Literature DB >> 32747471

Reintroduction of immune-checkpoint inhibitors after immune-related meningitis: a case series of melanoma patients.

Stefania Cuzzubbo1,2, Pauline Tetu3,4, Sarah Guegan5,6, Renata Ursu2, Catherine Belin2, Lila Sirven Villaros7,2, Julie Mazoyer2, Coralie Lheure8, Celeste Lebbe3,4, Barouyr Baroudjian3, Antoine F Carpentier7,2.   

Abstract

Immune-checkpoint inhibitors (ICIs) targeting cytotoxic T lymphocyte-associated antigen-4 and programmed cell death ligand-1) are associated with several immune-related neurological disorders. Cases of meningitis related to ICIs are poorly described in literature and probably underestimated. Several guidelines are available for the acute management of these adverse events, but the safety of resuming ICIs in these patients remains unclear. We conducted a retrospective case series of immune-related meningitis associated with ICIs that occurred between October 1 2015 and October 31 2019 in two centers: Saint-Louis and Cochin hospitals, Paris, France. Diagnosis was defined by a (1) high count of lymphocytes (>8 cells/mm3) and/or high level of proteins (>0.45 g/L) without bacteria/virus or tumor cells detection, in cerebrospinal fluid and (2) normal brain and spine imaging. Patients were followed-up for at least 6 months from the meningitis onset. Seven cases of immune-related meningitis are here reported. Median delay of meningitis occurrence after ICIs onset was 9 days. Steroid treatment was introduced in four patients at a dose of 1 mg/kg (prednisone), allowing a complete recovery within 2 weeks. The other three patients spontaneously improved within 3 weeks. Given the favorable outcome, ICIs were reintroduced in all patients. The rechallenge was well tolerated and no patients experienced meningitis recurrence. In conclusion, in our series, the clinical course was favorable and steroids were not always required. Resuming ICIs in these patients appeared safe and can thus be considered in case of isolated meningitis. However, a careful analysis of the risk/benefit ratio should be done on a case-by-case basis. © Author(s) (or their employer(s)) 2020. Re-use permitted under CC BY-NC. No commercial re-use. See rights and permissions. Published by BMJ.

Entities:  

Keywords:  CTLA-4 antigen; immunotherapy; melanoma; programmed cell death 1 receptor

Year:  2020        PMID: 32747471      PMCID: PMC7398097          DOI: 10.1136/jitc-2020-001034

Source DB:  PubMed          Journal:  J Immunother Cancer        ISSN: 2051-1426            Impact factor:   13.751


Introduction

Immune-checkpoint inhibitors (ICIs) targeting cytotoxic T-lymphocyte-associated antigen-4 (CTLA-4), programmed cell death-1 (PD-1) and PD ligand 1 are today a standard of care in the treatment of several cancers. Initially approved for unresectable metastatic melanoma and non-small cell lung cancer, ICIs are now increasingly used to treat a high variety of solid-organ and hematological cancers. They are nevertheless associated with several immune-related (ir) disorders that can potentially involve every organ or system but gastrointestinal, dermatological, hepatic, endocrine and pulmonary toxicities predominate.1 Neurological ir adverse events (irAEs-N) are rare, with an overall incidence of 3.8% for anti-CTLA4 antibodies, 6.1% for anti-PD1 antibodies and 12.0% for the combination of them. However, the incidence of severe irAEs-N is below 1% for all types of treatment. Although rare irAEs-N require prompt recognition and treatment to avoid substantial morbidity.2 3 Several guidelines are available for the acute management of irAEs,4 but their long-term management is less standardized. Specifically, no clear data are available on the safety of resuming ICIs after an irAE. Some studies reported a 40%–60% rate of recurrence of the specific or distinct AE after the reintroduction of ICIs.5–8 As a consequence, only few patients with irAEs-N resume ICI treatment in current practice because of life-threatening risk related to neurological syndromes. Given the benefits of ICI therapy in patients with cancer, additional research is necessary to guide clinicians in practical decisions. Considering the heterogeneity of irAEs, even within neurological irAEs, recommendations for resuming ICIs should be specifically defined for each type of them. Herein, we report a retrospective series of seven consecutive patients who developed ir-meningitis with the aim of defining the long-term management and exploring the safety of ICIs reintroduction in these patients.

Methods

We collected the cases of ir-meningitis associated with ICIs in adult melanoma patients of Saint-Louis and Cochin hospitals, Paris, between October 1 2015 and October 31 2019. Saint-Louis patients were registered in MelBase, a French clinical database with biobank dedicated to the prospective follow-up of adult patients with advanced melanoma. MelBase protocol was registered in the NIH clinical trials database (NCT02828202). Written informed consent was obtained from all patients. Diagnosis was defined by the association of (1) a clinical pattern compatible with meningitis; (2) >8 lymphocytes/mm3 and/or protein level >0.45 g/L in cerebrospinal fluid (CSF), without bacteria/virus or tumor cells detection; (3) normal brain/spine imaging. Patients were included in this study if followed by a neurologist for at least 6 months after meningitis occurrence. The decision of ICI reintroduction was made on a case-by-case basis. We collected patients demographics and ir-meningitis characteristics. IrAEs were defined using the National Cancer Institute Common Terminology Criteria for Adverse Events, V.4.03.9 Duration of corticosteroids was collected, and patients were considered ‘off steroids’ when hydrocortisone equivalent dose was ≤30 mg/day. We also collected tumor evaluations according to the ir-response criteria10 at 3 months after the ICI readministration and at the latest follow-up.

Results

We, here, report seven consecutive cases of ir-meningitis. Table 1 summarizes demographic and clinical characteristics of patients. Median delay of meningitis onset after the first dose of ICI was 9 days (range: 6–95 days). CSF study displayed lymphocytic meningitis in six out of seven patients, and an isolated high protein level in patient 5, but lumbar puncture was realized 45 days after the onset of neurological symptoms in this patient. CSF microbiological studies were negatives in all patients and no evidence of tumor meningitis was found in CFS study or brain and spine MRI. MRI did not find any signs of myelitis nor encephalitis, and therefore, a diagnosis of isolated ir-meningitis was made.
Table 1

Demographic and clinic characteristics of patients

Patient 1Patient 2Patient 3Patient 4Patient 5Patient 6Patient 7
Sex, age (years)M, 71F, 29F, 51F, 46F, 64M, 27F, 20
Stage of melanomaBRAF statusIIIbV600E mutantIIIcWild typeIVV600E mutantIVWild typeIIcWilde typeIIIcWild typeIVV600E mutant
ICI regimen at the irAE-N onsetNivolumab3 mg/kgIpilimumab1 mg/kg+nivolumab3 mg/kgSpartalizumab400 mg/28 daysIpilimumab1 mg/kg+nivolumab3 mg/kgNivolumab3 mg/kgIpilimumab3 mg/kg+nivolumab1 mg/kgIpilimumab3 mg/kg+nivolumab1 mg/kg
Concomitant cancer treatment00Dabrafenib, Trametinib0000
No of ICI doses before irAE-N1142121
Delay of neurological symptoms onset from ICI onset (days)6695506917

F, female; ICI, immune-checkpoint inhibitor; irAE-N, neurological immune-related adverse event; M, male.

Demographic and clinic characteristics of patients F, female; ICI, immune-checkpoint inhibitor; irAE-N, neurological immune-related adverse event; M, male. After diagnosis of ir-meningitis, a steroid treatment (prednisone 1 mg/kg) was introduced in patients 1, 2, 4 and 6 (all with irAEs-N ≥grade 2), allowing a complete clinical recovery within 2 weeks. After 1-2 weeks of full dose, corticosteroids were gradually tapered until discontinuation after 6 weeks. The other three patients (all with grade 1 AEs) spontaneously improved within 3 weeks (table 2).
Table 2

Characteristics of ir-meningitis and management with steroids

Patient 1Patient 2Patient 3Patient 4Patient 5Patient 6Patient 7
Severity grade of meningitis3212121
SymptomsFever,confusion,partial seizure.Headache,nausea,photophobia.Headache,four limbs pain.Headache,vomiting.Headache,vomiting.Headache,fever.Fever,headache
Lumbar puncture
cells/mm3 40 (90% L)8 (100% L)19 (90% L)25 (90% L)09 (90% L)320 (90% L)
Protein level0.99 g/L0.30 g/L0.39 g/L0.43 g/L0.59 g/L0.54 g/L<0.45 g/L
Steroid treatment*
Initial dose1 mg/kg/day1 mg/kg/day01 mg/kg/day01 mg/kg0
Length at full dose7 days7 days7 days14 days
Length of tapering42 days42 days42 days42 days
Delay of complete recovery
From irAE-N onset18 days17 days10 days21 days65 days49 days10 days
From steroids onset2 days14 days2 days14 days
Other irAEs occurrenceNoneNoneNoneHypophysitis (gr. 2), diabetes (gr. 2), hepatitis (gr. 1)NoneHypophysitis (gr. 2), hepatitis (gr. 4), colitis (gr. 2) small fibers neuropathy (gr.1)None

*Prednisone equivalent doses.

irAE, immune-related adverse event; irAE-N, neurological immune-related adverse event; L, lymphocytes.

Characteristics of ir-meningitis and management with steroids *Prednisone equivalent doses. irAE, immune-related adverse event; irAE-N, neurological immune-related adverse event; L, lymphocytes. Given the favorable outcome of ir-meningitis, ICI treatment was reintroduced in four patients (cases 2, 3, 5, 7) after 4–54 days from irAE-N. For the other three patients, despite a quick recovery of meningitis, ICI was not resumed immediately because of the high grade of nAE (grade 3) in patient 1, and of multiple co-occurring non neurological irAEs in patients 4 and 6. These patients were followed by whole body imaging every 3 months and ICIs were reintroduced at time of disease progression. The rechallenge was well tolerated in six out of seven cases: no meningitis nor other irAEs occurred. Patient 3 developed a severe interstitial lung disease, without meningitis recurrence, leading to permanent discontinuation of ICI treatment (table 3). Table 3 shows the cancer status at 3 months from the rechallenge of ICIs and at the latest follow-up.
Table 3

Tolerance of ICI reintroduction

Patient 1Patient 2Patient 3Patient 4Patient 5Patient 6Patient 7
Delay of resumption of ICI after meningitis(days)37354241184(No ICI discontinuation)12619
ICI regimen at the rechallengeIpilimumab1 mg/kg+nivolumab3 mg/kgIpilimumab1 mg/kg+nivolumab3 mg/kgSpartalizumab400 mgNivolumab3 mg/kgNivolumab3 mg/kgSpartalizumab400 mg+ribociclib600 mg/dayNivolumab3 mg/kg
Steroid treatment at the time of ICI resumption*0.5 mg/kg/day000000
Meningitis recurrenceNoNoNoNoNoNoNo
Other irAEs occurrence at rechallenge with ICIsNoNoInterstitial lung disease (grade 3)NoNoNoNo
Cancer status at 3 months from rechallenge with ICIsPDPRPDPDPRPDPR
Cancer status at latest follow-up(months from rechallenge)Death caused by cancer progressionMaintained CR(32 months)Maintained PR(25 months)Death caused by cancer progressionMaintained PR(6 months)Death caused by cancer progressionMaintained PR(17 months)

*Prednisone equivalent doses.

CR, complete response; ICI, immune-checkpoint inhibitor; irAE, immune-related adverse event; PD, progression disease; PR, partial response.

Tolerance of ICI reintroduction *Prednisone equivalent doses. CR, complete response; ICI, immune-checkpoint inhibitor; irAE, immune-related adverse event; PD, progression disease; PR, partial response.

Discussion

A broad spectrum of neurological irAEs has been described in the literature, potentially involving all areas of the central and peripheral nervous system.2 11 Cases of ir-meningitis have been less frequently reported. However, their frequency is likely underestimated because their presentation can be paucisymptomatic. The occurrence of an unusual headache during ICI treatment should raise the suspicion of meningitis and lead to appropriate investigations. Notably, differential diagnosis with bacterial/viral meningitis and meningeal carcinomatosis must be considered in first place, hence lumbar puncture and brain/spine MRI with and without contrast generally lead to the correct diagnosis. As reported for other irAEs-N, we did not observe any exclusive association between ir-meningitis and a class of ICIs.2 8 Clinical signs of meningitis occurred early with a median delay of 9 days after the ICI onset and a median number of ICI cycles of 2, compared with 6 weeks and three cycles observed in all kinds of irAEs-N respectively.2 8 Ir-meningitis had a favorable evolution with a fast and full recovery in all patients. According to published recommendations,12 steroid treatment was introduced in more severe cases (grade ≥2) and maintained at full dose (prednisone 1 mg/kg/day) for one or 2 weeks depending on the clinical recovery of meningitis and then tapered over 6 weeks given the half-life of ICI drugs. The safety of ICI reintroduction after an irAE is still a matter of debate. Some studies showed a quite poor tolerance of resuming ICI after a severe irAE, reporting an occurrence of the same or a distinct AE in 40%–55% of patients.5–7 The risk of irAEs-N recurrence is likely similar to other ir-AEs, but, very few cases of reintroduction of ICIs after an irAE-N have been reported so far, probably because of concerns on potential severity and life-threatening risk associated to irAEs-N. Dubey et al reported a series of 10 patients retreated with ICIs after a severe irAEs-N. The irAE-N recurrence rate was 60% and the authors suggested a correlation with a short steroid treatment (less than 2 weeks) after the initial AE in these patients.8 Only few cases of ICI rechallenge after an ir-meningitis are reported in literature. Spain et al reported a melanoma patient with meningitis associated with ir-hepatitis. The rechallenge with the same regimen resulted in severe ir-colitis.13 Fellner et al reported another case of reintroduction of ICIs after meningitis related to ipilimumabnivolumab combination therapy. In this case, only nivolumab was resumed, with a good tolerance.14 In both cases, ICI drugs were reintroduced at the moment of cancer recurrence according to checkmate-067 trial results, in which 68% of patients who discontinued ICI treatment due to toxicity experienced a long response (median time of 13 months).15 In our series of seven consecutive patients, ICI treatment was early reintroduced in four patients (all with irAE-N grade ≤2), as soon as the meningitis symptoms had completely recovered. Tolerance of reintroduction was good in three out of four patients. One patient developed a severe non-neurological irAE (interstitial lung disease) leading to permanent discontinuation of ICI treatment. In the three other cases, ICI reintroduction was differed at the time of disease progression since ir-meningitis was more severe or associated with other irAEs. In cases of multiple irAEs, dual therapy was shifted to anti-PD1 monotherapy regimen. The reintroduction was well tolerated in all cases: no patients experienced a recurrent or new irAE.

Conclusions

Cases of meningitis related to ICIs are poorly described in literature. In our cases, the clinical course was favorable and steroids were not always required. In case of isolated ir-meningitis, an early reintroduction of ICI treatment at the same regimen appears to be safe, even in case of combination therapy (anti-CTLA-4/PD-1). On the contrary, a longer discontinuation of ICI drug (until disease progression) and a regimen shift from dual to monotherapy is recommended in case of multiple irAEs. We are aware that our study has some limitations since only one patient experienced a high grade ir-meningitis. A careful analysis of the risk/benefit ratio should be done on a case-by-case basis.
  15 in total

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Authors:  Barouyr Baroudjian; Dimitri Arangalage; Stefania Cuzzubbo; Baptiste Hervier; Celeste Lebbé; Gwenael Lorillon; Abdellatif Tazi; Gerard Zalcman; Mohamed Bouattour; Frédéric Lioté; Jean-François Gautier; Solenn Brosseau; Nelson Lourenco; Julie Delyon
Journal:  Expert Rev Anticancer Ther       Date:  2019-01-09       Impact factor: 4.512

Review 2.  Neurological adverse events associated with immune checkpoint inhibitors: Review of the literature.

Authors:  S Cuzzubbo; F Javeri; M Tissier; A Roumi; C Barlog; J Doridam; C Lebbe; C Belin; R Ursu; A F Carpentier
Journal:  Eur J Cancer       Date:  2017-01-05       Impact factor: 9.162

3.  Assessing cognitive function in patients treated with immune checkpoint inhibitors: A feasibility study.

Authors:  Stefania Cuzzubbo; Catherine Belin; Kader Chouahnia; Barouyr Baroudjian; Boris Duchemann; Ciprian Barlog; Giulia Coarelli; Renata Ursu; Elodie Poirier; Celeste Lebbe; Antoine F Carpentier
Journal:  Psychooncology       Date:  2018-04-19       Impact factor: 3.894

4.  Management of Immune-Related Adverse Events in Patients Treated With Immune Checkpoint Inhibitor Therapy: American Society of Clinical Oncology Clinical Practice Guideline.

Authors:  Julie R Brahmer; Christina Lacchetti; Bryan J Schneider; Michael B Atkins; Kelly J Brassil; Jeffrey M Caterino; Ian Chau; Marc S Ernstoff; Jennifer M Gardner; Pamela Ginex; Sigrun Hallmeyer; Jennifer Holter Chakrabarty; Natasha B Leighl; Jennifer S Mammen; David F McDermott; Aung Naing; Loretta J Nastoupil; Tanyanika Phillips; Laura D Porter; Igor Puzanov; Cristina A Reichner; Bianca D Santomasso; Carole Seigel; Alexander Spira; Maria E Suarez-Almazor; Yinghong Wang; Jeffrey S Weber; Jedd D Wolchok; John A Thompson
Journal:  J Clin Oncol       Date:  2018-02-14       Impact factor: 44.544

5.  Safety of resuming anti-PD-1 in patients with immune-related adverse events (irAEs) during combined anti-CTLA-4 and anti-PD1 in metastatic melanoma.

Authors:  M H Pollack; A Betof; H Dearden; K Rapazzo; I Valentine; A S Brohl; K K Ancell; G V Long; A M Menzies; Z Eroglu; D B Johnson; A N Shoushtari
Journal:  Ann Oncol       Date:  2018-01-01       Impact factor: 32.976

6.  Efficacy and toxicity of rechallenge with combination immune checkpoint blockade in metastatic melanoma: a case series.

Authors:  Lavinia Spain; Gerard Walls; Christina Messiou; Samra Turajlic; Martin Gore; James Larkin
Journal:  Cancer Immunol Immunother       Date:  2016-11-12       Impact factor: 6.968

7.  Guidelines for the evaluation of immune therapy activity in solid tumors: immune-related response criteria.

Authors:  Jedd D Wolchok; Axel Hoos; Steven O'Day; Jeffrey S Weber; Omid Hamid; Celeste Lebbé; Michele Maio; Michael Binder; Oliver Bohnsack; Geoffrey Nichol; Rachel Humphrey; F Stephen Hodi
Journal:  Clin Cancer Res       Date:  2009-11-24       Impact factor: 12.531

8.  Severe neurological toxicity of immune checkpoint inhibitors: growing spectrum.

Authors:  Divyanshu Dubey; William S David; Kerry L Reynolds; Donald F Chute; Nathan F Clement; Justine V Cohen; Donald P Lawrence; Meghan J Mooradian; Ryan J Sullivan; Amanda C Guidon
Journal:  Ann Neurol       Date:  2020-02-22       Impact factor: 10.422

9.  Evaluation of Readministration of Immune Checkpoint Inhibitors After Immune-Related Adverse Events in Patients With Cancer.

Authors:  Audrey Simonaggio; Jean Marie Michot; Anne Laure Voisin; Jérome Le Pavec; Michael Collins; Audrey Lallart; Geoffray Cengizalp; Aurore Vozy; Ariane Laparra; Andréa Varga; Antoine Hollebecque; Stéphane Champiat; Aurélien Marabelle; Christophe Massard; Olivier Lambotte
Journal:  JAMA Oncol       Date:  2019-09-01       Impact factor: 31.777

10.  Managing toxicities associated with immune checkpoint inhibitors: consensus recommendations from the Society for Immunotherapy of Cancer (SITC) Toxicity Management Working Group.

Authors:  I Puzanov; A Diab; K Abdallah; C O Bingham; C Brogdon; R Dadu; L Hamad; S Kim; M E Lacouture; N R LeBoeuf; D Lenihan; C Onofrei; V Shannon; R Sharma; A W Silk; D Skondra; M E Suarez-Almazor; Y Wang; K Wiley; H L Kaufman; M S Ernstoff
Journal:  J Immunother Cancer       Date:  2017-11-21       Impact factor: 13.751

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2.  Immune checkpoint inhibitor-induced aseptic meningitis and encephalitis: a case-series and narrative review.

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Journal:  Ther Adv Drug Saf       Date:  2021-03-29

Review 3.  Neurologic Toxicity of Immune Checkpoint Inhibitors: A Review of Literature.

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