Literature DB >> 36000937

Toxic epidermal necrolysis after first dose of Pfizer-BioNTech (BNT162b2) vaccination with pharmacogenomic testing.

Nunthana Siripipattanamongkol1, Sirawich Rattanasak1, Chanya Taiyaitieng2, Yanapha Inthajak3, Nitchamon Kuawatcharawong4, Chonlaphat Sukasem5,6,7, Therdpong Tempark8.   

Abstract

Toxic epidermal necrolysis (TEN) is a rare and acute life-threatening condition and one of the severe cutaneous adverse drug reactions. There are limited data on TEN from the COVID-19 vaccine regarding its pathogenesis, treatment, and prognosis, particularly in children. We report a case of COVID-19 vaccine-induced TEN and the patient's human leukocyte antigen pharmacogenomic profile.
© 2022 Wiley Periodicals LLC.

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Keywords:  COVID-19 vaccine; pharmacogenomics; toxic epidermal necrolysis

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Year:  2022        PMID: 36000937      PMCID: PMC9538630          DOI: 10.1111/pde.15074

Source DB:  PubMed          Journal:  Pediatr Dermatol        ISSN: 0736-8046            Impact factor:   1.997


INTRODUCTION

Toxic epidermal necrolysis (TEN) is a rare, acute, life‐threatening, drug‐related disease, which has an estimated mortality rate of 14.8%–48% , and an annual incidence of 0.4–1.2 cases per million from various culprit drugs. There have been a small number of case reports of patients who have developed Stevens‐Johnson syndrome (SJS)/TEN following COVID‐19 vaccine. Here we present the case of a 12‐year‐old girl with TEN after her first dose of Pfizer‐BioNTech (BNT162b2) vaccine.

Case presentation

A healthy 12‐year‐old girl with no previous medical history presented 6 days after her first dose of Pfizer‐BioNTech (BNT162b2) vaccine. Two days after vaccination, she developed a low‐grade fever with a mild sore throat. The patient did not take any oral prescribed or over‐the‐counter medications or herbal remedies during the past 8 weeks. On the 6th day after the vaccine, there were erythematous, painful patches and plaques on the chest wall and trunk, which subsequently spread to the face, palms, and soles. Mucocutaneous erosions were observed in the ocular, oral, and genital regions. She was diagnosed with TEN and immediately admitted to the pediatric intensive care unit. During the first day of admission, the rash rapidly coalesced and she developed tense bullae, prominently seen on both cheeks and left arm. (Figure 1) Multiple, tiny bullae, dusky patches, and macules were observed. Her lips and oral mucosa were covered with painful hemorrhagic crusts and genital mucosal lesions appeared. She had conjunctival and mucopurulent discharge from both eyes. Asboe‐Hansen sign was noted all over the body. She was estimated to have epidermal detachment over 40% of the body surface area. (Figure 2).
FIGURE 1

Second day of admission, rapid progressive necrosis and denuded area at face and oral mucosa with worsening ophthalmologic symptoms.

FIGURE 2

A wide‐spread area of necrotic skin at the back with Nikolsky sign.

Second day of admission, rapid progressive necrosis and denuded area at face and oral mucosa with worsening ophthalmologic symptoms. A wide‐spread area of necrotic skin at the back with Nikolsky sign. Complete blood count, standard chemistry panels, transaminases, and urine analysis were all within normal limits. Chest radiography was normal with negative serology for Mycoplasma pneumoniae, Epstein–Barr virus, and human immunodeficiency virus (HIV). Pediatric SCORTEN was 2 on the first day of admission, reflecting a heart rate over 120 beats per minute and epidermal detachment area involving BSA >30%. Histopathology showed subepidermal bullae, full thickness epidermal necrosis, patchy areas of basal cell degeneration and necrotic keratinocytes and interface dermatitis with perivascular inflammatory cell infiltration (Figure 3). Human leukocyte antigen (HLA) class I and II alleles were determined using PCR sequence‐specific oligonucleotide probes. The HLA genotyping in the patient showed HLA‐A*02:03/31:01, HLA‐B*13:01/15:27, HLA‐C*04:01/04:06, HLA‐DRB1*04:06/15:02, HLA‐DQB1* 03:02/05:01, HLA‐DQA1* 01:01/03:01.
FIGURE 3

Biopsy of full thickness epidermal necrosis with keratinocytes necrosis.

Biopsy of full thickness epidermal necrosis with keratinocytes necrosis. Intravenous immunoglobulin (IVIG) (2 g/kg) was given within 24 h after diagnosis, in conjunction with nonpharmacologic treatments, such as fluid, electrolyte and nutritional support, and wound management. No prophylactic antibiotics were prescribed. Clinical improvement occurred on the second day after IVIG administration, with defervescence of fever and no new skin lesions. Reepithelialization of the skin was noticed on the 7 day after admission. The patient had complete skin reepithelialization on the 12 day after admission, with a total hospitalization of 18 days. She had a full recovery without sequelae.

DISCUSSION

SJS/TEN is an extremely rare adverse event from basic vaccination. In addition, cases of SJS/TEN associated with the COVID‐19 vaccine have been rarely reported and are summarized in Table 1. , , , , , , , ,
TABLE 1

Reported cases of COVID‐19 vaccine induced SJS/TEN

Author's name, ReferenceAge (years)GenderUnderlying diseases, drugVaccineDoseOnset duration after vaccination (days)DiagnosisSkin biopsySCORTENLaboratoryTreatmentRecovery time (days)Prognosis
Bakir M, et al. 4 49FNo

Pfizer‐BioNTech

(BNT 162b1)

First dose7 daysTENConfirmed2 (1 day)

AST 178 U/L

ALT 90 U/L

CXR‐normal

Etanercept × 2 doses22 days

Good

Elboraey MO, et al. 5 “Middle‐age”FN/R

Pfizer‐BioNTech

(BNT 162b1)

Second dose5 daysSJSNot doneN/RN/R

Oral prednisolone

(30 mg/day)

N/R

Good

Dash S, et al. 6 60M

DM‐metformin, teneligliptin

HT‐ amlodipine

Astra Zeneca

(ChAdOx1 nCoV‐19)

First dose3 daysSJSConfirmed1 (1 day)N/RCyclosporine 300 mg7 days

Good

Mansouri P, et al. 7 49F

Breast cancer

(tamoxifen, sodium valproate, alprazolam)

Sinopharm, (China National Biotec Group)

Second dose

3 days

SJS

(mild symptoms)

ConfirmedN/RN/R

Oral prednisolone

(30 mg/day)

14 daysGood
Mardani M, et al. 8 76MHyperlipidemia (atrovastatin)China National Biotec Group)First dose1 dayTENConfirmedN/R

AST 90 U/L

ALT 82 U/L

CXR‐normal

Oral prednisolone14 daysGood
Aimo C, et al. 9 65MNoVaxvetria (AZD1222)Second dose10 daysSJSConfirmedN/R

‐Thrombocytopenia

‐Elevated CRP, LDH, fibrinogen, D‐dimer

‐Sagittal sinus thrombosis

Oral prednisolone

(1 mg/kg/day)

Within 8 weeksGood
Kherlopian A, et al. 10 48FN/R

Astra Zeneca

(ChAdOx1 nCoV‐19)

First dose14 daysTENConfirmed2 (day‐not reported)‐Serology: M. pneunoniae, herpes simplex virus, adenovirus, HIV, hepatitis B, C‐ negativeEtanercept × 3 doses35 daysGood
Mansouri P, et al. 11 63F

Psoriasis,

DM‐ Sitagliptin, metformin

Sinopharm, (China National Biotec Group)First dose1 daySJSConfirmedN/R

‐CBC, BUN, Cr‐ normal

‐HbA1C 6.4% (normal 4%–5.6%)

Oral prednisolone

(40 mg/day)

3 weeksGood
Padniewski JJ, et al. 12 46F

Hyperlipidemia‐ atorvastatin

Obesity

DM‐ metformin

Moderna

(Moderna Inc., MRNA 1273)

First dose3 daysSJSConfirmedN/R

‐Serology: M. pneunoniae, herpes simplex virus, varicella, tuberculosis, hepatitis B, C‐ negative

‐CXR‐normal

Oral prednisolone

(80 mg/day)

6 daysGood
Our case12FNo

Pfizer‐BioNTech

(BNT 162b2)

First dose6 daysTENConfirmed

2 (1 day):

Pediatric SCORTEN

NormalIVIG 2 g/kg/day12 days

Good

Abbreviations: F, female; M, Male; N/R, not reported.

Reported cases of COVID‐19 vaccine induced SJS/TEN Pfizer‐BioNTech (BNT 162b1) AST 178 U/L ALT 90 U/L CXR‐normal Good Pfizer‐BioNTech (BNT 162b1) Oral prednisolone (30 mg/day) Good DM‐metformin, teneligliptin HT‐ amlodipine Astra Zeneca (ChAdOx1 nCoV‐19) Good Breast cancer (tamoxifen, sodium valproate, alprazolam) Second dose 3 days SJS (mild symptoms) Oral prednisolone (30 mg/day) AST 90 U/L ALT 82 U/L CXR‐normal ‐Thrombocytopenia ‐Elevated CRP, LDH, fibrinogen, D‐dimer ‐Sagittal sinus thrombosis Oral prednisolone (1 mg/kg/day) Astra Zeneca (ChAdOx1 nCoV‐19) Psoriasis, DM‐ Sitagliptin, metformin ‐CBC, BUN, Cr‐ normal ‐HbA1C 6.4% (normal 4%–5.6%) Oral prednisolone (40 mg/day) Hyperlipidemia‐ atorvastatin Obesity DM‐ metformin Moderna (Moderna Inc., MRNA 1273) ‐Serology: M. pneunoniae, herpes simplex virus, varicella, tuberculosis, hepatitis B, C‐ negative ‐CXR‐normal Oral prednisolone (80 mg/day) Pfizer‐BioNTech (BNT 162b2) 2 (1 day): Pediatric SCORTEN Good Abbreviations: F, female; M, Male; N/R, not reported. There have been only nine reported cases of SJS/TEN after COVID‐19 vaccine. Five of these patients had underlying diseases, such as hyperlipidemia, diabetes mellitus and breast cancer with a history of medication use. , , , , Most cases of SJS/TEN occurred following the first dose of COVID‐19 vaccine. The onset of SJS/TEN after vaccination was about 1–2 weeks (1–14 days). However, underlying diseases, vaccine type, concomitant factors (medication type and duration of treatment, and probably infection) could be additional predisposing factors for SJS/TEN. From the literature review, treatments included anti‐tumor necrosis factor‐alpha (anti TNF‐α), prednisolone, cyclosporine, and IVIG. All patients had a good prognosis, with a complete time of resolution ranging from 7 days to 35 days. The hospitalization time of drug‐induced SJS/TEN in a previous study was 11.8 ± 10.6 days. However, long‐term sequelae should be monitored. Our case was treated with IVIG due to concern regarding the side‐effects of other treatments, including systemic corticosteroids and cyclosporine. Being in a resource‐limited setting, we were unable to use anti‐TNF‐alpha agents in Thailand. Despite clinical data from a systematic review and meta‐analysis in 2017 regarding the nonusefulness of IVIG, other systematic reviews and meta‐analyses in 2012 and 2015 suggested that IVIG was beneficial in reducing mortality in children when compared to studies in adults. Dosages of ≥2 g/kg appeared to significantly decrease mortality in patients with SJS or TEN. Thus, IVIG use in pediatric patients is another option in a country with limited resources. The COVID‐19 vaccine is comprised of virotopes and excipients (L‐histidine, L‐histidine hydrochloride, sucrose, sodium chloride, polysorbate 80, ethanol, water, polyethylene glycol [PEG‐2000] and others). The most likely causative vaccine component in one case report was thought to be the virotopes. The presumptive hypothesis of SJS/TEN from routine vaccination was proposed by Chahal et al. The expression of virotopes on the surface of keratinocytes is similar to drug antigens on keratinocytes that can potentially activate a CD8+ T‐cell lymphocyte response. This activation induces the release of chemokines, cytolytic molecules, cytotoxic agents, and enzymes, such as granulysin, granzyme B, and perforin, leading to keratinocyte apoptosis and detachment of epidermis.17, mRNA vaccines initially activate toll‐like receptor‐7/8 (TLR7/8) and retinoic acid‐inducible gene‐1‐like (RIG‐I‐like) receptors (RLRs), inducing a cellular immune response embraced by CD8+ T cells and macrophages with a T‐helper 1 cell profile (Th1). Key cytokines include interferon‐γ (IFN‐γ), tumor necrosis factor‐α (TNF‐α), and interleukin(IL)‐2 and IL‐6. The implementation of pharmacogenomics in clinical practice represents a feasible and likely useful enhancement to the therapeutic management of medication‐induced adverse events. Pharmacogenomics may have a role in personalized vaccination plans and potentially could reduce adverse events. HLA encoded by the HLA gene are an important modulator of the immune response and drug hypersensitivity reactions. HLA variants can be a risk factor for developing potentially fatal drug and vaccine‐induced hypersensitivity reactions. Interestingly, specific HLA genotypes that confer genetic susceptibility to SCARs have been found in this patient (HLA‐A* 31:01‐carbamazepine, HLA‐B*13:01‐cotrimoxazole and dapsone, HLA‐DRB1*15:02‐allopurinol). We hope that the HLA‐pattern of this patient might be beneficial for future research on drug susceptibility, particularly of vaccines.

CONCLUSION

The impact of COVID‐19 infection is well‐recognized all over the world. To date, 3.15 billion doses of vaccines have been provided with only 10 cases (including our reported case) of SJS/TEN. The occurrence of SJS/TEN is extremely rare and the benefits of vaccination clearly outweigh the risks. In our case, we describe how early IVIG administration was as an effective and safe treatment for TEN induced Pfizer (BNT162b2) vaccination. We also report the HLA pharmacogenetic biomarkers of this patient: HLA‐A* 02:03/31:01, HLA‐B* 13:01/15:27, HLA‐C* 04:01/04:06, HLA‐DRB1* 04:06/15:02, HLA‐DQB1* 03:02/05:01, HLA‐DQA1* 01:01/03:01.

FUNDING STATEMENT

None declared.

CONFLICT OF INTEREST

None declared.
  21 in total

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Authors:  Stacy J Barron; Michael T Del Vecchio; Stephen C Aronoff
Journal:  Int J Dermatol       Date:  2014-04-02       Impact factor: 2.736

Review 2.  Vaccine-induced toxic epidermal necrolysis: A case and systematic review.

Authors:  Dev Chahal; Maria Aleshin; Mamina Turegano; Melvin Chiu; Scott Worswick
Journal:  Dermatol Online J       Date:  2018-01-15

3.  A case of Steven-Johnson syndrome after COVID-19 vaccination.

Authors:  Parvin Mansouri; Susan Farshi
Journal:  J Cosmet Dermatol       Date:  2022-01-12       Impact factor: 2.696

4.  Morbidity and Mortality of Stevens-Johnson Syndrome and Toxic Epidermal Necrolysis in United States Adults.

Authors:  Derek Y Hsu; Joaquin Brieva; Nanette B Silverberg; Jonathan I Silverberg
Journal:  J Invest Dermatol       Date:  2016-03-30       Impact factor: 8.551

5.  Clinical Features and Treatment Outcomes among Children with Stevens-Johnson Syndrome and Toxic Epidermal Necrolysis: A 20-Year Study in a Tertiary Referral Hospital.

Authors:  Susheera Chatproedprai; Vanvara Wutticharoenwong; Therdpong Tempark; Siriwan Wananukul
Journal:  Dermatol Res Pract       Date:  2018-05-07

Review 6.  Cutaneous Adverse Reactions to COVID-19 Vaccines: Insights from an Immuno-Dermatological Perspective.

Authors:  Dennis Niebel; Natalija Novak; Jasmin Wilhelmi; Jana Ziob; Dagmar Wilsmann-Theis; Thomas Bieber; Joerg Wenzel; Christine Braegelmann
Journal:  Vaccines (Basel)       Date:  2021-08-25

7.  Stevens-Johnson syndrome induced by Vaxvetria (AZD1222) COVID-19 vaccine.

Authors:  C Aimo; E B Mariotti; A Corrà; E Cipollini; O Le Rose; C Serravalle; N Pimpinelli; M Caproni
Journal:  J Eur Acad Dermatol Venereol       Date:  2022-02-21       Impact factor: 9.228

Review 8.  Stevens-Johnson syndrome precipitated by Moderna Inc. COVID-19 vaccine: a case-based review of literature comparing vaccine and drug-induced Stevens-Johnson syndrome/toxic epidermal necrolysis.

Authors:  Jessica J Padniewski; Erick Jacobson-Dunlop; Sam Albadri; Sara Hylwa
Journal:  Int J Dermatol       Date:  2022-04-10       Impact factor: 3.204

9.  Toxic epidermal necrolysis after first dose of Pfizer-BioNTech (BNT162b2) vaccination with pharmacogenomic testing.

Authors:  Nunthana Siripipattanamongkol; Sirawich Rattanasak; Chanya Taiyaitieng; Yanapha Inthajak; Nitchamon Kuawatcharawong; Chonlaphat Sukasem; Therdpong Tempark
Journal:  Pediatr Dermatol       Date:  2022-07       Impact factor: 1.997

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  1 in total

1.  Toxic epidermal necrolysis after first dose of Pfizer-BioNTech (BNT162b2) vaccination with pharmacogenomic testing.

Authors:  Nunthana Siripipattanamongkol; Sirawich Rattanasak; Chanya Taiyaitieng; Yanapha Inthajak; Nitchamon Kuawatcharawong; Chonlaphat Sukasem; Therdpong Tempark
Journal:  Pediatr Dermatol       Date:  2022-07       Impact factor: 1.997

  1 in total

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