Literature DB >> 34796417

Guillain-Barré syndrome following the first dose of Pfizer-BioNTech COVID-19 vaccine: case report and review of reported cases.

Nadia Bouattour1,2, Olfa Hdiji3,4, Salma Sakka3,4, Emna Fakhfakh3,4, Khadija Moalla3,4, Sawsan Daoud3,4, Nouha Farhat3,4, Mariem Damak3,4, Chokri Mhiri3,4.   

Abstract

BACKGROUND: Since the SARS-CoV-2 pandemic has started in December 2019, millions of people have been infected all over the world. Vaccination is the most efficient tool to end this pandemic, but vaccine surveillance is necessary to identify side effects. Some studies have shown that neurological complications after COVID-19 vaccination are rare and dominated by demyelinating disease. CASE
PRESENTATION: We present a case of a 67-year-old man who presented 7 days following his first dose of Pfizer-BioNTech COVID-19 vaccine a rapidly progressive ascending muscle weakness. The diagnosis of Guillain-Barré syndrome (GBS) was confirmed according to the clinical features, the albumino-cytological dissociation in the cerebrospinal fluid, and the electroneuromyography findings. The workup for all known infections associated with immune-mediated GBS was negative. The patient received treatment with intravenous immunoglobulin. Neurological examination 1 month after discharge showed full recovery and he regained his baseline functional status.
CONCLUSIONS: As far as we know, this is the first reported case in Tunisia. Although extremely rare, neurologists should remain vigilant for acute inflammatory demyelinating polyradiculoneuropathy after COVID-19 vaccination.
© 2021. Fondazione Società Italiana di Neurologia.

Entities:  

Keywords:  COVID-19 vaccine; Guillain-Barré syndrome (GBS); Neurological complications; SARS-CoV-2

Mesh:

Substances:

Year:  2021        PMID: 34796417      PMCID: PMC8601771          DOI: 10.1007/s10072-021-05733-x

Source DB:  PubMed          Journal:  Neurol Sci        ISSN: 1590-1874            Impact factor:   3.307


Introduction

Guillain-Barré syndrome (GBS) is the most common acute immune-mediated polyradiculoneuropathy in the world [1]. The classical clinical presentation of GBS is a bilateral weakness with hyporeflexia or areflexia with or without sensory symptoms [2]. The cause of GBS is unknown; it is believed that an autoimmune response plays a role in the pathogenesis of this disease [2]. The suggested pathophysiology is molecular mimicry following respiratory or gastrointestinal infections and extremely rare following vaccination [3]. Since the pandemic was caused by COVID-19, several vaccines were approved by the food and drug administration to control this pandemic and many side effects were reported ranging from fatigue, fever, and myalgia to more serious complications [3, 4]. We herein report a case of a patient who developed GBS 7 days after receiving the first dose of Pfizer-BioNTech COVID-19 vaccine. We report this case to increase awareness of acute inflammatory demyelinating polyradiculoneuropathy (AIDP) as a possible side effect of the COVID-19 vaccine and to understand if this syndrome is associated with a specific type of vaccine by an exhaustive reviewing of the literature.

Case report

A 67-year-old male, with a medical history of type II diabetes, was admitted for a weakness of the four limbs in July 2021. He presented 4 days before his admission complaints of progressive ascending weakness. He had received his first dose of COVID-19 (Pfizer-BioNTech) 7 days before presentation. He denied any history of recent fever, gastrointestinal, or upper respiratory tract illness. He denied also contracting COVID-19 infection. At physical examination on admission, his blood pressure was 124/80 mm Hg, his pulse was 76 bat/min, and his body temperature was 37.3 °C. Neurological examination showed a flaccid tetraparesis predominating in the lower limbs and weakness in distal lower limbs for foot and toes dorsiflexors. His upper limb power was a medical research council (MRC) grade 4/5 and his lower limb power was MRC grade 3/5. There was a generalized areflexia, with intact superficial and vibratory sensation. Examination of the cranial nerves was normal. No bowel or bladder dysfunction was reported. Routine blood tests revealed a hemoglobin rate of 12.4 g/dL, a platelet count of 361000/μL, and a white blood cell count of 6780/μL. He had a C-reactive protein of 4 mg/dL. Electroneuromyography performed 1 day after admission showed typical features of AIDP. Reviewing the neurophysiological criteria of Rajabally et al. [5], there is a prolonged F response in the left median and left tibial nerves. Table 1 summarizes the results of the electroneuromyography.
Table 1

Summary of electromyography and nerve conduction studies

TestsNormal valueRightLeft
Motor nerve conduction
DML (ms)
Median≤3.84.34.1
Ulnar≤3.22.22.5
Peroneal≤54.95.6
Tibial≤4.55.76.5
F waves (ulnar)≤3033.534.3
F waves (median)≤3028.837.5
F waves (tibial)≤5055.361.3
CMAP (mV)
Median
Wrist≥60.71.2
Ulnar

Wrist

Below elbow

Above elbow

≥6

1.2

1.7

0.7

Proximal conduction block

3.9

3

1.3

Proximal conduction block

Peroneal≥32.53.5
Tibial≥60.20.4
MCV (m/s)
Median≥4557.651.6
Ulnar≥4555.356
Peroneal≥4242.641
Tibial≥4240.345.4
Sensory nerve conduction
SNAP (mV)
Ulnar≥101314
Median≥1577.5
Radial≥151115
Sural≥106.411
Musculocutaneous≥101915
SCV (m/s)
Ulnar≥4556.357.8
Median≥4543.848.6
Radial≥4564.662.4
Sural≥404245.5
Musculocutaneous≥4054.357.4

DML, distal motor latency; CMAP, compound muscle action potential; MCV, motor nerve conduction velocity; SNAP, sensory nerve action potential; SCV, sensory conduction velocity; values marked in bold are above or below normal; values marked in bold underlined meet Rajabally’s criteria

Summary of electromyography and nerve conduction studies Wrist Below elbow Above elbow 1.2 1.7 0.7 Proximal conduction block 3.9 3 1.3 Proximal conduction block DML, distal motor latency; CMAP, compound muscle action potential; MCV, motor nerve conduction velocity; SNAP, sensory nerve action potential; SCV, sensory conduction velocity; values marked in bold are above or below normal; values marked in bold underlined meet Rajabally’s criteria Lumbar puncture revealed an albumino-cytological dissociation with 0.8 g/L of protein, 4 WBC/mm3, and normoglucorrachia. Cerebrospinal fluid (CSF) cytology was unremarkable. Extensive infectious and inflammatory workup of serum and CSF which included HIV antibodies, hepatitis B and C serologies, Campylobacter jejuni serology, Lyme titers, CMV titers, EBV titers, and anti-nuclear antibodies were all negative. Ganglioside antibodies GM1, GD1a, GD1b, GQ1b, and GM2 were negative. COVID-19 PCR from a nasopharyngeal swab was negative. Based on the previous workup, and according to the Brighton criteria [6], the diagnosis of GBS was made with the highest level of diagnostic certainty, and an intravenous immunoglobulin (IVIG) treatment was started. He was given IVIG in the standard recommended dose (0.4 g/kg/day) for 5 days with rehabilitation. After 1 week of hospitalization, his strength began to improve. He was seen in the neurology clinic, outpatient department of the hospital 4 weeks after discharge, where neurological examination showed full recovery and he regained his baseline functional status.

Discussion

This paper reported a case of GBS in a patient who recently received the Pfizer-BioNTech vaccine. This vaccine is a synthetic messenger RNA vaccine (mRNA). Inside the human body, mRNA enters the human cell and produces the spike protein found on the surface of the virus. Our bodies recognize this protein as an invader and produce antibodies against it [4]. In some cases, this immune response can trigger autoimmune processes that lead to the production of antibodies against the myelin and cause GBS. This syndrome is an immune-mediated syndrome that involves a variety of demyelinating conditions: AIDP like in our case, acute motor-sensory axonal neuropathy (AMSAN), acute motor axonal neuropathy (AMAN), and Miller Fisher syndrome [7]. The immunological pathophysiology of GBS was reinforced by many reported cases following vaccination against multiple pathogens. The influenza vaccine was the most offending, also hepatitis B and A, tetanus, and polio vaccines can cause GBS [8]. The first case of GBS following COVID-19 vaccination was reported by Waheed et al. [9] in February 2021 in the USA, in a 82-year-old female, 14 days after the first dose of Pfizer-BioNTech. Reviewing the literature, at the time of writing this paper, 19 cases of GBS after COVID-19 vaccination were reported in the world (Table 2). All patients described in the literature had not a history of COVID-19 or current infection, as in our patient. Many types of vaccines with different mechanisms of action have been implicated in the development of GBS (Table 2): eleven cases after Pfizer-BioNTech vaccine, six cases after AstraZeneca vaccine, one case after ChAdOx1 nCoV-19 vaccine, and one case after Johnson & Johnson vaccine. All reported cases presented GBS after receiving the first dose of COVID-19 vaccine, only one case after the second dose.
Table 2

Review of the literature

PublicationsDate/countryNumber of casesSex/age (years old)Vaccine/techniqueInterval vaccine-GBS symptoms (days)Neurological examinationElectromyographyCSFBrain and spinal MRITreatmentEvolution

Waheed et al. [9]

February 2021/USA

1F/82Pfizer (first dose)/mRNA14Flaccid paraplegiaNot performedAlbumino-cytological dissociation (proteins 0.88 g/L)Enhancement of cauda equina nerve rootsIVIGFavorable

Razok et al. [10]

May 2021/Qatar

1M/73Pfizer (second dose)/mRNA20Flaccid tetraplegiaAIDPAlbumino-cytological dissociation (proteins 0.8 g/L)Bilateral nerve root enhancement in the lumbar region and the upper part of the cauda equinaIVIGFavorable

Ogbebor et al. [11]

April 2021/USA

1F/86Pfizer (first dose)/mRNA1Flaccid paraplegiaNot performedAlbumino-cytological dissociation (proteins 1.62 g/L)NormalIVIGFavorable

Azam et al. [12]

May 2021/UK

1M/67AstraZeneca (first dose)/viral vector19Flaccid tetraplegia + bilateral peripheral facial palsyAIDPAlbumino-cytological dissociation (proteins 3.9 g/L)Bilateral enhancement of the facial nerveIVIG

-Autonomic complications of GBS (hyponatremia)

-Favorable

Patel et al. [13]

April 2021/UK

1M/37AstraZeneca (first dose)/viral vector14Flaccid tetraplegia + ataxiaNormalAlbumino-cytological dissociation (proteins 1.77 g/L)Bilateral thickened of the cauda equina nerve rootlets, particularly at the level of S1IVIGRespiratory distress and neuropathic pain

Loza et al. [14]

April 2021/USA

1F/60Johnson & Johnson/viral vector10Bilateral facial palsy + flaccid paraplegia + diplopiaAIDPAlbumino-cytological dissociation (proteins 1.4 g/L)Enhancement of the cauda equinaIVIGFavorable

Allen et al. [15]

May 2021/UK

4M/54AstraZeneca (first dose)/viral vector16Bilateral facial palsy + distal dysesthesia in his feet and handsFacial NCS showed severely reduced compound muscle action potential amplitude responses and normal terminal latencies bilaterally. Sensory and motor NCS were normal in the upper and lower limbs.Mild lymphocytosis (19 cells/mL) and elevated proteins (1,626 g/L)Subtle enhancement bilaterally in the distal facial nerves at the internal auditory canalOral prednisolone 60 mg for 5 daysNo improvement
M/20AstraZeneca (first dose)/viral vector26Dysesthesia in his distal lower limbs + facial diplegia

Facial NCS showed borderline normal amplitude responses and normal terminal latencies bilaterally.

Sensory and motor NCS were normal in the upper and lower limbs.

Mild lymphocytosis (14 cells/mL) and elevated proteins (1,232 g/L)NormalOral prednisolone 60 mg for 5 daysNo improvement
M/57AstraZeneca (first dose)/viral vector21Flaccid tetraplegia + diplopiaNormalMild lymphocytosis (8 cells/mL) and elevated proteins (2,471 g/L)NormalIVIGUnspecified
M/55AstraZeneca (first dose)/viral vector29Bilateral thigh paresthesias + facial diplegiaNot performedAlbumino-cytological dissociation (proteins 0.890 g/L)Enhancement of the facial nerve within the right internal auditory canalNo treatmentSpontaneous improvement

Nasuelli et al. [16]

July 2021/Italy

1M/59ChAdOx1 nCoV-19 vaccine (first dose)/viral vector10Gait ataxia+ global areflexia + and distal paresthesia in the four limbsAIDPAlbumino-cytological dissociation (proteins 1.4 g/L)NormalIVIGWorsening (cranial nerve palsy: bilateral facial palsy)

Garcia-Grimshaw et al. [17]

July 2021/Mexico

7M/33Pfizer (first dose)/mRNA28Facial diplegia and loss of deep tendon reflexesAIDPAlbumino-cytological dissociation (proteins 0.67 g/L)UnspecifiedIVIGFavorable
M/2512Symmetric weakness and paresthesia of hands and feetAIDPAlbumino-cytological dissociation (proteins 0.64 g/L)Partial improvement
F/536Quadriparesis and loss of deep tendon reflexes.AMANAlbumino-cytological dissociationNo improvement
M/724Quadriparesis and decreased deep tendon reflexesAMANNot performedNo improvement
M/314Symmetric weakness and loss of deep tendon reflexesAIDPNot performedPartial improvement
F/675Quadriparesis, loss of deep tendon reflexes, and respiratory failureAMANProteins: 0.30 g/LDead
F/814Asymmetric weakness and loss of deep tendon reflexesAIDPAlbumino-cytological dissociation (proteins 0.414 g/L)No improvement
Trimboli et al. [18] August 2021/Italy1F/25Pfizer (second dose)/mRNA5Flaccid paraplegia + areflexia in lower extremitiesAIDPNormalNot performedIVIGFavorable

Our case

Tunisia

1M/67Pfizer (first dose)/mRNA7Flaccid tetraparesisAIDPAlbumino-cytological dissociation (proteins 0.8 g/L)NormalIVIGFavorable

F, female; M, male; IVIG, intravenous immunoglobulin; NCS, nerve conduction studies; AIDP, acute inflammatory demyelinating polyneuropathy; AMAN, acute motor axonal neuropathy

Review of the literature Waheed et al. [9] February 2021/USA Razok et al. [10] May 2021/Qatar Ogbebor et al. [11] April 2021/USA Azam et al. [12] May 2021/UK -Autonomic complications of GBS (hyponatremia) -Favorable Patel et al. [13] April 2021/UK Loza et al. [14] April 2021/USA Allen et al. [15] May 2021/UK Facial NCS showed borderline normal amplitude responses and normal terminal latencies bilaterally. Sensory and motor NCS were normal in the upper and lower limbs. Nasuelli et al. [16] July 2021/Italy Garcia-Grimshaw et al. [17] July 2021/Mexico Our case Tunisia F, female; M, male; IVIG, intravenous immunoglobulin; NCS, nerve conduction studies; AIDP, acute inflammatory demyelinating polyneuropathy; AMAN, acute motor axonal neuropathy Our patient developed, 7 days after receiving the first dose of Pfizer-BioNTech vaccine, as far as our known this is the first reported case in Tunisia. However, despite a relatively large number of reported cases of GBS in post-vaccination, a temporal association is a possibility and a definite causal association was not confirmed considering the inability to prove that relation on a molecular basis. The classical clinical manifestation of GBS is bilateral symmetric weakness and decreased deep tendon reflexes. The CSF analysis demonstrates albumin-cytological dissociation, like the findings in our patient and electrophysiological studies mainly showing AIDP. The treatment of GBS is based on plasma exchange (PE) or IVIG. Our patient and the majority of cases described in the literature underwent IVIG, because it is easier to manage than PE and has substantially fewer complications, only 2 cases were treated by prednisolone (Table 2).

Conclusion

We describe a case of GBS following vaccination against SARS-COV-2. We report this case to increase awareness of GBS as a possible complication of this vaccine, but further extensive studies are required to adequately determine the link between vaccination and GBS.
  7 in total

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7.  SARS-CoV-2 antibody responses before and after a third dose of the BNT162b2 vaccine in Italian healthcare workers aged ≤60 years: One year of surveillance.

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