-4.
47
Notably, Dr. Levin agreed with Dr. Kinsbourne that the MMR vaccine was the âlead actor[] in this
scenario, however the contribution of the other eighteen pathogen simulating antigens, DTaP, Hib, Prevnar
13 and Varicella . . . should not be ignored in this babyâs neuropathology.â Pet. Ex. 39 at 1.
48
It appears that Dr. Levin placed seizure onset approximately one month after A.L.M.âs vaccination, which
is consistent with petitionerâs VAERS report and with the medical records. However, this is inconsistent
with Dr. Kinsbourneâs proposed date of seizure onset, which was roughly ten days following A.L.M.âs
vaccination. See Tr. 54. This issue will be discussed further in Prong III.
49
Isabella Eckerle et al., Nonfebrile Seizures after Mumps, Measles, Rubella, and Varicella-Zoster Virus
Combination Vaccination with Detection of Measles Virus RNA in Serum, Throat, and Urine, 20 CLINICAL
& VACCINE IMMUNOLOGY 1094 (2013), filed as âPet. Ex. 41.â
50
Robert E. Weibel, MD et al., Acute Encephalopathy Followed by Permanent Brain Injury or Death
Associated with Further Attenuated Measles Vaccines: A Review of Claims Submitted to the National
Vaccine Injury Compensation Program, 101 PEDIATRICS 383 (1998), filed as âPet. Ex. 45.â
51
Ichiyama et al., supra note 15.
52
This is a direct quote, and it is unclear what this means.
22
Dr. McCusker submitted that fever, for example, is the effect of cytokines such as IL1b,
IL6 and Tumor Necrosis Factor Alpha (âTNFαâ). Id. at 3. These cytokines are part of the initial
cascade of inflammation at the site of infection or trauma which is usually transient and tightly
regulated. Resp. Ex. Z at 3. Most cytokine events occur locally and do not generate significant
systemic signaling. Id. Even with live viruses, the zone of activity is primarily limited to the local
lymph nodes. Id. at 8. Further, there is no evidence that cytokines produced from a peripheral
vaccination can trigger epilepsy generally or that it did here. Id.
Dr. McCusker relied on Kashiwagi, to explain cytokine upregulation following receipt of
vaccines that is transient and tightly regulated. Resp. Ex. Z at 5; Resp. Ex. GG.53 Notably,
examination of serum cytokine levels in children within 48 hours of vaccination showed very low
amounts of IL-1b, IL6, and TNFα, suggesting that the level of cytokines produced and released by
the peripheral immune system during vaccination is not sufficient to influence the development of
cytokine-mediated changes in seizure threshold as proposed by petitionerâs experts. Resp. Ex. Z
at 5. She acknowledged that Kashiwagi did not study live viral vaccinations like the MMR vaccine,
but did study Hib, DPT, and 7-valent pneumococcal vaccines; however, studies of wild type
measles infection did not show high levels of IL-1b. Id.; Resp. Ex. GG.54
Dr. McCusker referenced Dubé to show that the cytokine levels after peripheral vaccination
showed no evidence of significant cytokine changes in the brain. Resp. Ex. Z at 7. In Dubé, large
amounts of IL-1beta were injected directly into the brains of mice. The level of cytokines necessary
to induce a lowered seizure threshold in the mice was more than 1000 times greater than that found
in the blood during actual measles infection. Id. Dr. McCusker estimated that IL-1b levels after an
attenuated strain vaccine, like MMR vaccine, would be similar to or less than the levels seen in
wild type measles infection. Id. at 5. Thus, even if peripheral IL-1b was detectable when A.L.M.
had the rash on November 2, 2012, the level would have been low. Id. Further, she claimed that
there is no evidence of sustained IL-1b in this case. Id.
Dr. McCusker referenced the Ron-Harel and Moidunny studies to show that cytokines play
a role in normal brain function due to their function in neuroprotection and neuromodulation. Resp.
Ex. Z at 5; Resp. Ex. II;55 Resp. Ex. JJ.56 At baseline, microglial cells present in the brain release
cytokines and can increase from stressors but are involved in basic brain physiology. Resp. Ex. Z
at 5. The Li study showed that cytokines may even reduce the risk of seizure activity, concluding
that âIL-1beta, in the CNS in general, reduces rather than augments neuronal activity.â Resp. Ex.
53
Yasuyo Kashiwagi et al., Production of Inflammatory Cytokines in Response to Diphtheria-Pertussis-
Tetanus (DPT), Haemophilus Influenzae Type b (Hib), and 7-Valent Pneumococcal (PCV7) Vaccines, 10
HUMAN VACCINES & IMMUNOTHERAPEUTICS 677 (2014), filed as âResp. Ex. GG.â
54
Id.
55
Noga Ron-Harel et al., Brain Homeostasis is Maintained by ââDangerââ Signals Stimulating a Supportive
Immune Response Within the Brainâs Borders, 25 BRAIN, BEHAVIOR, & IMMUNITY 1036 (2011), filed as
âResp. Ex. II.â
56
Shamsudheen Moidunny et al., Interleukin-6-type Cytokines in Neuroprotection and Neuromodulation:
Oncostatin M, but Not Leukemia Inhibitory Factor, Requires Neuronal Adenosine A1 Receptor Function,
114 J. OF NEUROCHEMISTRY 1667 (2010), filed as âResp. Ex. JJ.â
23
Z at 7; Resp. Ex. RR.57 She added that Vezzani & Baram, who chemically induced seizures with
large amounts of IL-1b injected directly into the hippocampus of rats, found that IL-1b
administered peripherally had an anticonvulsant effect. Resp. Ex. Z at 8; Pet. Ex. 34.58 While
cytokines from the periphery can cross the blood brain barrier and stimulate nerve fibers in areas
of inflammation, causing upregulation in the various areas of the brain leading to sickness behavior
such as fever there is no evidence that low concentrations of peripheral cytokines result in
significant increases or overexpression of these cytokines in the brain tissue. Id. at 7.
Dr. McCusker posited that cytokines in the brain are produced in response to and serve as
the etiology for seizures not the cause of seizures as opined by Drs. Kinsbourne and Levin. Resp.
Ex. Z at 7, 8. There is no evidence to show that the peripheral release of IL-1b or other pro-
inflammatory cytokines following vaccination can cause epilepsy. Id. at 8. Dr. McCusker pointed
out that von Spiczak concluded, âthe risk for epilepsies is not elevated even though epilepsy may
present with a seizure following vaccination.â Resp. Ex. Z at 8; Pet. Ex. 33.59 The authors further
stated that â[c]arefully designed studies have failed to demonstrate an association between
vaccination and adverse neurological outcome in children.â Resp. Ex. Z at 8, Pet. Ex. 33.60 Further,
the authors in Verbeek concluded that the results supported their hypothesis that predisposing
factors within the childâand not the vaccinationâcaused the observed neurologic deterioration.
Id.; Resp. Ex. UU.61
Dr. McCusker added that epidemiological studies demonstrate that the incidence of
epilepsy is highest in infancy and seizure onset in the first year of life most commonly occurs
before the age of 7 months. Resp. Ex. Z at 8. She also noted that onset of focal epilepsy is mainly
in infancy. Id. at 7; Resp. Ex. PP.62 Further, more than 60% of those patients with epilepsy show
no neurological deficits at the time of onset and 37% have normal MRIs. Resp. Ex. Z at 7; Resp.
Ex. PP.63 Although there is a temporal association between seizures and vaccination, the events
have yet to be etiologically linked. Resp. Ex. Z at 8-9.
Dr. McCusker noted that A.L.M. had many events since birth that activated peripheral
immunity by releasing cytokines, including an RSV infection at 5 weeks of age, vaccinations at 2,
4, 6 and 12 months of age, and gastroenteritis during the summer of 2012. Resp. Ex. Z at 4. At 12
months old, she received multiple vaccinations and experienced no fever, no evidence of
inflammation at the vaccination site reported and no sick behaviors. Id. at 5. After her subject
vaccinations, there were no symptoms of systemic cytokine activation, although she did have a
rash on November 2, 2012. Id.; see also Resp. Ex. EE.64
57
Gang Li et al., Cytokines and Epilepsy, 20 SEIZURE 249 (2011), filed as âResp. Ex. RR.â
58
Vezzani & Baram, supra note 27.
59
von Spiczak et al., supra note 35.
60
Id. at 8.
61
Verbeek et al., Etiologies for Seizures Around the Time of Vaccination, 134 PEDIATRICS 658 (2014), filed
as âResp. Ex. UU.â
62
Marilena Vecchi, Symptomatic and Presumed Symptomatic Focal Epilepsies in Childhood: An
Observational, Prospective Multicentre Study, 57 EPILEPSIA 1808 (2016), filed as âResp. Ex. PP.â
63
Id.
64
Maria I. Oliveira et al., Rash After Measles Vaccination: Laboratory Analysis of Cases Reported in SĂŁo
Paulo, Brazil, 36 REVISTA DE SAUDE PUBLICA 155 (2002), filed as âResp. Ex. EE.â
24
Dr. McCusker opined that A.L.M. had a seizure disorder which manifested weeks after her
vaccination. Resp. Ex. Z at 9. Though the precise timing of onset was unclear, there is no evidence
in the medical records or medical literature to support the idea that A.L.M.âs vaccinations led to
her seizure disorder. Id. Studies show that IL-1b levels after vaccination are very low and only
small amounts are detected in patients even with wild-type measles infection when they manifest
with rash. Id. The levels required to decrease seizure threshold would be even greater than what is
detected in patients who have severe symptoms requiring hospitalization due to natural infection.
Id. Therefore, there is no evidence of a causal link between A.L.M.âs vaccination and her seizures.
Id.
Dr. Levin responded, maintaining his opinion that twenty-one separate infectious antigens
and adjuvants received caused an inflammatory response, with A.L.M.âs rash on November 2 as
consistent with a cytokine-induced inflammatory cutaneous reaction. Pet. Ex. 50 at 1.
Further, Dr. Levin maintained that fever and seizures are independent of one another. Pet.
Ex. 50 at 1. He relied on Dubé admitting that when recombinant IL-1b was administered to wild
type mice it decreased seizures but at high doses was sufficient to induce seizures in afebrile
animals. Id.; Pet. Ex. 38.65 Vezzani showed that afebrile seizures themselves led to the expression
of IL-1b in microglia, claiming that IL-1b induced by seizures may in turn exacerbate ongoing
seizures acting as its neuronal receptor. Pet. Ex. 50 at 1; Pet. Ex. 55.66 He submitted that seizures
are caused by the lowering of seizure thresholds in neurons and from edema. Pet. Ex. 50 at 2; Pet.
Ex. 52.67 He concluded that fever and seizures are caused by independent pathways with fever
caused by the interaction of endogenous and exogenous cytokines on the hypothalamus and other
portions of the brain. Pet. Ex. 50 at 2; Pet. Ex. 53.68
Dr. Levin criticized the literature relied on by Dr. McCusker referring to Kashiwagi and
Lin as âirrelevantâ and âinaccurateâ. Pet. Ex. 50 at 2-3; See Resp. Ex. GG,69 Resp. Ex. HH.70 He
submitted that Dr. McCusker offered Kashiwagi to show that the cytokines released by vaccines
are very low; but her interpretation was âinaccurate and unrelated toâ DubĂ©. Pet. Ex. 50 at 2.
According to Dr. Levin, Dubé 71 identified changes in brain cells after the direct injection of
65
Dubé et al., supra note 42.
66
Annamaria Vezzani et al., Interleukin-1b Immunoreactivity and Microglia Are Enhanced in the Rat
Hippocampus by Focal Kainate Application: Functional Evidence for Enhancement of Electrographic
Seizures, 19 J. OF NEUROSCIENCE 5054 (1999), filed as âPet. Ex. 55.â
67
Einar E. Eriksson et al., Direct Observations In Vivo on the Role of Endothelial Selectins and Alpha (4)
Integrin in Cytokine-induced Leukocyte-endothelium Interactions in the Mouse Aorta, 86 CIRCULATION
RES. 526 (2000), filed as âPet. Ex. 52.â
68
Mihai G. Netea et al., Circulating Cytokines as Mediators of Fever, 31 CLINICAL INFECTIOUS DISEASES
178 (2000), filed as âPet. Ex. 53.â This article discusses fever as an important part of the bodyâs response
to exogenous factors and the many ways and through various organs that the body can generate fever.
69
Kashiwagi et al., supra note 53.
70
Wen-Hsuan W. Lin et al., Plasma Cytokines and Chemokines in Zambian Children with Measles: Innate
Responses and Association With HIV-1 Coinfection and In-Hospital Mortality, 215 J. OF INFECTIOUS
DISEASES 830 (2017), filed as âResp. Ex. HH.â
71
Dubé et al., supra note 42.
25
cytokines into the brain; Kashiwagi,72 on the other hand, studied peripheral blood cells, not brain
cells. Id. at 2-3. Further, Lin73 studied acute viral diseases not vaccinations. Id. at 3. Dr. Levin
concluded that DubĂ©74 âclearlyâ shows that cytokines cause seizures and fevers separately,
supporting his theory that vaccine(s) can cause an afebrile seizure. Id.
Dr. Holmes issued a report in response to Dr. Levin. Resp. Ex. YY at 2. He posited that
there was no birth trauma in this case, citing to A.L.M.âs Apgar scores, her newborn screening,
and her numerous well-child visits. Id. Dr. Holmes also stated he was unclear on what Dr. Levin
was referring to as the âfirst hit.â Id.
Dr. Holmes agreed that the MMR vaccine elicits an innate response, but there was no proof
that A.L.M.âs innate immune response resulted in a neurological injury as Dr. Levin suggested.
Resp. Ex. YY at 3. Dr. Holmes explained that within hours of the introduction of an antigen to the
body, an innate immune response occurs, wherein B and T cells are activated by macrophages and
dendritic cells that engulf the antigen. Id. These new antigen-presenting cells present the antigen
to T cells and then release inflammatory cytokines and chemokines that recruit, activate, and
proliferate the B and T cells. Id. Then, activated B and T cells ârelease inflammatory mediators
leading to the recruitment and activation of additional immune cells that further amplify the
immune response through the release of inflammatory mediators.â Id. There is no evidence in this
case that the MMR vaccine A.L.M. received resulted in her suffering from a systemic response
that caused brain damage. Id. Dr. Levin provided no support for his argument other than relying
on a transient rash. Id.
Dr. Holmes explained that children develop rashes all the time for various reasons and
some following MMR immunization. Petitioner affirmed that A.L.M.âs rash appeared a week after
her vaccinations and lasted less than an hour. Resp. Ex. YY at 3. A.L.M.âs EEG showed no acute
inflammatory brain injury. Id. According to Dr. Holmes, Dr. Levinâs opinionâthat the MMR
vaccine led to âan intense release of cytokines that resulted in a transient rash and elicited brain
damage in a child who had no signs or symptoms of central nervous system diseaseâ leading to
permanent brain injuryâis âimplausible from both a clinical and biological standpoint.â Id.
Dr. Holmes discussed the Weibel and Eckerle studies relied on by Dr. Levin in support of
his theory that MMR vaccine can cause afebrile seizures. Resp. Ex. YY at 4; Pet. Ex. 41;75 Pet.
Ex. 45.76 Dr. Holmes submitted that Weibel was based on passive retrospective surveillance with
no control group and discussed children who developed encephalopathy of no determined cause
within 15 days of MMR; the authors found a clustering with peak onset of cases on days 8 and 9
after immunization. Resp. Ex. YY at 4; Pet. Ex. 45.77 Here, however, A.L.M. did not develop
encephalopathy 8 or 9 days after vaccination. Resp. Ex. YY at 4. Further, Eckerle is a case study
of one child who had three generalized tonic clonic seizures 6 days after MMR/varicella vaccines.
72
Kashiwagi et al., supra note 53.
73
Lin et al., supra note 70.
74
Dubé et al., supra note 42.
75
Eckerle et al., supra note 49.
76
Weibel et al., supra note 50.
77
Id.
26
Resp. Ex. YY at 4; Pet. Ex. 41.78 The authors concluded that it was not possible to assess a causal
relationship between afebrile seizures and vaccination. Resp. Ex. YY at 4.
Dr. Holmes disagreed that A.L.M.âs neuropathology was neuronal damage caused by
cytokines enhanced by the vaccination on October 25, 2012. Resp. Ex. YY at 4. There was no
proof in the record of neuronal damage, and Dr. Levin failed to explain what he was referring to
as âobvious signsâ of neuronal damage. Id. Notably, none of A.L.M.âs treaters recognized obvious
signs of neuronal damage either. Id.
Dr. Holmes further took issue with Dr. Levinâs opinion that cytokines produced from
peripheral vaccinations can cause fever and seizures independent of one another. Resp. Ex. YY at
4. He discussed the Ichiyama study relied on by Dr. Levin, noting that the study was of prolonged
febrile seizures in children with acute encephalitis/encephalopathy associated with fever. The
study did not involve vaccines at all. Id.; Pet. Ex. 42.79 Further, A.L.M. did not have febrile seizures
or encephalopathy. Resp. Ex. YY at 4. Dr. Holmes concluded that Dr. Levinâs opinion lacked any
support from the medical record or credible literature. Id.
Dr. McCusker issued a report in response to Dr. Levin, addressing A.L.M.âs rash. She
explained that the rash that develops 7-10 days after the MMR vaccination marks the bodyâs
clearance of the infectious virus and the end of inflammation. Resp Ex. FFF at 3; Resp. Ex. GGG.80
Evidence shows that following the resolution of the rash, the dominant active immune response is
regulatory, anti-inflammatory T cells. Id. Thus, inflammatory cytokines would not circulate after
the rash. Id. Here, if A.L.M.âs rash was vaccine related, it was an indication that the inflammation
process had ended. Id.
Dr. McCusker also explained the concept of cytokine half-life. She pointed out that the IL-
1b in serum has a half-life clearance of 19 minutes, while subcutaneous administration peaks at
one hour with a half-life of 1.59 minutes. Resp Ex. FFF at 4; Resp. Ex. HHH.81 This means that
any unused serum IL-1b would be inactivate for only 19 minutes after release. Resp Ex. FFF at 3.
Thus, based on the data, any peripherally released IL-1b that may be elevated following
vaccination has no afebrile epilepsy-causing potential. Id.
Dr. McCusker responded to Dr. Levinâs criticisms of the literature she referenced, pointing
out that Dr. Levin provided no evidence to support his opinion that brain cell cytokine levels are
significantly elevated after vaccination. Resp. Ex. FFF at 3-4; Resp. Ex. GG;82 Resp. Ex. HH.83
She noted that in Dubé, they were only able to induce afebrile seizures using high levels of IL-1b
injected directly into the animalsâ brains. Id. at 4; Pet. Ex. 38.84 This does not equate to cytokines
78
Eckerle et al., supra note 49.
79
Ichiyama et al., supra note 15.
80
Diane E. Griffin, The Immune Response in Measles: Virus Control, Clearance and Protective Immunity,
8 VIRUSES 282 (2016), filed as âResp. Ex. GGG.â
81
Shoji Kudo et al., Clearance and Tissue Distribution of Recombinant Human Interleukin IÎČ in Rats, 50
CANCER RESEARCH 5751 (1990), filed as âResp. Ex. HHH.â
82
Kashiwagi et al., supra note 53.
83
Lin et al., supra note 70.
84
Dubé et al., supra note 42.
27
generated in response to a peripheral vaccination. Resp. Ex. FFF at 4. Additionally, and contrary
to Dr. Levinâs opinion, Li showed that the cytokines released in the brain were in response to a
seizure, not the cause of the seizure. Resp. Ex. FFF at 4; Resp. Ex. RR.85
Dr. McCusker concluded that A.L.M. suffered many infections prior to the subject
vaccination that raised her proinflammatory cytokine levels as evidenced by her fevers; however,
she did not develop febrile seizures or epilepsy at those times. Resp. Ex. FFF at 3. In Dr.
McCuskerâs opinion, A.L.M. developed a seizure disorder which manifested around the age of 13
months. Id. at 4. There is no evidence that the vaccines A.L.M. received on October 25, 2012
contributed to the development of her seizure disorder. Id.
ii. The Testimony of the Experts
a. Dr. Kinsbourne
At hearing, Dr. Kinsbourne explained that his two-hit theory included genetic susceptibility
as the first hit and the MMR vaccine on October 25, 2012 as the second hit triggering A.L.M.âs
seizure disorder and epilepsy. Tr. 52, 67-70, 77-78. He added that both the MMR and Varicella
vaccines being live attenuated vaccines fit the expected time frame of 5 to 15 days for the onset of
seizures and that administering the two vaccines at the same time doubles the risk of febrile
seizures. âIn my mind, it says that the ability of MMR to cause seizures during the risk period, is
greater if there is varicella as well.â Tr. 52, 92-93. Dr. Kinsbourne stated that seizures can be
triggered by a lot of different stressors or traumas in the system, including vaccinationâthough it
is a âless prominentâ cause. Tr. 79. He submitted that A.L.M.âs family history made seizures more
likely. Tr. 69-70. She had susceptibility and the vaccine triggered A.L.M.âs seizures; if not for the
vaccine, she may have never developed seizures. Tr. 82.
In Dr. Kinsbourneâs proposed theory, the first hit was structural or genetic abnormality that
existed at the location where the seizures generated from, which lowered the seizure threshold. Tr.
67-70. âClearly, you have a lower seizure threshold if youâre actually having seizure activity.â Tr.
68. He described A.L.M.âs seizures as âcentral temporal seizuresâ emanating from the left
hemisphere at the back of the frontal lobe or the area referred to as the central fissure, which is a
cut between the frontal lobe and the other lobes. Tr. 52-53. This area is part of the motor strip
involved with movements of the face and head. Tr. 53. Thus, the seizure activity arose from the
face, eyes, mouth, and maybe swallowing. Tr. 53.
At hearing and for the first time, Dr. Kinsbourne suggested that A.L.M. may have been
having subclinical micro seizures before her vaccinations, which lowered her seizure threshold so
that the vaccines when received set off the full seizures. Tr. 69. He reasoned that in her first year
of life, A.L.M. had more than the normal amount of excitatory activity â âyou can think of
subclinical seizures going on in that area.â However, it was not until the vaccination that the area
organized and caused actual seizure activity. Tr. 61. The brain is always in flux and those with a
lowered seizure threshold do not immediately express seizures; it could be days, weeks, months,
or never. Tr. 61-63. A.L.M. just happened to receive the October 25, 2012 vaccinations when she
was most vulnerable. Tr. 63.
85
Li et al., supra note 57.
28
Acknowledging that A.L.M.âs seizures were afebrile, Dr. Kinsbourne stated that febrile
and afebrile seizures are different only as a matter of degree and can be difficult to differentiate.
Tr. 65, 80. He referenced Scheffer86 to illustrate that fever is not the mechanism responsible for
triggering seizures where a lower seizure threshold exists. Tr. 59-60, Pet. Ex. 58.87 Scheffer
provided that â[v]accination triggers the onset of seizures in one-third of patients with Dravet
Syndrome, some patients do not have a feverâŠâ Tr. 59-60; Pet. Ex. 58.88 Dravet Syndrome is a
very serious seizure disorder caused by a mutation of SCN1A. Dr. Kinsbourne agreed that A.L.M.
does not have Dravet Syndrome. Tr. 60. However, he claimed that Scheffer shows that there is a
lower seizure threshold where excitation exceeds inhibition, so it takes less to provoke a seizure.
Tr. 60-61; Pet. Ex. 58.89
Dr. Kinsbourne further stated that A.L.M.âs seizure threshold could have been so low that
her seizures began before a fever had time to elevate, relying on Scheffer and Berg. Tr. 90; Pet.
Ex. 58;90 Pet. Ex. 61.91 He submitted that A.L.M.âs seizure threshold was very low at the time of
vaccination but increased at some point in time acknowledging that her seizures have ceased. Tr.
92. He stated, âcentral temporal epilepsies donât go on into adulthood.â Tr. 92.
For the second hit, Dr. Kinsbourne opined that the MMR vaccine caused an increase in
cytokines, specifically IL-1b, that triggered A.L.M.âs epilepsy. Tr. at 75. He explained that when
confronted with an infection or vaccination, the innate immune system responds by sending out
proinflammatory cytokines, IL-1b being the most important one. Tr. 56. The hypothalamus in the
brain generates fever or inflammation in response to the cytokines, and one of the potential
consequences is a seizure. Tr. 56; Pet. Ex. 37.92 Dr. Kinsbourne conceded that fever and seizures
usually go together in young children but stated there can be seizures with no fever or only a
minimal rise in fever because fevers and seizures have separate pathways. Tr. 56-57. Afebrile or
low-grade febrile seizures following cytokines are particularly likely if the seizure threshold is
already low. Tr. 57. Fever usually has nothing to do with seizure activity. Tr. 57.
Dr. Kinsbourne stated that the literature supports afebrile seizures following vaccination.
86
Dravet syndrome is a rare type of epilepsy, usually starting in the first year of life. The first manifestation
is often a seizure triggered by a high fever and lasting more than five minutes. Children with Dravet
syndrome have other symptoms, including developmental setbacks, speech and language problems, and
balance and walking issues. Cleveland Clinic, Dravet Syndrome,
https://my.clevelandclinic.org/health/diseases/22517-dravet-syndrome.
87
Counsel referenced Pet. Ex. 60, which is Fernando Cendes & Raman Sankar, Vaccinations and Febrile
Seizures, 52 EPILEPSIA 23 (2011), filed as âPet. Ex. 60â [hereinafter âCendes & Sankar, Vaccinations and
Febrile Seizuresâ]. However, Dr. Kinsbourne discussed Ingrid E. Scheffer, Vaccination Triggers, Rather
Than Causes, Seizures, 15 EPILEPSY CURRENTS 335 (2015), filed as âPet. Ex. 58â [hereinafter âScheffer,
Vaccination Triggers, Rather Than Causes, Seizuresâ].
88
Scheffer, Vaccination Triggers, Rather Than Causes, Seizures, supra note 87.
89
Id.
90
Id.
91
Anne T. Berg, PhD et al., Predictors of Recurrent Febrile Seizures: A Prospective Cohort Study, 151
ARCHIVES OF PEDIATRICS & ADOLESCENT MED. 371 (1997), filed as âPet. Ex. 61.â
92
Vezzani et al., supra note 43 at 5.
29
Tr. 55; Pet. Ex. 33;93 Pet. Ex. 37.94 Vezzani95 shows the release of IL-1b following a precipitating
event and supports his theory. Tr. 75-76. MMR vaccine generates proinflammatory cytokines that
activate the microglial in the brain, which then generated more IL-1b. Tr. 76. This process does
not depend on the source of the IL-1b, but rather explains how the IL-1b causes seizure and fever
independently. Tr. 76.
Dr. Kinsbourne further stated that Dubé illustrates how IL-1b can generate seizures and
fever separately. Tr. 79. In Dubé, high levels of IL-1b were injected into the brains of mice to
create a predisposition, mimicking genetic susceptibility. Tr. 80. However, Dr. Kinsbourne
conceded that the levels of IL-1b injected into the miceâs brains would not be what one would
expect to see naturally occurring. Tr. 80.
Dr. Kinsbourne agreed that Le Saux and von Spiczek did not establish a causal relationship
between seizures and vaccines, stating he only referenced the studies as circumstantial evidence
that afebrile seizures are associated with vaccines. Tr. 82-83; Pet. Ex. 31;96 Pet. Ex. 33.97 He agreed
the authors in von Spiczek looked at passive surveillance in Germany but was unsure if that
surveillance process was similar to VAERS reporting in the United States. Tr. 83; Pet. Ex. 33.98
Additionally, von Spiczek studied DTP vaccine and seizures. Tr. 84; Pet. Ex. 33.99 Further, he was
unsure whether the cases of afebrile seizures included all vaccines or just MMR. Tr. 84; Pet. Ex.
33.100 His reference to Weibel, which studied encephalopathies, seizures, and other events
following the MMR vaccine, was to show that pro-inflammatory cytokines trigger a weak point in
a person. Tr. 87; Pet. Ex. 45.101
Dr. Kinsbourne stated that the MMR package insert contains afebrile seizures in the
warnings. Tr. 58-59. He explained that after marketing a vaccine, research continues and all the
reports from people who have received the vaccine are included to warn the public of what could
happen. Tr. 58-59; Pet. Ex. 43. He claimed afebrile seizures would not be listed in the warning if
they did not happen. Tr. at 59.
He agreed that the medical literature does not provide epidemiology or scientific certainty
to suggest that the cytokines elicited by MMR vaccine can induce afebrile seizures; but for a
vaccine to work, it must produce cytokines. The immune system then decides whether to mount a
febrile response or not with great individual variability in the response. Tr. 66-67. He agreed that
the literature supports an increase in febrile seizures within 6-14 days of MMR vaccine but claimed
that epidemiology does not show the rare or random events like afebrile seizures, which is why
93
von Spiczak et al., supra note 35.
94
Vezzani et al., supra note 43.
95
Id.
96
Le Saux et al., supra note 34.
97
von Spiczak et al., supra note 35. The study states âseizures may occur in temporal relationship with
vaccination and concerns of a possible connection have been raised. Carefully designed studies have failed
to show an association between vaccination and adverse neurologic outcome in children.â
98
Id.
99
Id.
100
Id.
101
Weibel et al., supra note 50.
30
the Program does not require it. Tr. 73. He stated that rarity is a matter of degreeâepidemiology
has documented febrile seizures but just because it did not document afebrile seizures does not
mean those cases donât exist. Rather, it is likely because afebrile seizures are not routinely studied.
Tr. 73-74. Dr. Kinsbourne concluded that the literature he provided was sufficient proof for the
Program. Tr. 66.
Discussing onset, Dr. Kinsbourne described the MMR vaccine as an unusual vaccine
because it takes a week or more for the virus to assemble sufficiently in the blood stream to trigger
various manifestations. Tr. 87. He opined that A.L.M.âs first seizure occurred 2-3 days after the
rash and included facial movements, based on the testimony he heard that morning. Tr. 54; 72. His
opinion on causation is based on onset within 5-15 days of the MMR vaccine. Tr. 84-85. However,
if it is found that onset was three weeks after the November 2 rash, as stated in the VAERS report
and the medical records, then he does not believe that the vaccine was the cause. Tr. 85, 91.
Dr. Kinsbourne agreed that A.L.M.âs seizures could have been coincidental, âbut
statistically, experientially, to my mind anyway, if something happens during a risk period, which
we know that the risk of seizures is increased, then itâs reasonable to say in this case that is why
the seizure was generated.â Tr. 63-64. He further stated that there could have been just one seizure,
but seizures beget seizures. Tr. 64. Dr. Kinsbourne conceded that the onset of A.L.M.âs seizures
was not intense and violent as stated in his report, but rather mysterious. Tr. 89; Pet. Ex. 14 at 3.
Once controlled with Trileptal, A.L.M. had no further seizures even though she suffered from
numerous febrile illnesses thereafter. Tr. 89. A.L.M.âs improved condition was either a result of
antiseizure medication or the fact that seizure threshold generally rises as children get older and
was not unusual. Tr. 71.
b. Dr. Levin
At hearing Dr. Levin maintained his opinion that all the vaccines A.L.M. received on
October 25, 2012 caused her seizure disorder. Tr. 97. Dr. Levin agreed with Dr. Kinsbourneâs two
hit theory with the first hit being genetic propensity which included her family history but added
âthe fact of the matter is that the child had had any number of traumas, including birth trauma,
which easily could be the first hit for this particular phenomena.â Tr. 105-07. Dr. Levin stated that
it was common sense that everyone has birth trauma, which âwould be the first hit in terms of an
individual who is genetically susceptible to any type of disease.â Tr. 121. He later noted that
A.L.M. also had double head trauma from falling off the bed and hitting her head twice before her
vaccinations. Tr. 126-27.
Dr. Levin stated the vaccines A.L.M. received were the second hit and â⊠a substantial
contributor to her disease process.â Tr. 106. Further, it would be naĂŻve to suggest that the 21
separate antigens administered to A.L.M. did not contribute to her condition and is âillogical,
unscientific, and biologically ridiculous to give children all these vaccines at the same time.â Tr.
97-98. Dr. Levin claimed that adverse reactions to vaccines are âvery, very common and much
more common that most people would like to think,â and that it is not the vaccines but the manner
in which they are given that increases the possibility of adverse reactions. Tr. 106. Here, 21
antigens were given at one time, âexpecting them not to have an adverse reaction, thatâsâthatâs
ridiculous.â Tr. at 106.
31
According to Dr. Levin, vaccines cause the production of cytokines and cytokines cause
both fever and seizures, but the two are independent of one another. Tr.96; 98-103. Dr. Levin relied
on DubĂ© stating ââŠinjection of lypopolysaccharides causes fever and also cytokine production
but that the causation is independent of one anotherâ and âthe fevers and the seizures are not related
and the mechanism of action is different.â Dr. Levin concluded that DubĂ© proved that high levels
of lypopolysaccharides evokes cytokines which then cause seizures independent of fever. Tr. 99-
100; Pet. Ex. 38.102 He quoted DubĂ© stating, ââInterestingly, nonfebrile seizures themselves led to
the expression of IL-1b in microglia, suggesting that IL-1b induced seizures may, in turn,
exacerbate ongoing seizures, apparently acting in its neuronal receptor.ââ Tr. 100; Pet. Ex. 38.103
He stated:
[It] means that the lypopolysaccharides induced IL-1bâwhich is normal, which
everybody knowsâand that the IL-1b induced both fever and seizures, but
sometimes it evokes only seizures, and thatâwe know that because Merck, Sharp
& Dohme talks about it, and theyâre a billion dollar company and they have
certainly investigated it.
Tr. 101. The fact that the studies involved injection of âhigh levelsâ of lypopolysaccharides
into the animalsâ brains did not alter his opinion. Tr. 99; Pet. Ex. 38.104
I expressed my confusion, stating that my understanding of that quote was that the seizures
themselves led to the expression of IL-1b in the microglia of the brain. In other words, that the
seizure itself generated IL-1b, not the other way around. Tr. 101; Pet. Ex. 38.105 Dr. Levin agreed.
Tr. 101. I then asked how IL-1b generated the seizure, to which he responded, âLook at Figure
1âŠDoesnât that mean that cytokines cause seizures?â Tr. 101; Pet. Ex. 38.106 Further discussion
of Figure 1 ensued, with Dr. Levin stating, âThe arrow points from cytokines to fever or the arrow
points from cytokines to seizures, and thenâand they are related, but the fact of the matter is that
this particular article says that cytokines cause seizures independent of fever.â Tr. 103. Dr. Levin
was redirected by petitionerâs counsel, who asked if DubĂ© was âsuggesting that the IL-1b induced
by seizures may in turn exacerbate ongoing seizures.â Tr. 104; Pet. Ex. 38.107 While agreeing that
was accurate, Dr. Levin added that cytokines could cause seizures independent of fever, based not
only on DubĂ© but also on âany number of articles showing that cytokines cause seizures and the
mechanism by which they do, and I believe I cited many of them in my report.â Tr. 104.
Respondentâs counsel asked Dr. Levin why A.L.M. did not have any seizures following
her other vaccinations. He replied that âyou have to be appropriately susceptible at a specific timeâ
to have a seizure. Tr. 121. Further, ââŠdisease is a function of the exposure to an etiologic agent
and the appropriately susceptible host, and at the time that she was getting vaccinated before, she
just was not appropriately susceptible.â Tr. 122.
102
Dubé et al., supra note 42.
103
Id.
104
Id. at Figure 1.
105
Id.
106
Id.
107
Id.
32
Dr. Levin discussed the medical literature he claimed supported his opinion that MMR
vaccine can cause afebrile seizures. Tr. 96-97. He stated that the Ichiyama study showed that
âcytokines lead to neuronal damage, which can lead to seizures independent of whether a patient
has fever.â Tr. 118, 122; Pet. Ex. 39 at 2; Pet. Ex. 42.108 He conceded that Ichiyama compared
febrile seizures to acute encephalitis and encephalopathy and did not address afebrile seizures. Tr.
119; Pet. Ex. 42.109 He stated that Eriksson stood for the proposition that seizures are the result of
a reduction of endothelial cell integrity, causing edema and lowering seizure threshold. Tr. 122;
Pet. Ex. 52.110 He conceded that the Eriksson article made no mention of the word âseizureâ or
âepilepsyâ and discussed endothelial cells found in the blood vessels of mouse aorta. Tr. 122-123;
Pet. Ex. 52.111 He discussed the Eckerle and Weibel articles. Tr. 112-13; Pet. Ex. 39; Pet. Ex. 41;112
Pet. Ex. 45.113 He confirmed that Eckerle discussed one case report but stated that other patients
were discussed in Table 1. Tr. 113; Pet. Ex. 41.114 He further acknowledged that Eckerle cautioned
that it was not possible to assess a causal relationship between nonfebrile seizures and vaccinations
based on the cases reviewed but added that the study was from 2013. Tr. 114; Pet. Ex. 41.115 He
acknowledged that Weibel studied whether a causal relationship existed between the attenuated
MMR vaccine and encephalopathy of undetermined cause with permanent brain injury or death
15 days after the first dose claiming that A.L.M. âtechnicallyâ had encephalopathy and concluding
that â[c]onvulsive disorder is an encephalopathy.â116 Tr. 114-15; Pet. Ex. 45.117 He agreed that the
Weibel study was âhampered by a lack of background encephalopathic rates in unvaccinated
childrenâ and expressed difficulty studying the relationship between MMR and encephalopathy.
Tr. 115; Pet. Ex. 45.118
In response to questions asked of him about the Kashiwagi119 and Lin120 articles referenced
by Dr. McCusker showing that the level of cytokines released after vaccination is very low, he
retorted that the fact remains that cytokines are released, and genetic propensity makes individuals
respond to cytokines adversely at different times. Tr. 104-05. Cytokines can cause seizures when
people are susceptible, which is what happened to A.L.M. Tr. 105.
Dr. Levin stated that the package insert for the MMR vaccine supported his opinion that
the MMR vaccine is associated with afebrile seizures, pointing out that afebrile seizures are listed
under âAdverse Reactionsâ. According to Dr. Levin, this listing is a âdefinite indication of
108
Ichiyama et al., supra note 15.
109
Id.
110
Eriksson et al., supra note 67.
111
Id.
112
Eckerle et al., supra note 49.
113
Weibel et al., supra note 50.
114
Eckerle et al., supra note 49.
115
Id.
116
It is important to note that Dr. Levin is the only expert who reached this conclusion. See Resp. Ex. YY
at 4, where Dr. Holmes stated that A.L.M. did not have encephalopathy; Tr. 81-82, where Dr. Kinsbourne
agreed that A.L.M. did not have an epileptic encephalopathy.
117
Weibel et al., supra note 50.
118
Id.
119
Kashiwagi et al., supra note 53.
120
Lin et al., supra note 70.
33
biological plausibility . . . Merck, Sharp & Dohme would not put it in there if it were not
biologically plausible.â Tr. 97, 115-17; Pet. Ex. 43 at 7. He acknowledged the package insert also
contained the statement that adverse reactions were listed âwithout regard to causality.â Tr. 116.
When I asked him whether the package insert listed all complaints received after marketing
irrespective of causation, Tr. 116-17, he responded as an attorney and a doctor:
I can tell you Merck, Sharp & Dohme know what theyâre doing and wouldnât put
it in their package inserts unless it was biologically plausible. And Iâm sorry, but I
have been an attorney and a physician, and youâve only been an attorney, so that
you donât necessarily understand whatâs going on in medicine, and thatâs why we
have a major problem in medicine. Tr. 117-18.
Dr. Levin stated, âin the appropriately susceptible host, any vaccine can cause seizures.â
Tr. 119. A.L.M. received 21 antigensâthree from the MMR vaccine and 18 from the other
vaccinations, all of which have been documented to trigger seizures by the same mechanism
proposed in this case. Vaccines cause the release of cytokines and cytokines cause afebrile
seizures. Tr. 119-21. Though he did not submit any literature discussing the 18 other antigens, he
stated âmost of [the package inserts] talk about seizures.â121 Tr. 120. He further stated, âIn
medicine, the human animal responds in a uniform way to any number of different etiologic
agentsâŠthe basic biology of the disease process is the same.â Tr. 120.
Based on that morningâs testimony, Dr. Levin stated that the temporal relationship between
A.L.M.âs vaccines and the afebrile seizures 10-14 days later122 was medically reasonable and
âbiologically plausibleâ with âno other confounding factors making it more probable than not that
that vaccine caused the disease processâ, and but for the vaccines, A.L. M would not have had a
seizure disorder. Tr. 107-08. He seemed to suggest his opinion might be different âif she had a
head trauma.â Tr. 108; but see Tr. 126. He was âaware that [A.L.M.] fell off a bed twice, that her
mother brought her in to the doctorâs office because she had fallen off a bed and hit her head
twice.â Nonetheless, based on the medical literature, medical records, testimony of the petitioner,
biological plausibility, and the absence of confounding factors, Dr. Levin opined that the vaccines
A.L.M. received caused or were the substantial contributing factor of her CNS abnormalities. Tr.
96.
c. Dr. Holmes
In Dr. Holmesâ opinion, A.L.M. followed a typical course for epilepsy. Tr. 141.
Distinguishing seizures from epilepsy, Dr. Holmes defined an epileptic seizure as a disorder of the
brain that results in behavioral changes due to excessive or synchronous neuronal activity. Tr. 129.
With epilepsy, there is an enduring propensity to have epileptic seizures which often includes
neurobiological, cognitive, and behavioral problems, thus making it a condition much more than
just seizures. Tr. 129-30. The current definition of epilepsy has changed from two or more
unprovoked seizures to one unprovoked seizure and the propensity for recurrent seizures. Tr. 130.
121
Dr. Levin did not specify whether the package inserts mention afebrile seizures.
This statement conflicts with Dr. Levinâs earlier statement in his expert report, which stated that seizure
122
onset was noted to be approximately one month following A.L.M.âs vaccination. See Pet. Ex. 39 at 2.
34
Dr. Holmes described a provoked seizure as one caused by some sort of environmental
stress like low blood sugar, a hit to the head, a drop in blood sodium, being over hydrated, and
most commonly, fever. Tr. 141. Provoked seizures are not the same as epilepsy because in a
provoked seizure, the seizures stop once the stressor is removed. Tr. 141.
Dr. Holmes explained that a seizure can be triggered in a patient with epilepsy. The
literature shows that while the word âtriggerâ can have many meanings, it often refers to someone
who already has epilepsy and something triggers a seizure. Tr. 141-42. In this way, it acts like a
provoked seizure. Tr. 142. Triggers can include missed medication, fever, sleep deprivation, stress,
and alcohol. Tr. 141-43. Triggers cannot cause epilepsy or damage. Triggers merely bring out the
seizure in someone already predisposed to seizures, who has a lowered seizure threshold, or
already diagnosed epilepsy. Tr. 144, 167. The majority of genetic epilepsies and seizures occur
spontaneously with no trigger. Tr. 138, 144, 167.
Dr. Holmes stated that epilepsy can occur at any age, although it is much more common in
children, and seizures come and go at certain ages based on the developmental stage of the brain.
Tr. 131. Epilepsy is âtime-basedâ and âage-basedâ on clinical and EEG manifestations. Tr. 131.
Risk factors for epilepsy include a hypoxic-ischemic encephalopathy at birth, stroke, a history of
encephalitis, meningitis, trauma, congenital brain abnormalities, and genetic or neurometabolic
disorders. Tr. 132. Immunizations are not a known risk factor or cause of epilepsy. Tr. 132. Where
no cause is found, the epilepsy is referred to as idiopathic, which normally refers to a genetic
abnormality even if no specific gene is found. Tr. 134. This is particularly true when there is a
family history of seizures. Tr. 134. About 50% of epilepsy has no definitive etiology, though the
number is going down, with better MRIs capable of finding structural abnormalities and advances
in gene sequencing. Tr. 135-36. Most children outgrow their epilepsy and are considered in
remission, like A.L.M. who had no further seizures after weaning from medication. Tr. 133.
Dr. Holmes described febrile and afebrile seizures, explaining that febrile seizures are
common and occur in about 1.5 percent of children under age 6. Tr. 170. The brain is always
changing and is more excitable in children. Tr. 138-39. Febrile seizures vary in severity based on
age. Tr. 139. A fever that causes a seizure in a young child will often not do the same in a 15-year-
old. Tr. 139. Epilepsy, on the other hand, occurs in 0.5-1 percent of patients over the course of a
lifetime. Tr. 170. Thus, when comparing the number of people with febrile seizures to the number
of people with afebrile seizures or epilepsy, there will be âmore people with afebrile seizures or
epilepsyâ because it is seen throughout patientsâ lives. Tr. 170.
Dr. Holmes stated febrile seizures and epilepsy are related âin some conditions.â Tr. 151.
He agreed with Dr. Kinsbourneâs definition of febrile status epilepticus, which involves continuous
seizure activity in excess of 30 minutes with high fever causing cerebral edema in the temporal
lobe. Tr. 151-52. When the edema subsides, these children develop mesial temporal sclerosis and
can develop a chronic epileptic condition. Tr. 152. Febrile status epilepticus is deemed acquired
epilepsy due to the injury to the brain caused by the high fever and the constant seizure activity.
Tr. 152. This is a very different from a simple febrile seizure. Tr. 151-52.
Dr. Holmes agreed that A.L.M. has epilepsy and disagreed that any of her vaccinations on
October 25, 2012 caused or contributed to her epilepsy. Tr. 129. Dr. Holmes stated that he and his
35
colleagues studied the âdouble hit theory,â or âtwo-hit theoryâ referred to by Drs. Kinsbourne and
Levin. Tr. 153. In Dr. Holmesâs study, a toxin was administered to animals to induce very long
status epilepticus seizures, which led to intense seizures and cell injury to the brain. Tr. 153.
Several weeks later, different types of seizures were induced, causing cognitive difficulties and a
lower seizure threshold than if there had only been one insult. Tr. 153. The purpose of the study
was to see if a child with a serious brain injury would benefit from intervention before there was
a second hit, but the hypothesis did not âpan out in clinical practice.â Tr. 154. He stated that the
brain injury targeted in the study had to include destructive lesions that lead to the childâs
development of epilepsy. Tr. 154. This double hit theory does not apply to A.L.M., who did not
have a destructive brain injury. Tr. 154.
Dr. Holmes agreed that A.L.M. had abnormal neuronal tissue at the location of the brain
where the seizures emanated from and that she had a genetic predisposition to seizures based on
family history, which could have lowered her seizure threshold. Tr. 155; 171. But a genetic
propensity is not an injury per se. Rather, it means that there is a lower seizure threshold, making
a person more likely than someone else to have a seizure. Tr. 142, 156. He agreed that a lower
seizure threshold and seizures with a mild fever are more likely when there is a family history of
febrile seizures. Tr. 142-43. But âno oneâs ever talked about genetic susceptibility beingâ the first
hit, other than Dr. Kinsbourne. Tr. 154, 171. Further, Dr. Holmes disagreed that birth is a first hit,
stating âthat just makes no sense whatsoever.â Tr. 157.
Dr. Holmes agreed if he was to assume those elements constitute âfirst hit,â then an
infection or vaccination which causes a fever could be the triggerâor second hitâthat causes a
seizure. Tr. 171, 176-77. However, he stated that the MMR vaccine could not cause afebrile
seizures, so under the circumstances the MMR vaccine is not the second hit. Tr. 156, 173. Dr.
Holmes agreed that the MMR vaccine causes an increase in cytokines, but that does not lead to an
increase of cytokines in the brain, which is his problem with petitionerâs theory in this case. Tr.
166. MMR vaccine can cause febrileânot afebrileâseizures in a person who has a lower seizure
threshold. Tr. 166.
Dr. Holmes stated that vaccines can cause fever and the fever can provoke a seizure. Tr.
151, 168. Further, the MMR vaccine can cause febrile seizures within 14 days of vaccination and
DTaP can cause febrile seizures within a couple of days of vaccination. Tr. 146. However, large
studies with proper control groups have found no indication that either MMR or DTaP can cause
recurrent afebrile seizures or epilepsy. Tr. 146. Further, the IOM conducted a rigorous review and
did not find strong evidence for afebrile seizures following vaccination. Tr. 146. Still further, there
is no support that any vaccines cause epilepsy. Tr. 146, 152. In Dr. Holmesâs opinion ,A.L.M.
would have gone on to have the identical course she experienced with or without the vaccine. Tr.
155-56.
Dr. Holmes further explained that fever can provoke a seizure, but the seizure is not
necessarily related to the etiology of the fever. The outcome of a seizure provoked by fever is the
same with and without a vaccine. Tr. 151. Dr. Holmes expressed confusion regarding Drs.
Kinsbourne and Levinâs opinion that seizures and fevers have two different pathways; vaccines
can cause fever and fever can cause seizures; vaccines do not and cannot cause seizures without
fever. Tr. 177-178. With the MMR vaccine, ââŠthe reason you have seizures â you only have
36
febrile seizures with MMR because you have a fever caused by the MMR vaccine 10 to 14 days
after the MMR, and that leads to the seizure.â Tr. 181.
He conceded there exists one exception where vaccination may cause an afebrile seizure
and that is in children with Dravet Syndrome and the seizure occurs immediately with the event,
not 15 days later. Tr. 144-45, 167-68, 181-82. In these children, the afebrile seizure that occurs is
considered a stress reaction and does not alter the syndrome. Tr. 145, 181-82. These same children
often do not have a seizure with a subsequent vaccine. Tr. 145.
Dr. Holmes disagreed that giving several vaccines at the same time makes any difference
as no vaccine has been shown to cause epilepsy. Tr. 160.
Dr. Holmes placed little importance on the rash A.L.M. reportedly developed 5-7 days after
the MMR vaccine because rashes are common in young children and the rash disappeared quickly.
Tr. 158-59. Dr. Holmes agreed with A.L.M.âs pediatrician that a rash was a normal reaction to
vaccination. Tr. 173.
Dr. Holmes also noted that besides the transient rash A.L.M., had no sick behaviors, fever
or signs of an inflammatory reaction that could cause brain damage and seizures. Tr. 159, 172-73.
Further, if A.L.M. had inflammation of the brain which would involve a breakdown of the blood
brain barrier, the MRIs, even those performed in 2012-2013, would have shown it. Tr. 164.
However, A.L.M.âs MRIs were normal. Tr. 164-65. If there was something on her brain that was
not initially picked up, it would have still been present on the subsequent MRI performed in 2015,
but that MRI was normal as well. Tr. 164-65. Medication does not improve MRI results, although
it may improve EEG findings. Tr. 165.
Dr. Holmes explained that EEG testing is the best at determining seizure activity. In a child,
seizure severity may change due to evolving brain physiology as they get older. Tr. 140. An EEG
will display spikes and sharp waves that indicate that a group of neurons is hyperexcitable, which
in turn indicates that the child has not yet gone into remission. Tr. 140. If a child is on medication,
an EEG is done to see if the medication can be stopped. Tr. 140. Most of the time the child is fine,
but there are rare occasions where the medication is suppressing the seizures, so seizures return
when the child is weaned off the medication. Tr. 140-41. Thus, it is not unusual that A.L.M.âs
epilepsy went into remission as she got older, as evidenced by her normal EEG. Tr. 138-141.
To further support his opinion that the onset of A.L.M.âs epilepsy was related to the
individual genetic propensity and timing, not the vaccines, Dr. Holmes pointed out that A.L.M.
had many febrile illnesses before her vaccines and many illnesses in the months after her vaccines
with high fevers but no seizures. Tr. 161. âI would argue that the vaccines had nothing to do with
when her epilepsy emerged. I would argue that it was due to that stage of brain development, that
it had nothing to do with any of the vaccines she had before.â Tr. 161.
Dr. Holmes expressed his respect for Dr. Kinsbourne but disagreed that the studies Dr.
Kinsbourne relied on provided any support for a vaccine causing an afebrile seizure. Tr. 168-69.
Dr. Holmes again noted the exception for children with Dravet Syndrome having afebrile seizures
in DTaP studies and as discussed in the studies submitted by Dr. Kinsbourne. Tr. 169, 175-76.
37
Cendes addressed Dravet Syndrome and the development of seizures within 2 days of DTaP
vaccination. Tr. 147-48; Pet. Ex. 60.123 The authors found that children with and without Dravet
Syndrome developed seizures at the same rate and only 30-40% had seizures accompanied by
fever. Tr. 148; Pet. Ex. 60.124 These findings are evidence that the seizures were a stress response,
rather than an immune response. Tr. 148, 178-79. Further, the seizures following DTaP occurred
within 24 hours of vaccination not 10-14 days later, whether febrile or afebrile. Tr. 148; Pet. Ex.
60.125 When MMR was studied, children with Dravet Syndrome had the same risk of seizures as
the general population within 10-14 days following vaccination. Tr. 149. Fever was not discussed
in the article. Tr. 149; Pet. Ex. 60.126 Dr. Holmes added that the Dravet Syndrome studies also
showed that the DTaP vaccine does not cause epilepsy; rather, the vaccine brought on the seizures
earlier due to the underlying seizure disorder. Tr. 178. Other than this sole exception, a fever is
required for a vaccine to cause a seizure, according to Dr. Holmes.127 Tr. 178-79.
Dr. Holmes agreed that the Le Saux and von Spiczak studies involved afebrile seizures but
were of limited value because they had no control group, and it was unclear how the data was
entered. Tr. 149-150, Pet. Ex. 31; 128 Pet. Ex. 33.129 Dr. Holmes disagreed that the Scheffer article
supported the notion that afebrile seizures are caused by the MMR vaccine. Tr. 150; Pet. Ex. 58.130
Scheffer was a review of the Verbeek study on the etiology of seizures around the time of
vaccination which did not conclude that the MMR vaccine led to afebrile seizures. Tr. 15; Pet. Ex.
58.131
Dr. Holmes offered to go through each study relied on by Dr. Kinsbourne, but petitionerâs
counsel did not accept. Tr. 169-70. Dr. Holmes added, in addition to the IOM study, many review
studies including a review by Cochrane showed no relationship between vaccines and afebrile
seizures. Tr. 169-170; Resp. Ex. O.132 Dr. Holmes added that the studies he relied on used a control
group, ârigorously follow[ed] the patients for adverse events,â and found no evidence that the
MMR vaccine caused afebrile seizures. Tr. 176. Dr. Holmes maintained that if a seizure were to
follow a vaccine, it would be because the vaccine âcauses a fever, and the fever would cause the
seizure. Itâs not anything beyond that.â Tr. 176-77.
Dr. Holmes discussed the MMR vaccine package insert, noting his involvement with drug
studies and explaining that package inserts contain anything that is reported following the
marketing of a drug. Tr. 157-58; Pet. Ex. 43. Dr. Holmes does not dispute that the MMR vaccine
can cause febrile seizures; but the fact that afebrile seizures is contained in the package insert list
of adverse reactions is not an indication that the MMR vaccine can cause afebrile seizures. Tr. 158.
123
Cendes & Sankar, Vaccinations and Febrile Seizures, supra note 87.
124
Id.
125
Id.
126
Id.
127
Dr. Holmes pointed out a potential caveat to this statement: the old whole cell pertussis vaccine, which
A.L.M. did not receive. Tr. 179.
128
Le Saux et al., supra note 34.
129
von Spiczak et al., supra note 35.
130
Scheffer, supra note 87.
131
Id.
132
Demicheli et al., supra note 30. This is the article that Dr. Holmes referred to as the âCochrane Review.â
38
Dr. Holmes stated, â[T]hereâs a lot of things that were reported on that sheet there that I [sic] have
not been subsequently shown to be associated with MMR. Itâs probably the worst thing you can
use to try to come up with a scientific or medical decision.â Tr. 158. He does not read package
inserts to make any medical decisions because what is contained therein is only what someone
reportedânot evidence of causation stating that â. . . of our levels of evidence, I would put
[package inserts] below the lowest level you could possibly have. Having it on the package insert
means nothing except that someone reported it.â Tr. 172.
Dr. Holmes could not put a timeframe on the onset of afebrile seizures following MMR
vaccine because there is no data supporting the notion that the MMR vaccine can cause afebrile
seizures. Tr. 156. He assumes the timeframe for an afebrile seizure would be consistent with what
is expected for febrile seizuresâwithin 10-14 daysâthough it is difficult to extrapolate due to the
lack of data. Tr. 156-57. He also assumed that any time past 14 days would be too far removed to
consider the afebrile seizure to be related to vaccination. Tr. 157. Dr. Holmes stated after hearing
the testimony of petitioner and her sister A.L.M.âs seizure onset was roughly 10 days after the
MMR vaccination, which is within the accepted range for MMR to cause febrile seizures but not
afebrile seizures. Tr. 174.
In summary, Dr. Holmes stated that A.L.M.âs seizures occurred simply because she has
epilepsy. Tr. 162. Genetic epilepsies start at different times because they begin spontaneously and
unrelated to vaccination; otherwise, all genetic epilepsies would begin in the first few years of life.
Tr. 161. Further, genetic epilepsy is not related to fever. Tr. 162. According to Dr. Holmes,
[n]ot all epilepsy is initiated with a provokedâI canât emphasize that enough. I
mean, 99 percent â98 percent of our patients that have epilepsy, itâs not provoked
by fever, immunizations, anything. It just occurs. They have a neurological
condition called epilepsy, and itâs a fundamental problem with the brain, and the
immunization has nothing to do with it . . . I canât stress that enough . . . not all
epilepsy begins with febrile seizures or immunization. Ninety-nine percent of it
does not. Thereâs no relationship.
Tr. 161-62.
Dr. Holmes stated that given A.L.M.âs history of high fevers and illnesses before and after
her vaccinations that were not followed by seizures, the vaccines given on October 25, 2012 were
merely coincident with the onset of seizures. Tr. 163. Children can have seizures or develop
epilepsy at any time, and the MMR vaccine is not a trigger for afebrile seizures. Tr. 173. ââŠI
certainly donât believe that if she had an afebrile seizure, that caused her to have epilepsyâŠthat
she would not have had epilepsy if it wasnât for that afebrile seizure. So, no, I donât buy that at
all.â Tr. 173.
As to alternative cause, Dr. Holmes agreed with A.L.M.âs treating physicians that her
seizures were idiopathic and that she had genetic epilepsy based on her family history and her
clinical course. Tr. 174-75. Succinctly stated, âA.L.M. had a genetic epilepsy that was treated
effectively and went into remission and is now doing well. There is no reason whatsoever to
implicate any vaccine to her clinical course.â Tr. 159-160.
39
d. Dr. McCusker
Dr. McCusker explained that, at baseline, the immune system is always releasing low levels
of cytokines into peripheral circulation. Tr. 187. Cytokines are small molecules of protein released
by one cell to another with a receptor telling it what to do. Tr. 186-87. There is a difference between
cytokines in peripheral circulation and cytokines in the brain. Tr. 188. Cytokine response in the
peripheral immune system is tightly regulated with inflammation and counter-inflammation
cytokines that turn down the immune response. Tr. 189-190. IL-1b is a preformed pro-
inflammatory cytokine waiting to be activated and released when there is a threat. Tr. 190. Its role
is to bring immune system cells to the area of inflammation to deal with the threat. Tr. 190.
Immediately upon activation and release of IL-1b, a decoy receptor (IL-1r) is synthesized and
released to shut down the threat. Tr. 190. Studies post-vaccination show low levels of IL-1b
because âit is not a cytokine that circulates at any great levels in general, even in significant
infections, even in patients who have very high fever.â Tr. 190-91.
Dr. McCusker explained that in a steady state, brain tissue cells (glial cells and microglia)
synthesize and release cytokines in the brain, which are used as neurotransmitters in the central
nervous system (âCNSâ) to communicate pieces of information from one neuronal cell to another.
Tr. 188-89. Cytokines in the CNS are released in response to trauma, like brain injury, stroke, CNS
infection, or seizures. Tr. 192. IL-1b in the CNS has been shown to regulate sleep and IL-6 has
been shown to play a part in short- and long-term memory. Tr. 189. Both IL-1b and IL-6 are
involved in brain recovery from trauma and in pruning the neurons for learning and cognition. Tr.
189. Cytokines in the brain have specific tasks and roles in the CNS, depending on how they are
released. Tr. 189.
Dr. McCusker noted although the CNS and the peripheral immune system connect, the
connection is tightly regulated, and the process is different for each. Tr. 192, 207. A danger signal
to the cytokines in the periphery creates inflammation, a danger signal to the cytokines in the CNS
causes them to set up pathways and make responses. Tr. 207-08. Though the blood brain barrier is
not complete, meaning cytokines can pass and bind to receptors in the CNS as an alert that
something is going on, the cytokine stops there and cannot flood the CNS. Tr. 206. In other words,
low level circulating peripheral cytokines do not have unfettered access to the CNS but can
influence cytokine expression in the brain as communication molecules by stimulating the vagus
nerve up to the hypothalamus to produce fever to fight infection. Tr. 192, 205-06. Fever occurs
when a combination of IL-1b and/or IL-6 and/or TNFα is released at the site of an immune
response. Tr. 192. For example, when a vaccine is administered in the arm or leg, IL-1b is released
to the draining lymph nodes triggering nerve endings that signal up to the hypothalamus through
the vagus nerve to increase body temperature. Tr. 193. Fever is one of the protective mechanisms
against certain microbes that do not like to replicate at high temperatures. Tr. 193. The increased
body temperature slows down the replication of the microbe and gives the immune system an
opportunity to get ahead of the microbial assault. Tr. 193. The IL-1b from the periphery that
triggered the âfever eventâ is not found in the brain, it is found in the lymph node and triggers a
nerve signal up to the hypothalamus to increase body temperature to meet the threat. Tr. 193-94.
The trigger is specific to the area involved in temperature regulationâthe hypothalamusânot the
entire brain. Tr. 193.
40
Dr. McCusker referenced Kashiwagi to show that the presence of IL-1b in the brain does
not cause fever. Tr. 194-95; Resp. Ex. GG.133 Rather,
âŠyou get that immune response going on in the lymph node, and that sends a signal
up to the brain. Now, the degree of fever, how high the fever goes, how fast it goes
upâŠare factors that lead to febrile seizuresâŠitâs the fever that is inducing those
seizures. Itâs not that IL-1b, in the brain, is inducing those seizures, and thatâs really
a key element here, because we know from the febrile seizure story that circulating
IL-1b is actually. . . undetectable in the Kashiwagi articles.
Tr. 195-96. In summary, the circulating cytokines signal from the lymph node to the brain at the
hypothalamus to change the body temperature and the rise in temperature leads to the seizure. Tr.
196-98; Resp. Ex. GG.134
Dr. McCusker discussed the literature relied on by Dr. Kinsbourne, noting that in Dubé
large amounts of IL-1b were injected directly into the brains of the animals but hyperthermia also
needed to be induced to result in seizures. Tr. 194-95, 208; Pet. Ex. 38.135 Dubé also showed that
IL-1b sits in the CNS all the time communicating and damage in the CNS from a CNS infection,
trauma, or post-seizure event increases the cytokines in the brain cells, not in the periphery. Tr.
208, 210; Pet. Ex. 38.136 Li and Vezzani discussed chronic epilepsy in animals and showed that
cytokines released after brain trauma, damage, or inflammation act to repair damage, but if the
seizures or trauma continues, it will significantly lower the seizure threshold over time. Tr. 211;
Resp. Ex. RR;137 Resp. Ex. SS.138 Therefore, in the CNS â. . . you have your trauma, you have
your seizure. The seizure causes damage, the damage releases IL-1b. The IL-1b tries to contain
the damage, the damage is not contained, but now the IL-1b is still being producedâŠnow itâs
acting to change the seizure threshold within the animals.â Tr. 211-12, Resp. Ex. RR;139 Resp. Ex.
SS.140 In the animal models where the IL-1b was injected systemically similar to circulating
cytokines, there was an anti-convulsant effect as opposed to a pro-convulsant. Tr. 204. Thus, âif
you had this increase in peripheral IL-1b, mimicking what they did in the animals, and you had a
patient who had a predisposition to developing seizures,â the circulating IL-1b in the periphery
would actually lower the risk of seizures rather than increase it, suggesting that the release of
regulatory molecules immediately after the release of cytokines causes a net decrease in functional
IL-1b. Tr. 204-05. This, Dr. McCusker stated, is one of her problems with petitionerâs theory. Tr.
212.
133
Kashiwagi et al., supra note 53.
134
Id.
135
Dubé et al., supra note 42.
136
Id.
137
Li et al., supra note 57.
138
Annamaria Vezzani et al., Powerful Anticonvulsant Action of IL-1 Receptor Antagonist on Intracerebral
Injection and Astrocytic Overexpression in Mice, 97 PROCEEDINGS OF THE NATâL ACAD. OF SCIENCES
11,534 (2000), filed as âResp. Ex. SS.â
139
Li et al., supra note 57.
140
Vezzani et al., supra note 138.
41
Another problem with petitionerâs theory is that the half-life for active peripherally
circulating IL-1b has been shown in studies to be 19 minutes, after which they start to lose their
activity significantly. Tr. 215; Resp. Ex. HHH.141 There are no cytokines present two weeks or
even five days after vaccination. Tr. 229. Petitionerâs theory revolves around a cytokine-mediated
lowering of seizure threshold, which would have occurred immediately after vaccination if it
occurred at all. Tr. 229. Therefore, the vaccine cannot be responsible here because, at the earliest,
the seizures occurred approximately two weeks after vaccination. Tr. 229.
Dr. McCusker discussed A.L.M.âs rash on November 2, noting the difference between live
and killed vaccines and the bodyâs reaction to both. Tr. 199-200. In killed vaccines, all cytokines,
not just IL-1b, are transiently elevated to a level just high enough to kick off an inflammatory
event. The inflammatory event is localized in the draining lymph nodes close to the vaccination
site for the first two to three days, then the immune response circulates beyond the lymph nodes.
Tr. 200. In a live attenuated vaccine, the virus needs time to replicate so the response is not strong
in the first several days. Tr. 200-01. As the virus starts replicating, the immune system turns on
regulatory T cells, which causes a rash if any to occur 7-10 days after the MMR vaccine. Tr. 201,
227. Lin studied wild type measles infection with a co-infection of HIV-1 and found increases in
IL-1b in the peripheral blood at the time the rash started but maxing out at a very low level. Tr.
202-03; Resp. Ex. HH.142 IL-1b levels would be the same or even lower with the vaccine. Tr. 203.
Griffin showed that the rash following wild measles infection signaled the end of the immune
response, indicating that the virus is under control. Tr. 201, 226-27; Resp. Ex. GGG;143 see also
Resp. Ex. EE.144 Accordingly, if A.L.M.âs rash was a measles rash and the literature is correct, the
rash would have signaled the completion of the inflammatory process, after which point cytokines
were no longer active. Tr. 227, 229. Even if A.L.M. had a low-grade fever when she developed
the rash, the cytokine level in the periphery would still be low. Tr. 214-15. For that reason, Dr.
McCusker was unable to âconnect the dotsâ for petitionerâs theory in this case. Tr. 214-15.
Dr. McCusker stated that the MMR vaccine can cause fever and the fever can cause a
seizure, but the degree of fever necessary to cause a seizure would also cause other symptoms. Tr.
218. Further, the mechanism for febrile and afebrile seizures is different and a predisposition,
trauma, stroke, meningitis, or encephalitis is required for an afebrile seizure. Tr. 222-23. A.L.M.
had afebrile seizures which then disappeared and were not exacerbated by subsequent febrile
events or infections. Tr. 219. Dr. McCusker stated that if the hypothesis is that the MMR vaccine
raised the IL-1b to a high enough level to lower the seizure threshold, then she would have
expected that A.L.M.âs subsequent fevers and infections would lead to the same sequence of
events. Tr. 219. However, that was not the case here. Tr. 219.
Dr. McCusker disagreed that A.L.M. was having mini seizures prior to her vaccinations,
causing her brain to release IL-1b and lowering her seizure threshold. Tr. 213. Even assuming that
she was having mini seizures, Dr. McCusker claimed that A.L.M.âs receipt of MMR and Varicella,
two live attenuated vaccines, would not âthrow the IL-1b over the top,â adding that vaccination
alone is ânot sufficient to trigger a seizure [even] in a predisposed host.â Tr. 223. The IL-1b levels
141
Kudo et al., supra note 81.
142
Lin et al., supra note 70.
143
Griffin, supra note 80.
144
Oliveira et al., supra note 64.
42
produced by vaccines are âinfinitesimally lower thanâ what is necessary to induce seizures. Tr.
213. Perhaps this would be a persuasive theory if high enough amounts of cytokines were injected
directly into A.L.M.âs lateral ventricles. Tr. 236. The data suggests that elevating IL-1b in the
periphery increases seizure threshold and patients are less likely to seize in that context, so âit goes
against [petitionerâs] hypothesis.â Tr. 236, 246-48. Further, Dr. McCusker stated that if she were
to assume that A.L.M. was having micro seizures and that IL-1b was sufficient to induce seizures,
then the onset of seizures would have occurred quickly after the DTaP vaccine because it would
have produced a larger cytokine release, according to Kashiwagi. Tr. 213-14; Resp. Ex. GG.145 Dr.
McCusker detailed the sickness behaviors associated with high level of cytokines, noting that
A.L.M. was asymptomatic, had afebrile seizures, and demonstrated no symptoms indicative of
high levels of circulating cytokines. Tr. 214, 237-38. Finally, there is no evidence in the record
that A.L.M. was having micro or mini seizures. Tr. 250.
Petitionerâs counsel then suggested that perhaps A.L.M.âs innate immune system was not
working correctly, as evidenced by A.L.M.âs genetic predisposition to seizures. Tr. 236-37. Dr.
McCusker stated what counsel was suggesting was a disease called periodic fever syndrome in the
IL-1b or TNF-alpha pathways which results in high fevers without provocation. Tr. 237. There is
no evidence in the record suggesting that A.L.M. suffered from this disease or a defect in her IL-
1b regulatory pathway. Tr. 237. Any fevers A.L.M. suffered prior to her vaccinations were from
normal febrile illnesses and not indicative of periodic fever syndrome. Tr. 237.
Dr. McCusker was asked if the receipt of 8 vaccines would constitute sufficient stress to
cause a seizure. Tr. 232. She explained that she believed the reference by Dr. Holmes to stress was
an immediate stressful event such as a blood draw or needle in a child with a seizure predisposition
who then had a vasovagal response or a seizure when they saw the needle, for example. Tr. 232-
33. Vaccinations activate the immune system, and the activation leads to a cascade of events, but
whether that cascade is sufficient to cause seizures is another issue. Tr. 233.
Dr. McCusker referenced large trials involving thousands of vaccines given to children in
A.L.M.âs age group that showed a background rate of seizure disorder onset within 10, 30, or 60
days of vaccinations. Tr. 220-21; see Resp. Ex. M;146 Resp. Ex. N.147 The trials did not implicate
vaccines and demonstrated that seizures would still occur in these children, even without
vaccination. Tr. 220-21. The link to vaccines was only temporal. Tr. 220-221. Based in part on
these results, Dr. McCusker argued that A.L.M.âs clinical course was entirely consistent with
âwhat happens when children develop seizure disorders.â Tr. 221.
Dr. McCusker discussed the package insert for the MMR vaccine, stating that the
information is dictated by the FDA, not the vaccine manufacturer. Tr. 230; Pet. Ex. 43. Like Dr.
Holmes, she stated that all reports during clinical trials and post-marketing are included in the
insert according to the rules, but it is not an indication of causation. Tr. 230. For example, there is
nothing in MMR vaccine that would cause pneumonia, but if there were reports of pneumonia
during the clinical trials or post-marketing period, pneumonia would be listed in the package insert.
Tr. 230-31.
145
Kashiwagi et al., supra note 53.
146
Davis & Barlow, supra note 28.
147
Barlow et al., supra note 29.
43
Dr. McCusker stated that the mechanism proposed in this case makes no biological sense;
it relies on IL-1b but does not link the increase of IL-1b following vaccination to the seizure
disorder A.L.M. subsequently presented with. Tr. 221. Petitioner failed to explain how a normal
immune response to the MMRV could generate an inflammatory event that led to a change in the
predisposition of her CNS. Tr. 224. Research shows that the only way that change occurs is by
injecting high levels of cytokines directly into the ventricles of animals, moments before
hypothermia, a stimulus for seizures, was introduced. Tr. 224. The stimulus must be introduced
immediately after injecting high levels of cytokines because, after twenty minutes, the cytokines
are gone. Tr. 224. From âa mechanistic standpoint, I canât put A and B together.â Tr. 224. Also,
with a cytokine level high enough to cause seizures, one would not expect to see a healthy child.
Tr. 225. Rather, the child would be experiencing a cytokine storm, which causes marrow and
kidney failure and a decrease in white blood cells. Tr. 225. A.L.M. did not âfit the picture of child
with rampant circulation of cytokines.â Tr. 225.
Dr. McCusker aptly posed the question, getting at the heart of this matter, âother than timing,
is there anything that says the vaccine could cause or did cause this seizure disorder in this child?â
Tr. 220. Like Dr. Holmes, she opined that the seizures would have manifested in A.L.M. regardless
of vaccination and the timing is a mere coincidence. Tr. 220.
VI. Applicable Law
A. Legal Standard Regarding Causation
The Vaccine Act provides two avenues for petitioners to receive compensation. First, a
petitioner may demonstrate a âTableâ injuryâi.e., an injury listed on the Vaccine Injury Table
that occurred within the provided time period. § 11(c)(1)(C)(i). âIn such a case, causation is
presumed.â Capizzano v. Secây of Health & Human Servs., 440 F.3d 1317, 1320(Fed. Cir. 2006); see § 13(a)(1)(B). Second, where the alleged injury is not listed on the Vaccine Injury Table, a petitioner may demonstrate an âoff-Tableâ injury, which requires that the petitioner âprove by a preponderance of the evidence that the vaccine at issue caused the injury.â Capizzano,440 F.3d at 1320
; see § 11(c)(1)(C)(ii). Initially, a petitioner must provide evidence that he or she suffered, or continues to suffer, from a definitive injury. Broekelschen v. Secây of Health & Human Servs.,618 F.3d 1339, 1346
(Fed. Cir. 2010). A petitioner need not show that the vaccination was the sole cause, or even the predominant cause, of the alleged injury; showing that the vaccination was a âsubstantial factorâ and a âbut forâ cause of the injury is sufficient for recovery. See Pafford v. Secây of Health & Human Servs.,451 F.3d 1352
, 1355 (Fed. Cir. 2006); Shyface v. Secây of Health & Human Servs.,165 F.3d 1344, 1352
(Fed. Cir. 1999).148
To prove causation for an âoff-Tableâ injury, petitioners must satisfy the three-pronged test
established in Althen v. Secây of Health & Human Servs., 418 F.3d 1274 (Fed. Cir. 2005). Althen
148
The Vaccine Act also requires petitioners to show by preponderant evidence the vaccinee suffered from
the âresidual effects or complicationsâ of the alleged vaccine-related injury for more than six months, died
from the alleged vaccine-related injury, or required inpatient hospitalization and surgical intervention as a
result of the alleged vaccine-related injury. § 11(c)(1)(D). It is undisputed that this requirement is satisfied
in this case.
44
requires that petitioners show by preponderant evidence that a vaccination petitioner received
caused his or her injury âby providing: (1) a medical theory causally connecting the vaccination
and the injury; (2) a logical sequence of cause and effect showing that the vaccination was the
reason for the injury; and (3) a showing of a proximate temporal relationship between vaccination
and injury.â Id. at 1278. Together, these prongs must show âthat the vaccine was ânot only a but-
for cause of the injury but also a substantial factor in bringing about the injury.ââ Stone v. Secây of
Health & Human Servs., 676 F.3d 1373, 1379(Fed. Cir. 2012) (quoting Shyface,165 F.3d at 1352
- 53). Causation is determined on a case-by-case basis, with âno hard and fast per se scientific or medical rules.â Knudsen v. Secây of Health & Human Servs.,35 F.3d 543, 548
(Fed. Cir. 1994). Petitioners are not required to identify âspecific biological mechanismsâ to establish causation, nor are they required to present âepidemiologic studies, rechallenge, the presence of pathological markers or genetic disposition, or general acceptance in the scientific or medical communities.â Capizzano,440 F.3d at 1325
(quoting Althen,418 F.3d at 1280
). â[C]lose calls regarding causation are resolved in favor of injured claimants.â Althen,418 F.3d at 1280
.
Each of the Althen prongs requires a different showing. The first Althen prong requires
petitioner to provide a sound and reliable medical theory demonstrating that the vaccines received
can cause the type of injury alleged. Pafford, 451 F.3d at 1355-56 (citation omitted); Knudsen, 35
F.3d at 548. This theory need only be âlegally probable, not medically or scientifically certain.â Pafford, 451 F.3d at 1380 (emphasis omitted) (quoting Knudsen,35 F.3d at 548
). Scientific evidence offered to establish Althen prong one is viewed ânot through the lens of the laboratorian, but instead from the vantage point of the Vaccine Act's preponderant evidence standard.â Andreu v. Secây of Health & Human Servs.,569 F.3d 1367, 1380
(Fed. Cir. 2009). Accordingly, special masters must take care not to increase the burden placed on petitioners in offering a scientific theory linking vaccine to injury. Contreras v. Sec'y of Health & Human Servs.,121 Fed. Cl. 230, 245
(2015) (â[p]lausibility . . . in many cases may be enough to satisfy Althen prong oneâ (emphasis in original)). But this does not negate or reduce a petitioner's ultimate burden to establish his entitlement to damages by preponderant evidence. W.C. v. Sec'y of Health & Human Servs.,704 F.3d 1352, 1356
(Fed. Cir. 2013) (citations omitted). Nonetheless, although petitioners cannot be required to show âepidemiologic studies, rechallenge, the presence of pathological markers or genetic disposition, or general acceptance in the scientific or medical communities to establish a logical sequence of cause and effectâ (Capizzano,440 F.3d at 1325
), the special master may consider and evaluate such evidence when filed. Andreu,569 F.3d at 1379
(Special masters may consider medical literature and epidemiological evidence, when it is submitted, in âreaching an informed judgment as to whether a particular vaccine likely caused a particular injury.â). Further, âpetitioners [must] proffer trustworthy testimony from experts who can find support for their theories in medical literature.â LaLonde v. Secây of Health & Human Servs.,746 F.3d 1334, 1341
(Fed. Cir. 2014).
The second Althen prong requires proof of a âlogical sequence of cause and effect.â
Capizzano, 440 F.3d at 1326(quoting Althen,418 F.3d at 1278
). In other words, even if the vaccinations can cause the injury, petitioner must show âthat it did so in [this] particular case.â Hodges v. Secây of Health & Human Servs.,9 F.3d 958
, 962 n.4 (Fed. Cir. 1993) (citation omitted).
A sound and reliable âmedical or scientific explanation must support this logical sequence of cause
and effect,â id. at 961 (citation omitted), and âtreating physicians are likely to be in the best
position to determine whether a logical sequence of cause and effect show[s] that the vaccination
45
was the reason for the injury,â Paluck v. Secây of Health & Human Servs., 786 F.3d 1373, 1385(Fed. Cir. 2015) (quoting Andreu,569 F.3d at 1375
(Fed. Cir. 2009)). Petitioner is not, however, required âto eliminate alternative causes as part of establishing [their] prima facie case.â Doe v. Secây of Health & Human Servs.,601 F.3d 1349, 1357-58
(Fed. Cir. 2010); see Walther v. Secây of Health & Human Servs.,485 F.3d 1146, 1152
(Fed. Cir. 2007) (holding that a âpetitioner does
not bear the burden of eliminating alternative independent potential causesâ).
To satisfy the third Althen prong, petitioner must establish a âproximate temporal
relationshipâ between the vaccination and the alleged injury. Althen, 418 F.3d at 1281. This ârequires preponderant proof that the onset of symptoms occurred within a timeframe for which, given the medical understanding of the disorderâs etiology, it is medically acceptable to infer causation-in-fact.â De Bazan v. Secây of Health & Human Servs.,539 F.3d 1347, 1352
(Fed. Cir. 2008). Typically, âa petitionerâs failure to satisfy the proximate temporal relationship prong is due to the fact that onset was too late after the administration of a vaccine for the vaccine to be the cause.âId.
However, âcases in which onset is too soonâ also fail this prong; âin either case, the temporal relationship is not such that it is medically acceptable to conclude that the vaccination and the injury are causally linked.â Id.; see also Locane v. Secây of Health & Human Servs.,685 F.3d 1375, 1381
(Fed. Cir. 2012) (â[If] the illness was present before the vaccine was administered,
logically, the vaccine could not have caused the illness.â).
B. Legal Standard Regarding Fact Finding
The process for making determinations in Vaccine Program cases regarding factual issues
begins with analyzing the medical records, which are required to be filed with the petition. §
11(c)(2). Medical records created contemporaneously with the events they describe are generally
considered to be more trustworthy. Cucuras v. Secây of Health & Human Servs., 993 F.2d 1525,
1528(Fed. Cir. 1993); but see Kirby v. Secây of Health & Human Servs.,993 F.3d 1378
, 1382-83 (Fed. Cir. 2021) (clarifying that Cucuras does not stand for proposition that medical records are presumptively accurate and complete). While not presumed to be complete and accurate, medical records made while seeking treatment are generally afforded more weight than statements made by petitioner after-the-fact. See Gerami v. Sec'y of Health & Human Servs., No. 12-442V,2013 WL 5998109
, at *4 (Fed. Cl. Spec. Mstr. Oct. 11, 2013) (finding that contemporaneously documented medical evidence was more persuasive than the letter prepared for litigation purposes), mot. for rev. denied,127 Fed. Cl. 299
(2014). Indeed, âwhere later testimony conflicts with earlier contemporaneous documents, courts generally give the contemporaneous documentation more weight.â Campbell ex rel. Campbell v. Secây of Health & Human Servs.,69 Fed. Cl. 775, 779
(2006); see United States v. U.S. Gypsum Co.,333 U.S. 364, 396
(1948).
Despite the weight afforded medical records, special masters are not bound rigidly by those
records in determining facts such as the onset of a petitionerâs symptoms. Vallenzuela v. Secây of
Health & Human Servs., No. 90-1002V, 1991 WL 182241, at *3 (Fed. Cl. Spec. Mstr. Aug. 30, 1991); see also Eng v. Secây of Health & Human Servs., No. 90-175V,1994 WL 67704
, at *3 (Fed. Cl. Spec. Mstr. Feb 18, 1994) (explaining that § 13(b)(2) âmust be construed so as to give effect to § 13(b)(1) which directs the special master or court to consider the medical record...but does not require the special master or court to be bound by themâ); see also Burns v. Sec'y of Health & Human Servs.,3 F.3d 415, 417
(Fed. Cir. 1993) (holding that it is within the special master's
discretion to determine whether to afford greater weight to medical records or to other evidence,
46
such as oral testimony surrounding the events in question that was given at a later date, provided
that such determination is rational).
There are situations in which compelling oral testimony may be more persuasive than
written records. See Campbell, 69 Fed. Cl. at 779. When witness testimony contradicts medical records, such testimony must be consistent, clear, cogent, and compelling to be persuasive. See Sanchez v. Secây of Health & Human Servs., No. 11-685V,2013 WL 1880825
, at *3 (Fed. Cl. Spec. Mstr. Apr. 10, 2013) (vacated on other grounds, Sanchez by & through Sanchez v. Secây of Health & Human Servs., No. 2019-1753,2020 WL 1685554
(Fed. Cir. Apr. 7, 2020), review denied, Sanchez by & through Sanchez v. Sec'y of Health & Hum. Servs.,152 Fed. Cl. 782
(2021)) (quoting Blutstein v. Secây of Health & Human Servs., No. 90-2808V,1998 WL 408611
, at *85 (Fed. Cl. Spec. Mstr. June 30, 1998)); see, e.g., Stevenson ex rel. Stevenson v. Secây of Health & Human Servs., No. 90-2127V,1994 WL 808592
, at *7 (Fed. Cl. Spec. Mstr. June 27, 1994) (crediting the testimony of a fact witness whose âmemory was soundâ and ârecollections were consistent with the other factual evidenceâ). Special masters may also consider other types of evidence, such as unsworn statements, on the grounds that the Vaccine Program was designed to have âflexible and informal standards of admissibility of evidence.â 42 U.S.C. § 300aa- 12(d)(2)(B); see also Munn v. Secây of Health & Human Servs.,970 F.2d 863, 873
(Fed. Cir. 1992).
On the whole, a special masterâs fact findings are to be upheld when the special masterâs
evaluation is evidence-based and not wholly implausible. See Colon v. Secây of Health & Human
Servs., 156 Fed. Cl. 534 (2021).
C. Evaluating Expert Testimony
Establishing a sound and reliable medical theory connecting the vaccine to the injury often
requires a petitioner to present expert testimony in support of their claim. Lampe v. Secây of Health
& Human Servs., 219 F.3d 1357, 1361(Fed. Cir. 2000). The Supreme Courtâs opinion in Daubert v. Merrell Dow Pharmaceuticals, Inc.,509 U.S. 579
(1993), requires that courts determine the reliability of an expert opinion before it may be considered as evidence. âIn short, the requirement that an expertâs testimony pertain to âscientific knowledgeâ establishes a standard of evidentiary reliability.âId. at 590
(citation omitted). Thus, for Vaccine Act claims, a âspecial master is entitled to require some indicia of reliability to support the assertion of the expert witness.â Moberly ex rel. Moberly v. Secây of Health & Human Servs.,592 F.3d 1315, 1324
(Fed. Cir. 2010). The Daubert factors are used in the weighing of the reliability of scientific evidence proffered. Davis v. Secây of Health & Human Servs.,94 Fed. Cl. 53, 66-67
(2010) (âuniquely in this Circuit, the Daubert factors have been employed also as an acceptable evidentiary-gauging tool with respect to persuasiveness of expert testimony already admittedâ). Where both sides offer expert testimony, a special masterâs decision may be âbased on the credibility of the experts and the relative persuasiveness of their competing theories.â Broekelschen,618 F.3d at 1347
(citing Lampe,219 F.3d at 1362
). And nothing requires the acceptance of an expertâs conclusion âconnected to existing data only by the ipse dixit of the expert,â especially if âthere is simply too great an analytical gap between the data and the opinion proffered.â Snyder ex rel. Snyder v. Secây of Health & Human Servs.,88 Fed. Cl. 706, 743
(2009) (quoting Gen. Elec. Co. v. Joiner,522 U.S. 136, 146
(1997)).
47
Because a determination regarding whether petitioner has met her burden in proving that
A.L.M.âs vaccinations were the cause-in-fact of her afebrile seizures and epilepsy hinges in part
on the opinions of Drs. Kinsbourne and Levin and Drs. Holmes and McCusker, it is necessary to
address their qualifications and their relative expertise before weighing the value of their opinions.
See Depena v. Secây of Health & Hum. Servs., No. 13-675V, 2017 WL 1075101(Fed. Cl. Spec. Mstr. Feb. 22, 2017), mot. for rev. denied,133 Fed. Cl. 535, 547-48
(2017), affâd without op., 730 Fed. Appâx 938 (Fed. Cir. 2018); Copenhaver v. Secây of Health & Hum. Servs., No. 13-1002V,2016 WL 3456436
(Fed. Cl. Spec. Mstr. May 31, 2016), mot. for rev. denied,129 Fed. Cl. 176
(2016).
Dr. Levin is board-certified in immunology but has not practiced clinical medicine since
the 1990s. Tr. 110, 111. Rather, he primarily practices law. Tr. 109. Dr. Levinâs lack of recent
medical practice has contributed to special mastersâ criticism of his work in previous Vaccine
Program cases. See, e.g., Martin v. Secây of Health & Hum. Servs., No. 15-789V, 2020 WL
4197748, at *31 (Fed. Cl. Spec. Mstr. May 8, 2020) (describing Dr. Levin as âan expert out of his depthâ); Bigbee v. Secây of Health & Hum. Servs., No. 06-663V,2012 WL 1237759
, at *30, 36 (Fed. Cl. Spec. Mstr. Mar. 22, 2012) (discrediting Dr. Levinâs âcytokine stormâ theory and noting that Dr. Levin âha[s] not see[n] a patient since 1993â and âhas not performed an autopsy on a child since the 1980âsâ); Doe/11 v. Secây of Health & Hum. Servs., No. 99-212V,2008 WL 4899356
, at *8-9 (Fed. Cl. Spec. Mstr. Oct. 29, 2008) (rejecting Dr. Levinâs theory that a vaccine-induced cytokine response led to brain inflammation and caused a childâs death), mot. for rev. denied,87 Fed. Cl. 1
(2009), affâd,601 F.3d 1349
(Fed. Cir. 2011).
In contrast, Dr. McCusker is both a clinical medical provider and associate professor, in
addition to being the Division Director of Pediatric Allergy, Immunology and Dermatology at the
Montreal Childrenâs Hospital. Tr. 185. Further, she conducts research focused on the regulation of
immune responses at the Meakins-Christie Labs of McGill University. Resp. Ex. AA at 20. Dr.
McCuskerâs medical opinions have been credited in several Vaccine Program cases. See, e.g.,
Martin, 2020 WL 4197748, at *31 (stating that Dr. Levinâs âcredentials as an immunologist were far outweighed by Dr. McCuskerâsâ); Bigbee,2012 WL 1237759
, at *35 (describing Dr.
McCuskerâs testimony regarding the role of cytokines during vaccination as âhighly persuasiveâ).
Dr. McCuskerâs extensive clinical work in the field of immunology vastly outweighs Dr.
Levinâs. Though Dr. Levinâs certifications and focus areas of research are relevant, Dr.
McCuskerâs immense clinical experience and specialty in pediatric immunology make her
particularly qualified to opine on this case. This disparity in qualifications contributes to the
evaluation of the evidence under the three Althen prongs.
Drs. Kinsbourne and Holmes are both well respected pediatric neurologists. However, Dr.
Kinsbourne has not been in clinical practice since the 1990s. Tr. 72-73. Dr. Holmes, on the other
hand, routinely cares for children with epilepsy in his clinical practice. Further, Dr. Kinsbourne
has previously been unsuccessful in opining that a vaccine can cause afebrile seizures. See, e.g.,
Dodd v. Secây of Health & Human Servs., No. 09â0585V, 2013 WL 3233210, at *2, 4, 7-8 (Fed.
Cl. Spec. Mstr. June 5, 2013) (ruling against entitlement where Dr. Kinsbourne opined that the
MMR vaccine caused an afebrile seizure and seizure disorder). Though he has added literature in
48
support of his theory, none of the additional literature lends any support to the theory that the
MMR vaccineâor any vaccineâcan cause afebrile seizures leading to epilepsy.149
D. Consideration of Medical Literature
Finally, although this decision discusses some but not all the literature in detail, the
undersigned reviewed and considered all of the medical records and literature submitted in this
matter. See Moriarty ex rel. Moriarty v. Secây of Health & Human Servs., 844 F.3d 1322, 1328(Fed. Cir. 2016) (âWe generally presume that a special master considered the relevant record evidence even though [s]he does not explicitly reference such evidence in h[er] decision.â); Simanski v. Secây of Health & Human Servs.,115 Fed. Cl. 407, 436
(2014) (â[A] Special Master is ânot required to discuss every piece of evidence or testimony in her decision.ââ (citation omitted)), affâd,601 F. Appâx 982
(Fed. Cir. 2015).
VII. Althen Analysis
Because petitioner does not allege an injury listed on the Vaccine Injury Table, her claim
is classified as âoff-Table.â As noted above, for petitioner to prevail on an âoff-Tableâ claim, she
must submit a sound and reliable theory that A.L.M.âs afebrile seizures and epilepsy were caused
by the MMR and/or Varicella vaccines received on October 25, 2012. Capizzano, 440 F.3d at
1320. Doing so shifts the burden to respondent to show that the injury was caused by factors unrelated to the vaccinations. Deribeaux ex rel. Deribeaux v. Secây of Health & Human Servs.,717 F.3d 1363, 1367
(Fed. Cir. 2013).
A. Althen Prong One: Petitioner has not Proffered a Sound and Reliable Medical Theory
Prong I analyzes whether MMR vaccine can cause afebrile seizures and/or epilepsy.
Drs. Kinsbourne and Levin opine, with some variation, that the MMR or all the vaccines
administered on October 25, 2012, can cause afebrile seizures and/or epilepsy. Both propose a
two-hit theory. The first hit is the existence of a latent brain abnormality causing an hyperexcitable
neural network which lowers the seizure threshold. Pet. Ex. 14 at 4-7; Pet. Ex. 39 at 2. The second
hit is the MMR vaccine or all the vaccines administered on October 25, 2012. Pet. Ex. 21 at 4, 5;
Pet. Ex. 39 at 1. Drs. Kinsbourne and Levin submit that the IL-1b that is released following receipt
of vaccines has the propensity to cause both febrile and afebrile seizures, as well as epilepsy. Tr.
64; Pet. Ex. 14 at 6-7; Pet. Ex. 39 at 2; Pet. Ex. 21 at 5; see Pet. Ex. 25;150 Pet. Ex. 34.151
In Dr. Kinsbourneâs opinion, IL-1b, which is generated during a normal response to
vaccines, can cause both seizures and fevers, but one is not contingent on the other. Pet. Ex. 36 at
2; Pet. Ex. 38.152 He submitted that the Dubé study showed that IL-1b causes fever, but the
149
As stated elsewhere in this decision, the literature does support afebrile seizures following DTaP vaccine
within 24 hours in children with Dravetâs Syndrome, which is a significant brain injury and a condition that
A.L.M. fortunately does not have.
150
Iwasaki & Medzhitov, supra note 26.
151
Vezzani & Baram, supra note 27.
152
Dubé et al., supra note 42.
49
epileptogenic effect of IL-beta is not mediated by its propensity also to elevate body temperature.
Pet Ex. 21 at 5; Pet. Ex. 38.153 He added that Vezzani also showed that IL-1beta generates
epileptogenesis through different pathways, neither of which includes fever. Pet. Ex. 36 at 2; Pet.
Ex. 37.154
Dr. Kinsbourne agreed that fever is generally associated with seizures but stated
âsubstantial literatureâ supports afebrile seizures occurring in the risk period after MMR. Pet. Ex.
21 at 5. He submitted Le Saux and von Spiczak as support for afebrile seizures following the MMR
vaccine. Id; Pet. Ex. 31;155 Pet. Ex. 33.156 He recognized that the IOM did not credit these reports
but claimed that the IOM hardly credits any causal relations between any vaccine and any adverse
event. Pet. Ex. 21 at 5.
Dr. Kinsbourne concluded that a pre-existing brain abnormality, causing hyperexcitable
neuronal tissue in that focal area of the brain, lowered the seizure threshold rendering it susceptible
to a triggering event. Pet. Ex. 14 at 4-5; Pet. Ex. 21 at 6. The second hit or triggering event was
the MMR vaccine, which released pro-inflammatory cytokines, specifically IL-1beta, causing
afebrile seizures. Pet. Ex. 16 at 2; Pet. Ex. 21 at 6.
Dr. Levin proposed that the first hit was a host of traumas to the brain, including birth
trauma, family history, genetic propensity, and double head trauma, which lowered the seizure
threshold. Pet. Ex. 39 at 2; Tr. 106-07, 126-27. He then claimed that the 21 separate infectious
antigens and adjuvants contained in all the vaccines A.L.M. received that day157 caused neuronal
damage which then caused afebrile seizures. Tr. 97, 119-20; Pet. Ex. 39 at 1-2. Dr. Levin proposed
that the rash on November 2, 2012 was consistent with a cytokine-induced inflammatory cutaneous
reaction. Pet. Ex. 39 at 2; Pet. Ex. 50 at 1.
Dr. Levin relied on several studies to support his opinion that vaccines can cause afebrile
seizures. Pet. Ex. 39 at 2; Pet. Ex. 50 at 1-2; see Pet. Ex. 38;158 Pet. Ex. 41;159 Pet. Ex. 42;160 Pet.
Ex. 45;161 Pet. Ex. 52;162 Pet. Ex. 55.163 When questioned about the literature, he conceded that
Ichiyama compared prolonged febrile seizures to acute encephalitis and encephalopathy but did
not address afebrile seizures. Tr. 118-19; Pet. Ex. 42.164 He acknowledged that Eckerle was a case
study and the authors concluded it was not possible to assess a causal relationship between afebrile
seizures and vaccinations. Tr. 113-14; Pet. Ex. 41.165 It was also noted that Weibel examined
153
Id.
154
Vezzani et al., supra note 43.
155
Le Saux et al., supra note 34.
156
von Spiczak et al., supra note 35.
157
A.L.M. received the MMR, DTaP, Hib, Prevnar 13, and Varicella vaccinations on October 25, 2012.
Pet. Ex. 1 at 1.
158
Dubé et al., supra note 42.
159
Eckerle et al., supra note 49.
160
Ichiyama et al., supra note 15.
161
Weibel et al., supra note 50.
162
Eriksson et al., supra note 67.
163
Vezzani et al., supra note 66.
164
Ichiyama et al., supra note 15.
165
Eckerle et al., supra note 49.
50
whether a causal relationship existed between the attenuated MMR vaccine and encephalopathy
of undetermined cause with permanent brain injury or death 15 days after the first dose. It did not
address afebrile seizures. Tr. 114-15; Pet. Ex. 45.166 Dr. Levin then claimed that there was an
encephalopathy in this case. Tr. 114-15. Finally, he conceded that Eriksson also made no mention
of seizures or epilepsy. Tr. 122-23; Pet. Ex. 52.167
Further, Dr. Levin stated Dubé proved that high levels of lypopolysaccharides evoke
cytokines that cause seizures independent of fever because the âmechanism of action is different.â
Tr. 99-103; Pet. Ex. 38.168 He quoted DubĂ©, ââ⊠nonfebrile seizures themselves led to the
expression of IL-1b in microglia, suggesting that IL-1b induced seizures may, in turn, exacerbate
ongoing seizures, apparently acting in its neuronal receptor,ââ Tr. 100; Pet. Ex. 38,169 interpreting
this as:
[It] means that the lypopolysaccharides induced IL-1bâwhich is normal, which
everybody knowsâand that the IL-1b induced both fever and seizures, but
sometimes it evokes only seizures, and thatâwe know that because Merck, Sharp
& Dohme talks about it, and theyâre a billion dollar company and they have
certainly investigated it. Tr. 101.
I expressed my confusion with his interpretation, stating that I understood Dubé to mean
that the seizures themselves led to the expression of IL-1b in the microglia of the brain, or in other
words, that the seizure itself generated IL-1bânot the other way around. Tr. 101; Pet. Ex. 38.170
Dr. Levin agreed, but pointed to Figure 1 stating, âThe arrow points from cytokines to fever or the
arrow points from cytokines to seizures, and thenâand they are related, but the fact of the matter
is that this particular article says that cytokines cause seizures independent of fever.â Tr. 101, 103.
Even after agreeing with petitionerâs counsel that DubĂ© was âsuggesting that the IL-1b induced by
seizures may in turn exacerbate ongoing seizures,â Dr. Levin added that cytokines could cause
seizures independent of fever based not only on DubĂ©, but also on âany number of articles showing
that cytokines cause seizures and the mechanism by which they do, and I believe I cited many of
them in my report.â Tr. 104; Pet. Ex. 38.171 He agreed that Vezzani shows that seizures lead to the
expression of IL-1beta in microglia of the brain, suggesting that IL-1beta induced by seizures may
in turn exacerbate ongoing seizures. Pet. Ex. 50 at 1; Pet. Ex. 55.172
Dr. Levin added that the MMR package insert lists afebrile seizures on its list of Adverse
Reactions as proof of causation, stating it would not be on the package insert if it were not
âbiologically plausible.â173 Tr. 115-18; Pet. Ex. 43 at 7.
166
Weibel et al., supra note 50.
167
Eriksson et al., supra note 67.
168
Dubé et al., supra note 42.
169
Id.
170
Id.
171
Id.
172
Vezzani et al., supra note 66.
173
Special masters have not given manufacturersâ package inserts much weight. In a leading case, one
special master went so far as to declare that âfederal regulations specifically preclude the contents of drug
product labels, as reproduced in the [Physicianâs Desk Reference], from serving as admissions regarding
51
Dr. Levin opined that all the vaccines A.L.M. received on October 25, 2012 caused a
release of cytokines, specifically IL-1b, which resulted in neuronal damage, and the neuronal
damage then caused afebrile seizures and epilepsy. Pet. Ex. 39 at 1-2. The fact that the Dubé study
involved injection of âhigh levelsâ of lypopolysaccharides directly into the brains of animals did
not alter his opinion. Tr. 99; Pet. Ex. 38.174 His opinion was also not swayed by the Kashiwagi and
Lin articles relied on by Dr. McCusker, showing that the level of cytokines released after
vaccination are very low. Tr. 104-05. Dr. Levin stated the facts remain that cytokines are released
and can cause seizures in susceptible people, and genetic propensity makes individuals respond
adversely at different times. Tr. 105. The âmechanismâ and/or pathways for how cytokines or
specifically could cause afebrile seizures was not provided.
In contrast, respondentâs experts claimed that vaccines cannot cause afebrile seizures or
epilepsy. Tr. 146, 169-170, 176.
Dr. Holmes opined vaccines cannot cause afebrile seizures or epilepsy. Resp. Ex. A at 7.
Epilepsy is most common in children and there are multiple risk factors for epilepsy, but
immunization is not one. Tr. 131-32. The majority of genetic epilepsies occur spontaneously with
no trigger. Tr. 138. Roughly 50% of epilepsy has no definitive etiology. Tr. 135-36. Most children
outgrow their epilepsy. Tr. 133.
Further, there is no evidence epidemiologically or mechanistically to support an MMR
vaccine causing afebrile seizures. Resp. Ex. V at 2-3. Dr. Holmes agreed vaccines elicit an innate
immune response, explaining that within hours of the introduction of an antigen to the body, an
causation.â Werderitsch v. Secây of Health & Human Servs., No. 99-319V, 2005 WL 3320041, at *8 (Fed. Cl. Spec. Mstr. Nov. 10, 2005). Relying upon regulations found at21 C.F.R. § 600.80
, Werderitsch reasoned that because the Food and Drug Administration requires manufacturers to list adverse occurrences regardless of causality, the listing of an event on a product insert does not support a finding of causation. Other cases declining to rely upon package inserts to support a finding of causation include: Salerno v. Secây of Health & Human Servs., No. 16-1280,2020 WL 344163
, at *13 (Fed. Cl. Spec. Mstr. May 29, 2020); Bender v. Secây of Health & Human Servs., No. 11-693V,2018 WL 3679637
, at *31 (Fed. Cl. Spec. Mstr. July 2, 2018) (noting that âvaccine package inserts do not constitute causation evidence meriting significant weightâ), mot. for rev. denied,141 Fed. Cl. 262
(2019); Tompkins v. Secây of Health & Human Servs., No. 10-261V,2013 WL 3498652
, at *14 (Fed. Cl. Spec. Mstr. June 21, 2013) (citing the testimony of petitionerâs expert who acknowledged that reports in package inserts âmay reflect a temporal relationship between vaccine and illnessâ), mot. for rev. denied,117 Fed. Cl. 713
(2014); Coppola v. Secây of Health & Human Servs., No. 09-631V,2012 WL 1118849
, at *26 (Fed. Cl. Spec. Mstr. Mar. 7, 2012) (rejecting a petitionerâs reliance on vaccine package insert information as indicative of alleged vaccine causation); Doe v. Secây of Health & Human Servs., No. 99-670V,2004 WL 3321302
, at *14 (Fed. Cl. Spec. Mstr. Oct. 5, 2004) (finding that petitioner failed to establish that hepatitis B vaccine can cause chronic fatigue syndrome although the package insert listed several symptoms petitioner experienced). But see Russell v. Secây of Health & Human Servs., No. 11-0282V,2014 WL 4922194
, at *7 (Fed. Cl. Spec. Mstr. Sept. 9, 2014)
(giving some weight to a manufacturerâs report of an adverse event âjudged to be vaccine related by the
study investigatorâ but still finding that petitioner failed to meet the burden regarding prong 1). In accord
with these persuasive (though not binding) precedents, the undersigned declines to give the manufacturerâs
package insert more weight than the epidemiologic studies.
174
Dubé et al., supra note 42 at Figure 1.
52
innate immune response occurs where T cells release inflammatory cytokines that amplify the
immune response, ultimately leading to desired immunity. Resp. Ex. YY at 3. Dr. Holmes agreed
the MMR vaccine can cause febrile seizures within 14 days of vaccination. Tr. 145-46. But, when
ââŠwe can talk about MMR, and the reason you have seizures â you only have febrile seizures
with MMR because you have a fever caused by the MMR vaccine 10 to 14 days after the MMR,
and that leads to the seizure.â Tr. 181.
Dr. Holmes stated that large studies with proper control groups, including a review by
Cochrane, demonstrated no relationship between vaccines and afebrile seizures. Tr. 146, 169-170,
176; see Resp. Ex. M;175 Resp. Ex. N;176 Resp. Ex. O.177 Dr. Holmes explained that vaccines can
cause fever, and fever can cause a seizure, but vaccines themselves cannot cause seizures. Tr. 151,
176-78. There is no proof that a normal immune response to vaccines can result in neurological
injury as alleged by petitionerâs experts. Resp. Ex. YY at 3.
Dr. Holmes addressed the âdouble hit theory,â or âtwo-hit theory.â He agreed that a genetic
predisposition could lower seizure threshold and that the MMR vaccine causes increased
cytokines, but he claimed a person with a lower seizure threshold would have a febrile not afebrile
seizure following the MMR vaccine. He maintained that MMR vaccine cannot cause afebrile
seizures. Tr. 156-57, 166, 171. Dr. Holmes referenced the McIntosh study,178 to show the limited
exception where DTaP has been associated with afebrile seizures in children with Dravet
Syndrome, but it was not the vaccine but rather a stress reaction in those children that provoked
afebrile seizures. Tr. 147-48, 175-76. Other than that limited exception, there must be a fever for
a vaccine to cause a seizure. Tr. 179.
Dr. Holmes took issue with petitionerâs expertsâ opinion that cytokines produced from
peripheral vaccinations can cause both fever and seizures independent of one another, claiming
that the articles they relied on did not reach such a conclusion and no mechanism for how this can
happen was provided. Resp. Ex. V at 2-3; Resp. Ex. YY at 4. Addressing the literature relied on
by petitioners, Dr. Holmes stated that Ichiyama studied febrile seizures in children with acute
encephalitis/encephalopathy associated with fever, not with vaccines, Resp. Ex. YY at 4; Pet. Ex.
42;179 La Saux and von Spiczak involved afebrile seizures, but the studies had limited value due to
a lack of control group and unclear data entry, Tr. 149-50; Pet. Ex. 31; 180 Pet. Ex. 33;181 Scheffer
did not conclude that afebrile seizures can follow an MMR vaccine, Tr. 150-51; Pet. Ex. 58;182
Eckerle was a case study of one child who had three tonic clonic seizures 6 days after
MMR/varicella vaccines and the authors cautioned against assessing a causal relationship, Resp.
Ex. YY at 4; Pet. Ex. 41;183 Weibel discussed children who developed encephalopathy of no
determined cause within 15 days of MMR based on passive surveillance with no control group and
175
Davis & Barlow, supra note 28.
176
Barlow et al., supra note 29.
177
Demicheli et al., supra note 30. This is the article that Dr. Holmes referred to as the âCochrane Review.â
178
It does not appear that this article was filed.
179
Ichiyama et al., supra note 15.
180
Le Saux et al., supra note 34.
181
von Spiczak et al., supra note 35.
182
Scheffer, supra note 87.
183
Eckerle et al., supra note 49.
53
found a clustering with peak onset 8 and 9 days after immunization; there was no encephalopathy
in this case, Resp. Ex. YY at 4; Pet. Ex. 45;184 and finally, he argued that vaccine package insert
lists of Adverse Reactions are not indicative of causation. Tr. 157-58, 172.
Dr. Holmes concluded that there is no evidence that the MMR vaccine or any vaccine can
cause afebrile seizures or epilepsy. Tr. 152, 156, 160-161; Resp. Ex. A at 7; Resp. Ex. Q at 3;
Resp. Ex. YY at 4.
Dr. McCusker described how the immune system responds to vaccines and infections by
releasing low levels of cytokines into the peripheral circulation of the body, a process that is
occurring constantly at low levels in the body. Tr. 186-188. Cytokines remain at low levels in the
peripheral immune system, even when accompanied by a fever or a febrile seizure. Tr. 189-91,
197-99; Resp. Ex. GG.185 She added that low level circulating peripheral cytokines do not have
unfettered access to the CNS but can influence cytokine expression on the brain through
communication molecules. Tr. 192, 205-06. However, excessive amounts of IL-1b are required to
lower seizure threshold. Tr. 194-95. Thus, cytokines in the periphery following vaccination are not
near the level necessary to reach the CNS, lower the seizure threshold, and cause seizures. Tr. 212.
Further, there is no support for petitionerâs proposition that cytokines enter the brain, even
in children with febrile seizures. Tr. 197-99; Resp. Ex. GG.186 Lin studied live measles infection
(and a co-infection of HIV-1) showing that IL-1b even at the time of rash maxed out at a very low
level. Tr 202-03; Resp. Ex. HH.187 The cytokine level would be even lower with a vaccine. Id.
Further, animal studies show that an increase in peripheral IL-1b in a person predisposed to
developing seizures is associated with a downregulation of the risk of seizures. Tr. 204. Li and
Vezzani showed that IL-1b released in the brain after trauma, damage, or infection acts to repair
damage to the brain. Tr. 210-11; Resp. Ex. RR;188 Resp. Ex. SS.189
Dr. McCusker explained that it would take massive, excessive amounts of IL-1b to lower
seizure threshold. Tr. 194-95, 208; see Resp. Ex. QQ.190 Further, DubĂ© showed thatâin addition
to massive amounts of IL-1b injected directly into an animalâs brainâhyperthermia had to be
induced to lower seizure threshold. Tr. 194-95; Resp. Ex. QQ.191 Dr. McCusker conceded that she
did not know the exact amount of IL-1b necessary to lower the seizure threshold in a human, but
she estimated it would be about a thousandfold the total amount of cytokines found in wild type
measles infection. Tr. 234. She reached this conclusion based on Dubé and accounting for the size
difference between mice and humans. Tr. 234. Regardless, cytokines in the periphery following
vaccination are not at nearly high enough levels to lower seizure threshold and induce seizures.
Tr. 212.
184
Weibel et al., supra note 50.
185
Kashiwagi et al., supra note 53.
186
Id.
187
Lin et al., supra note 70.
188
Li et al., supra note 57.
189
Vezzani et al., supra note 138.
190
Dubé et al., supra note 42.
191
Id.
54
Dr. McCusker disagreed that receiving two live attenuated vaccinesâMMR and
Varicellaâcould âthrow the IL-1b over the top,â maintaining that IL-1b in the periphery would
still be low. Tr. 213-14; See Resp. Ex. GG.192 Further, high levels of cytokines in the body result
in sickness, fever, marrow failure, kidney failure, and other serious symptoms. Tr. 216, 225. Dr.
McCusker was unable to reconcile petitionerâs theory that vaccines produce IL-1b at levels high
enough to go beyond the periphery, breach the blood brain barrier, and trigger seizures. Tr. 197,
206-08. She explained when a vaccine is administered in the arm or leg, IL-1b is released to the
draining lymph nodes, triggering nerve endings that signal up to the hypothalamus through the
vagus nerve to increase body temperature to slow down and fight off the microbe giving the
immune system the opportunity to get ahead of the microbial assault. Tr. 193, 205-06; Resp. Ex.
GG.193 She summarized that the circulating cytokines signal from the lymph node to the brain to
change the body temperature, and the rise in temperature is what leads to the seizure. Tr. 195-96.
Kashiwagi demonstrated that the IL-1b does not cause fever, but rather signals the lymph nodes to
tell the brain to raise the body temperature. Tr. 196; Resp. Ex. GG.194 âItâs the fever that is inducing
those seizures. Itâs not that IL-1b, in the brain, is inducing those seizures, and thatâs really a key
element here, because we know from the febrile seizure story that circulating IL-1b is actually. . .
undetectable in the Kashiwagi articles.â Tr. 196; Resp. Ex. GG.195
Dr. McCusker noted that the timing for an inflammatory reaction following killed and live
vaccines is different. Tr. 199-201. In killed vaccines, all cytokinesânot just IL-1bâare transiently
elevated, but still do not reach a high enough level to initiate an inflammatory event. Tr. 200. The
cytokines are localized in the draining lymph node close to the vaccine site for the first two to three
days, then the immune response circulates beyond the lymph nodes. Tr. 200. In a live vaccine, like
the MMR or Varicella vaccines, the virus needs time to replicate so the response is not strong in
the first several days. Tr. 200-01. After a few days, the immune response is activated to get control
over the replicating virus. Tr. 201. The immune system then shuts down the virus by activating
regulatory T cells. Tr. 227. Finally, 7-10 days after vaccination, the rash develops, indicating that
the virus is under control, and the inflammatory cells are shutting down. Tr. 201, 227; Resp. Ex.
FFF at 4. Further, the half-life for active peripherally circulating IL-1b is only 19 minutes. Tr. 215.
After that, cytokines start to lose their activity significantly. Tr. 215.
In conclusion, Dr. McCusker stated the mechanism proposed in this case makes no
biological sense and does not link the increase of IL-1b from vaccine(s) in the periphery to an
afebrile seizure disorder. Tr. 221. Petitioner failed to explain how an inflammatory event that
generated a normal immune response to the MMRV vaccines led to a change in the CNS. Tr. 224.
The level of cytokines necessary to lower seizure threshold and cause seizures would be so
significant, one would expect serious sick behaviors not an afebrile healthy child. Tr. 214, 225.
From âa mechanistic standpoint, I canât put A and B together.â Tr. 224.
Drs. Kinsbourneâs and Levinâs arguments, though forcefully presented, fail to provide any
support for how vaccines administered on October 25, 2012 could cause afebrile seizures and
epilepsy, regardless of whether those seizures began ten days or three weeks after vaccinations.
192
Kashiwagi et al., supra note 53.
193
Id.
194
Id.
195
Id.
55
In addition, Drs. Kinsbourne and Levin disagreed over what constituted the âtwo hitsâ in
their theoryâ genetic propensity, birth trauma, neuronal damage or moreâand whether it was the
MMR vaccine or all the vaccines. Regardless their logic was circular: one event was caused by
another simply because the second event occurred. The studies relied on discussed not only febrile
seizures but the need for massive amounts of IL-1beta injected directly into animal brains with an
induced fever to cause a seizure; neither occurred here. See Pet. Ex. 38;196 Pet. Ex. 42.197 Further,
none of the literature provides a mechanism by which IL-1beta generated in the periphery as a
normal immune response to vaccinations can cause afebrile seizures and damage to brain.
Specifically, one of the studies relied on by petitioner concluded that âit is not possible based on
these cases to assess a causal relationship between nonfebrile seizures and vaccination.â Pet. Ex.
41.198
An important aspect of petitionerâs causation theory is that fevers and seizures have
separate pathways. However, petitioner never explained what exactly those âpathwaysâ are. Dr.
Levin merely pointed to DubĂ© and stated, âthe fact of the matter is that this particular article says
that cytokines cause seizures independent of fever.â Tr. 101, 103; Pet. Ex. 38.199 Not only was that
a misinterpretation of the article, but it did little to aid in understanding petitionerâs theory.
Notably, Dr. Kinsbourne described how pro-inflammatory cytokines, including IL-1b,
signal the hypothalamus in the brain to generate fever and/or inflammation, and it is the fever or
inflammation that generates a seizure in a susceptible person. Tr. 56-57. Dr. Kinsbourneâs own
testimony cannot be reconciled with his opinion here that IL-1b can cause a seizure without fever.
Rather, this testimony proves the point that cytokines elicit fever, which in turn can cause seizures.
There is no evidence that cytokines themselves, specifically IL-1b, can cause seizures without
fever.
Neither Dr. Kinsbourne nor Dr. Levin explained how afebrile seizures could occur in
excess of week or more after vaccination. Dr. Levin claimed that the November 2, 2012 rash was
indicative of an inflammatory response that released cytokines which then led to seizures. Even
accepting petitionerâs theory that cytokines were released at the time of the rash, petitioner
provided no explanation for how those cytokines stayed active for days and at such a high level as
to cause seizure activity without fever âwithin two weeksâ of the rash, given their half-life of only
19 minutes. See Tr. 215; Resp Ex. FFF at 4; Resp. Ex. HHH.200 Further, petitioner failed to
persuasively explain how cytokines themselves could result in afebrile seizures.
It is undisputed that febrile seizures can occur within 5-15 days after an MMR vaccine; this
is recognized as an on-Table vaccine related injury. However, there is no support for petitionerâs
theory that MMR, Varicella, or any other vaccine can cause seizures in the absence of fever,
edema, or encephalitis 10 or more days after vaccination. In rare cases where seizures occur
following vaccination, pro-inflammatory cytokines lead to a fever, and the fever causes a seizure
in a susceptible individual. As persuasively explained by respondentâs experts, there is no
196
Dubé et al., supra note 42.
197
Ichiyama et al., supra note 15.
198
Eckerle et al., supra note 49 at 3.
199
Dubé et al., supra note 42.
200
Kudo et al., supra note 81.
56
convincing evidence that vaccines can cause seizures in the absence of a fever or that vaccines can
cause epilepsy.
Petitioner failed to satisfy Prong I.
B. Althen Prong Two: Petitioner Has Not Provided a Logical Sequence of Cause and
Effect
Having determined that petitioner failed to satisfy Althen Prong I, it is unnecessary to
discuss Althen Prongs II or III. Veryzer v. Secây of Health & Human Servs., 100 Fed. Cl. 344
(2011); see also § 11(c)(1)(C)(ii). Nonetheless, I will discuss petitionerâs evidentiary showing for
Prongs II and III.
Dr. Kinsbourne opined that A.L.M. had a low seizure threshold due to genetic
susceptibility, and thus, did not require a fever in order to have a seizure. Tr. 57, 78. Here, the
MMR and/or Varicella vaccine(s) caused the release of cytokines, specifically IL-1b in a
genetically susceptible child which caused afebrile seizures; if not for the vaccine(s), A.L.M. may
have never developed seizures. Tr. 52, 82; Pet. Ex. 14 at 6-7.
Dr. Levin opined that A.L.M. had a low seizure threshold as result of brain trauma,
including birth trauma and head trauma from two falls, rendering her susceptible to developing
seizures. Tr. 121, 126-27. The cytokines evoked by the vaccines, specifically IL-1b, caused
neuronal damage, which then led to A.L.M.âs afebrile seizures. Tr. 118; Pet. Ex. 39 at 2. All 21
separate infectious antigens and adjuvants A.L.M. received caused her seizures. Tr. 119-20; Pet.
Ex. 39 at 1. Further, the rash that occurred on November 2 was consistent with a cytokine-induced
inflammatory cutaneous reaction. Pet. Ex. 39 at 2; Pet. Ex. 50 at 1. Dr. Levin was the only expert
to place any significance on the rash.
Dr. Holmes disagreed that A.L.M.âs neurological condition was vaccine related. Resp. Ex.
Q at 3. He maintained that there was no proof that A.L.M.âs immune response resulted in
neurological injury. Resp. Ex. YY at 3. In determining that A.L.M. had a normal immune response
to the vaccinations, he noted that in the days and weeks following her vaccinations, A.L.M. had
no sickness behavior, no fever, and no signs of an inflammatory reaction that could cause brain
damage and seizures. Her MRIs were also normal. Tr. 158-59, 164-65; Resp. Ex. YY at 3.
In Dr. Holmes opinion A.L.M.âs course would have been the same, with or without the
vaccine(s), because she had idiopathic epilepsy. Tr. 155-56, 162. Further, A.L.M. had many febrile
illnesses before her vaccines and in the months that followed but did not have seizures. Tr. 162-
63. This indicated that her seizures were simply related to the fact that she had epilepsy. Tr. 162.
Given her family history and clinical course, the vaccines administered on October 25, 2012 were
just a coincidence with the onset of seizures. Tr. 162-63. He submitted that her seizures were a
result of individual genetic propensity, timing, and the stage of brain developmentânot vaccines.
Tr. 161. âA.L.M. had a genetic epilepsy that was treated effectively and went into remission and
is now doing well. There is no reason whatsoever to implicate any vaccine to her clinical course.â
Tr. 159-60.
57
Dr. McCusker found it noteworthy that A.L.M. had afebrile seizures which were not
exacerbated by subsequent febrile events or infections. Resp. Ex. Z at 5. She explained that, even
assuming the November 2 rash was vaccine related, A.L.M.âs cytokine levels from vaccination
would be far below what would be necessary to lower her seizure threshold. Id. If there were high
enough levels of cytokines to lower her seizure threshold as proposed by petitionerâs experts,
A.L.M. would have experienced sickness behaviors. Tr. 225. However, she was asymptomatic,
afebrile, and otherwise healthy. Tr. 225. A.L.M. did not fit the picture of child with rampant
circulation of cytokines. Tr. 225. Further, petitionerâs experts failed to explain how a normal
immune response to vaccines led to changes in A.L.M.âs CNS. Tr. 224.
A.L.M. has a family history of seizures and epilepsy and she received multiple vaccinations
on October 25, 2012. See Pet. Ex. 7 at 17; Pet. Ex. 10 at 82. On November 2, 2012, A.L.M.
developed a rash that lasted for an hour to several hours but disappeared without treatment. Tr. 9-
10, 21, 26-27. She had no fever and no sick behaviors. Tr. 21-22. Ten or more days after
vaccination,201 A.L.M. began to display chewing motions, then staring, then finger rubbing, then
not responding to her name. Tr. 24-27; Pet. Ex. 1 at 2; Pet. Ex. 12. At a doctorâs visit on November
26, 2012, the pediatrician suspected that these behaviors reflected seizure activity. Pet. Ex. 11 at
115-16.
At all relevant times, A.L.M. was a healthy child. Other than a transitory rash, A.L.M.âs
medical records and petitionerâs testimony provided no indication that A.L.M. demonstrated any
sick behaviors or fever at any point after her October 25 vaccinations or the onset of her afebrile
seizures. Tr. 21-22. Further her MRIs were normal. Tr. 164-65; Pet. Ex. 10 at 64. Other than the
onset of seizure activity, A.L.M. was afebrile and healthy at all times.
The medical records show petitioner to be diligent, cautious, and protective. She routinely
called or visited the pediatrician whenever A.L.M. was sick. But the medical records are silent for
the eight days between A.L.M.âs vaccinations and her November 2 rash and then silent again
between the rash on November 2 and the November 26 doctor visit, indicating that A.L.M. did not
display any sick behaviors, fever, or concerning behavior during that timeframe. Drs. Kinsbourne
and Levin did not address the lack of sickness behaviors or fever in the days and weeks between
her vaccination and onset of afebrile seizures. Only Dr. Levin placed any significance on A.L.M.âs
November 2 rash, referring to it as a sign of excessive cytokines. Pet. Ex. 50 at 1. Even then,
A.L.M. did not have a fever or demonstrate any sign of illness or high levels of cytokines. Tr. 21-
22.
Notably, none of A.L.M.âs treating physicians related the onset of her afebrile seizures to
her vaccinations.202 Dr. Holmes, who specializes in the care and treatment of children with
epilepsies, explained that epilepsy most commonly presents in children and is idiopathic most of
the time. Tr. 131, 135-36; Resp. Ex. A at 7. A.L.M.âs family history supports the conclusion that
her epilepsy was idiopathic. Petitioner herself has a history of seizures at the age of 3 and A.L.M.âs
father has a half-brother with diagnosed epilepsy. Such evidence was more persuasive than Drs.
201
Onset of symptoms will be more specifically addressed under Prong III.
202
Other cases from the Vaccine Program have recognized that âtreating physicians are likely to be in the
best position to determine whether a logical sequence of cause and effect show[s] that the vaccination was
the reason for the injury,â Paluck, 786 F.3d at 1385(quoting Andreu,569 F.3d at 1375
).
58
Kinsbourne and Levinâs statements to the contrary.
While medical literature and epidemiologic evidence is not required, it is still petitionerâs
burden to show that the vaccines she alleges to have caused injury can and did cause injury in her
case. See Althen, 418 F.3d at 1282(Fed. Cir. 2005); Andreu,569 F.3d at 1380
(stating that the
petitionerâs burden in the Vaccine Program is preponderant evidence standard). The patchwork
theory of causation woven by Drs. Kinsbourne and Levin does not provide a logical sequence of
cause and effect between the vaccinations received and the onset of A.L.M.âs afebrile seizures and
epilepsy. Petitioner has failed to provide proof that the MMR and/or Varicella and other vaccine(s)
can cause and did cause A.L.M.âs afebrile seizures and epilepsy. Respondentâs experts were more
persuasive, and they demonstrated that A.L.M.âs afebrile seizures and epilepsy were unrelated to
the vaccinations she received.
Petitioner failed to satisfy Prong II.
C. Althen Prong Three: Petitioner has Failed to Establish a Proximate Temporal
Relationship
Resolution of Prong III requires that petitioner establish onset. It is undisputed that the
medical literature supports onset of febrile seizures within 5 to 15 days following MMR
vaccination. The Program recognizes that timeframe as reflected in the Vaccine Table. §300aa-
14(a). However, as discussed at length above, there is no support for afebrile seizures following
MMR or any vaccine, with the limited exception of those children who suffer from Dravet
Syndrome. Tr. 147-49, 176; See Pet. Ex. 60.203
Based on the evidence presented, A.L.M.âs seizures began in excess of 15 days post
vaccination. Petitioner was uncertain when the seizures began and used the November 2, 2012 rash
as her frame of reference. She admitted to having to refer to the pediatric records and phone logs
for the date the rash occurred. Tr. 21. Her best estimate of when the chewing began was within a
week or two after the November 2 rash. Tr. 27-28. This would place onset between November 9
and November 16, or 15-22 days post vaccination. Petitioner then stated that the chewing started
a few days after the rash, placing onset in the days between November 4 and November 6, or 10-
12 days post-vaccination. Tr. 26. However, when petitioner presented A.L.M. to the pediatrician
on November 26, 2012, she reported onset as a week prior, or roughly November 19, 26 days post-
vaccination. Pet. Ex. 11 at 116. However, at the December 2, 2012 emergency room visit,
petitioner reported onset of seizures as 4-6 weeks ago, placing onset around November 4 or
October 21, two days after the rash or before vaccination. Pet. Ex. 15 at 2. Petitioner then clarified
that when she reported symptoms starting 4-6 weeks prior, she was referring to the onset of the
rashânot the seizures. Tr. 30-31. On December 3, 2012, petitioner reported seizure onset as one
month prior, placing onset as one day after the rash and nine days post-vaccination. Pet. Ex. 7 at
171. On January 8, 2013, petitioner reported seizure onset as a month prior to December 2, 2012,
placing onset on the day of the rash. Pet. Ex. 10 at 64. In October of 2013, petitioner reported the
seizure onset as two weeks after vaccination. Pet. Ex. 5 at 24.
Two years after vaccination, petitioner filled out a VAERS report on October 15, 2014, in
203
Cendes & Sankar, Vaccinations and Febrile Seizures, supra note 87.
59
which she reported that A.L.M. had a rash on her chest, neck, and face on November 2, 2012.
Within two weeks, A.L.M. started making chewing motions and by the end of November, she was
having staring spells. See Pet. Ex. 12. At hearing, petitioner agreed that she reported the onset of
chewing motions as approximately two weeks after the November 2 rash, adding that things
progressed quickly thereafter. Tr. 32-33.
Ms. Spencer submitted an affidavit that A.L.M. âbroke out in a rashâ on November 2, 2012.
Pet. Ex. 17 at 1-2. However, at hearing she was unsure and believed the rash occurred either on
November 7, 8, or 9. Tr. 40. The chewing motions and staring began a few days after the rash.
Pet. Ex. 17 at 2; Tr. 40-41, 45-46. However, Ms. Spencer also testified that the family was together
on Thanksgiving when the chewing motions, staring and finger rolling progressed and prompted
an emergency room visit. Tr. 46-47. She later corrected herself, saying that they went to the
emergency room on Christmas, not Thanksgiving. Tr. 47.
Ms. Mathison only briefly discussed symptom onset in her affidavit. She stated that A.L.M.
began making chewing motions with nothing in her mouth and would rub her hands in November
of 2012. Pet. Ex. 18 at 2.
A.L.M. received routine childhood vaccinations on October 25, 2012 seemingly without
event. She developed a rash on November 2, 2012. The reporting of A.L.M.âs seizure onset was
anywhere from 4 days prior to vaccination to one month post-vaccination. It is unclear whether
petitionerâs reference to âonsetâ at the emergency room on December 2, 2012 referred to the rash
on November 2, 2012 or the chewing motions and staring. Two years after the events, petitioner
prepared a VAERS report placing the onset of seizures as two weeks after the November 2, 2012
rash or roughly three weeks post-vaccination. For purpose of litigation, however, onset was alleged
to be 2-4 days after the rash on November 2, 2012, or 10-12 days post-vaccination.
Dr. Kinsbourne opined that both MMR and Varicella vaccines, as live attenuated vaccines,
have the same 5-to-15-day window for seizure onset during the period of viremia. Tr. 93-94. Based
on the testimony he heard at hearing, Dr. Kinsbourne believed A.L.M. had her first seizure with
facial movements 2-3 days after she developed a rash, or within the 5-to-15-day period. Tr. 54, 72.
He acknowledged that both the VAERS report and the medical records suggest seizure onset two
weeks after the November 2 rash. Tr. 85. Dr. Kinsbourne stated that if it was found that her seizures
began in excess of two weeks after the MMR vaccine, the vaccine would not be responsible for
her seizures. Tr. 85-86; Pet. Ex. 36 at 2. Thus, he stated that if the timeframe in the medical records
rather than petitionerâs testimony is accepted, the vaccine would not have been the cause of her
seizures. Tr. 85.
Dr. Levinâs opinion on onset was unclear. In his report, Dr. Levin stated that the first
clinical signs of neuronal damage were the chewing motions, staring, not reacting to sound, and
finger rubbing, which began within two weeks of vaccination. Pet. Ex. 39 at 2. He also stated that
her seizures âwere simply a further indication of the progression of neuronal damage and were
noted one month later.â Id. In the same report, he concluded that âher symptoms began within 2
weeks of the vaccination.â Id. At hearing, he stated that the time between her vaccines and the
afebrile seizures was approximately 10-14 days. Tr. 107.
60
Dr. Holmes agreed that febrile seizures can present between 7 to 14 days after MMR
vaccination. Tr. 145-46; Resp. Ex. V at 2. He opined that there is no evidence that supports afebrile
seizures resulting for vaccination. Tr. 146.
Dr. McCusker addressed onset of seizures being days after the November 2 rash, but she
concluded that there would be no circulating cytokines after the rash resolved, so the seizures were
unrelated. Tr. 227, 229; Resp. Ex. FFF at 4. She did, however, agree that the MMR vaccine can
cause febrile seizures, although she did not specify the timeframe expected for onset of febrile
seizures. Tr. 218-19.
There is no dispute that febrile seizures can occur within 5 to 15 days following MMR
vaccine. Petitionerâs experts argued that this timeframe applies to afebrile seizures as well, but
they provided no literature to support this opinion. Respondentâs experts disagreed, arguing instead
that no vaccine can cause afebrile seizures, and certainly did not cause afebrile seizures here 10 or
more days post-vaccination in an otherwise well child.
In summary, A.L.M. was a healthy child who received her routine vaccinations in the first
year of life without event. On October 25, 2012, she again received routine vaccinations without
event. On November 2 or eight days after vaccination, A.L.M. developed a transient rash while
out shopping with her mother and aunt, which resolved within an hour to several hours without
medical intervention. Tr. 9, 26-27. A.L.M. had no fever and no sickness behaviors. She
subsequently developed chewing motions, staring, hand rubbing, and hand twitching at some point
prior to being presented to the pediatrician on November 26, 2012. Tr. 24-26; Pet. Ex. 11 at 115-
16. These episodes lasted for seconds, then she returned to baseline. Pet. Ex. 7 at 2. Petitioner took
A.L.M. to the pediatrician on November 26, 2012, reporting onset as a week prior. Pet. Ex. 11 at
116. The pediatrician suspected that A.L.M. was having seizure activity. Id. She was ultimately
diagnosed with idiopathic seizures and epilepsy, from which she has since recovered.
Assessing all the evidence submitted, the onset of A.L.M.âs afebrile seizures was at the
very least 10 days after vaccination; more likely, though, her seizures began in excess of 15 days
after vaccination as documented in the medical records. Petitioner is a diligent and protective
mother. Based on the frequency of medical care reflected in the pediatric records, it is unlikely that
petitioner would have waited over three weeks to take A.L.M. to the pediatrician if she had been
displaying these behaviors. Thus, it is more likely that these behaviors began in late November
2012, shortly before or a week prior to petitioner taking A.L.M. to the pediatrician as she reported.
Based on the medical records and petitioner, the onset of A.L.M.âs afebrile seizures was more than
15 days after the October 25, 2012 vaccinations and cannot be implicated as the cause. Petitionerâs
neurology expert, Dr. Kinsbourne, agreed that a vaccine could not be responsible if onset is deemed
to be more than two weeks after vaccination. Tr. 85-86; Pet. Ex. 16 at 2; Pet. Ex. 36 at 2.
Therefore, petitioner failed to satisfy Prong III.
VIII. Conclusion
When petitioners fail to carry their burden, the Secretary is not required to present an
alternate explanation for the vaccinee's condition. De Bazan, 539 F.3d at 1352. The petitioner in
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this matter has failed to put forth a prima facie showing of causation and failed to demonstrate
entitlement to compensation. This case must be dismissed.
In the absence of a timely filed motion for review (see Appendix B to the Rules of the
Court), the Clerk shall enter judgment in accordance with this decision.204
IT IS SO ORDERED.
s/ Mindy Michaels Roth
Mindy Michaels Roth
Special Master
204
Pursuant to Vaccine Rule 11 (a), if a motion for review is not filed within 30 days after the filing of the
special masterâs decision, the clerk will enter judgment immediately.
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