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Volume 28, Number 3—March 2022
Research

Treatment Outcomes of Childhood Tuberculous Meningitis in a Real-World Retrospective Cohort, Bandung, Indonesia

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Author affiliations: Hasan Sadikin Hospital, Bandung, Indonesia (H.M. Nataprawira, N.A. Risan, D.A. Wulandari, S. Sudarwati); Universitas Padjadjaran, Bandung, Indonesia (H.M. Nataprawira, N.A. Risan, D.A. Wulandari, S. Sudarwati, R. Ruslami); University of Groningen, Groningen, the Netherlands (F. Gafar, J. Stevens); Children’s Hospital at Westmead, Sydney, New South Wales, Australia (B.J. Marais); University of Sydney, Sydney (B.J. Marais, J.-W.C. Alffenaar); Westmead Hospital, Sydney (J.-W.C. Alffenaar)

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Abstract

We retrospectively evaluated clinical features and outcomes in children treated for tuberculous meningitis (TBM) at Hasan Sadikin Hospital, Bandung, Indonesia, during 2011–2020. Among 283 patients, 153 (54.1%) were <5 years of age, and 226 (79.9%) had stage II or III TBM. Predictors of in-hospital death (n = 44 [15.5%]) were stage III TBM, hydrocephalus, male sex, low-income parents, seizures at admission, and lack of bacillus Calmette-Guérin vaccination. Predictors of postdischarge death (n = 18 [6.4%]) were hydrocephalus, tuberculoma, and lack of bacillus Calmette-Guérin vaccination. At treatment completion, 91 (32.1%) patients were documented to have survived, of whom 33 (36.3%) had severe neurologic sequelae and 118 (41.7%) had unknown outcomes. Predictors of severe neurologic sequelae were baseline temperature >38°C, stage III TBM, and baseline motor deficit. Despite treatment, childhood TBM in Indonesia causes substantial neurologic sequelae and death, highlighting the importance of improved early diagnosis, better tuberculosis prevention, and optimized TBM management strategies.

Tuberculosis (TB) is a major global health problem, and an estimated 1.2 million new pediatric cases and 230,000 deaths occurred in children <15 years of age in 2019 (1). Tuberculous meningitis (TBM) is the most severe manifestation of TB, leading to high rates of childhood TBM mortality, at an average of 19%, and neurodisability in >50% of survivors, even when treatment is provided (2). After infection with Mycobacterium tuberculosis, children <2 years of age are at the highest risk for progression to miliary TB and TBM, most likely because of their immature immune systems (3). Childhood and adolescent TB has historically been neglected (4,5); however, recently this condition has begun to gain priority as a focus of global collaborative efforts toward ending TB in children and adolescents (6).

The most important predictors of favorable outcome in childhood TBM are early diagnosis and immediate initiation of treatment (2). However, incomplete understanding of the pathogenesis, nonspecific symptoms, suboptimal performance of diagnostic tests, and the paucibacillary nature of the disease often result in a lengthy process of obtaining a definite diagnosis (7–9). Moreover, antimicrobial therapy as currently recommended by the World Health Organization (WHO) for the management of childhood TBM remains suboptimal (9,10) and most likely contributes to poor outcomes. Summary estimates of neurologic sequelae and death associated with childhood TBM have been described in a meta-analysis, but predictors of these poor outcomes other than diagnosis in the most advanced disease stage were reported to have high heterogeneities across studies (2). Data on clinical features and treatment outcomes of childhood TBM from large cohorts of children outside of South Africa are limited (11–13). In settings in Indonesia, a few small studies have reported clinical outcomes of childhood TBM (14–16), but none have explored factors associated with the outcomes. This characterization is clinically relevant, enabling early and targeted interventions to optimize care in this vulnerable population. In this context, our study aimed to assess clinical features of childhood TBM and to evaluate factors associated with poor outcomes, including in-hospital death, postdischarge death, and neurologic sequelae.

Methods

Patients and Setting

This real-world retrospective cohort study consecutively included children <15 years of age treated for TBM at the Department of Child Health of Hasan Sadikin Hospital, a national tertiary teaching hospital in Bandung, Indonesia, during January 2011–December 2020. The study was approved by the Independent Ethics Committee of Hasan Sadikin Hospital (approval no. LB.02.01/X.6.5/91/2021). Because of the retrospective nature of the study design, the Ethics Committee waived the need for written informed consent.

Diagnosis

We established TBM diagnosis on the basis of clinical, laboratory, and radiologic findings (17), combining medical history, physical and clinical examinations, tuberculin skin test, chest radiography, cerebrospinal fluid (CSF) analysis, and neuroimaging by using computed tomography (CT) scan. We performed microbiologic examination of CSF and non-CSF samples, including smear microscopy for acid-fast bacilli (AFB), culture for M. tuberculosis, and Xpert MTB/RIF assay, depending on sample availability. We assessed diagnostic certainty of definite, probable, or possible TBM by using uniform case definition criteria for TBM research (18) (Appendix Table 1). We presumed that patients had drug-susceptible TBM unless drug resistance was proven in Xpert MTB/RIF or drug-susceptibility testing. We excluded TBM patients with drug-resistant TB from the study.

Treatment

We based treatment regimens on the 2010 WHO guidelines in accordance with the Indonesian Paediatric Society guidelines for TBM treatment in children, consisting of daily isoniazid at 10 mg/kg (range 7–15 mg/kg), rifampin at 15 mg/kg (range 10–20 mg/kg), pyrazinamide at 35 mg/kg (range 30–40 mg/kg), and ethambutol at 20 mg/kg (range 15–25 mg/kg) for a 2-month intensive phase, followed by a 10-month continuation phase with isoniazid and rifampin at the same doses (17,19). We administered all anti-TB drugs orally as fixed-dose combination or single-drug formulation tablets, where available. Patients received facility-based directly observed therapy (DOT) during hospitalization. After discharge, patients received home-based DOT under the supervision of parents or other family members. Most patients received adjunctive oral prednisone (2–4 mg/kg/d) for the first 4–8 weeks, tapered according to the national guidelines (17). We treated patients with increased intracranial pressure with hypertonic saline or mannitol 20% (0.5–1 g/kg) every 8 hours. We performed ventriculoperitoneal shunt or extraventricular drain placements in patients with obstructive hydrocephalus, at the discretion of the neurosurgical team.

Data Collection

We collected individual patient data from hospital registry in a predefined form and appropriately deidentified the data before analysis. These data were demographic information (age, sex, parents’ education and income, area of living, and length of hospital admission); medical history (HIV infection, bacillus Calmette-Guérin [BCG] vaccination, and TB contact history); clinical characteristics (symptoms of TBM, vital signs, nutritional status, physical and neurologic examinations, tuberculin skin test, Glasgow coma scale [GCS], and TBM staging); laboratory findings (CSF analysis, AFB microscopy, mycobacterial culture, and Xpert MTB/RIF test); radiographic findings (chest radiograph and neuroimaging); and other supporting data (corticosteroid therapy and in-hospital complications).

Definitions

We developed operational definitions for all variables (Appendix Table 2). We defined definite TBM as microbiologic confirmation of CSF and probable TBM as a total diagnostic score of >12 when neuroimaging was available or ≥10 when neuroimaging was unavailable. We defined possible TBM as a total score of 6–11 when neuroimaging was available or 6–9 when neuroimaging was unavailable (18). We classified TBM staging according to the modified British Medical Research Council grading system (20), as follows: stage I, GCS 15 without focal neurologic deficit; stage II, GCS 11–14, or 15 with focal neurologic deficit; and stage III, GCS <10. Patients with known BCG vaccination included those who had a documented vaccination history at hospital admission or had a BCG scar in the deltoid region of the upper arm. Motor deficits included hemiparesis, quadriparesis, and diplegia. Other neurologic deficits were signs of upper motor neuron lesion and cranial nerve palsies. We performed motor, hearing, visual, and neurodevelopmental function assessments at treatment completion as indicated by the attending physicians (Appendix).

Outcomes

Outcomes of hospitalization were recovery (with or without disability), nonrecovery (persistent vegetative state and discharge against medical advice), and death. After 12 months of treatment, we reported the following outcomes: treatment completion, death, and lost to follow-up (LTFU; i.e., patients who stopped treatment for >2 consecutive months). “Not evaluated” or “unknown treatment outcome” categories were patients who were transferred back to regional public hospitals or community health clinics for follow-up after discharge. We defined survival as being alive at treatment completion and neurologic sequelae as any motor, hearing, visual, or neurodevelopmental impairment that appeared during the illness and persisted through treatment completion.

Data Analysis

We evaluated associations of patient characteristics with poor outcomes. First, we compared patients who died during hospitalization (in-hospital death) with those who had recovered at the time of discharge; this definition excluded persistent vegetative state and discharge against medical advice. Second, we compared patients who died after discharge (postdischarge death) with those who completed treatment, regardless of their sequelae status; this definition excluded LTFU and unknown outcomes. Third, we compared survivors with neurologic sequelae with those without sequelae; this definition excluded death, LTFU, and unknown outcomes.

We used Cox proportional-hazards regression analysis to assess predictors of in-hospital death. We calculated time to death on the basis of length of stay by subtracting day of admission from day of death. Most patients were discharged within 2 months of hospitalization; in this case, we assumed that recovering patients (with or without disability) discharged before 2 months were alive until the end of 2 months, and thus we censored these patients in the Cox regression analysis. Because the time to death after discharge was not recorded, we assessed associated factors with postdischarge death and neurologic sequelae by using logistic regression analysis. We adjusted our multivariate models for age, sex, and TBM staging, and completed the models with variables showing a trend toward association in univariate analysis. We selected these variables by using backward deletion, and the final models retained all additional variables with a p value <0.1. For logistic regression analysis, we evaluated the goodness-of-fit of the final models by using Hosmer-Lemeshow test and performance by the area under the receiver operating characteristic curve. For Cox regression analysis, we checked proportional hazards assumption using Kaplan-Meier curve before fitting the model, and using log-minus-log survival curve after fitting the model. We used adjusted hazard ratios (aHRs) for Cox regression models and adjusted odds ratios (aORs) for logistic regression models, as well as 95% CIs, to estimate the association between explanatory variables and outcomes. We defined statistical significance as p<0.05. We performed all analyses by using IBM SPSS Statistics 26.0 (https://www.ibm.com).

Results

Clinical Characteristics

During the study period (2011–2020), 286 children with TBM were treated at Hasan Sadikin Hospital; 3 patients with rifampin-resistant TB were excluded. No patients had concurrent bacterial meningitis. Among 283 included patients, 150 (53.0%) were boys, 153 (54.1%) were <5 years of age, 183 (64.7%) were malnourished, 226 (79.9%) had stage II or III TBM, and 51 (18.0%) had definite TBM. At admission, most patients had history of fever (88.3%), decreased consciousness (74.6%), and seizures (55.0%); the next most common signs and symptoms were weight loss (37.6%), persistent cough (33.7%), muscle weakness (26.3%), and severe headache (21.9%). These signs and symptoms had existed for >5 days before admission in 87.0% of patients (Table 1). We stratified manifestations by disease staging (Appendix Table 3).

In CSF analysis, most patients had pleocytosis (>10 cells/µL, 76.8%), and lymphocytic predominance (>50%, 81.8%), followed by a low CSF-to-plasma glucose ratio (<0.5, 54.8%), elevated protein level (>100 mg/dL, 51.8%), and hypoglycorrhachia (<40 mg/dL, 41.6%). M. tuberculosis susceptible to rifampin was identified by Xpert MTB/RIF assay in 48 (34.3%) of 140 CSF samples and in 76 (33.9%) of 224 non-CSF samples. In neuroimaging, most patients had basal meningeal enhancement (52.4%), followed by hydrocephalus (41.2%), tuberculoma (12.4%), and infarct (10.0%) (Table 2). Among 103 patients with hydrocephalus, 45 (43%) received neurosurgical intervention: 44 (97.8%) ventriculoperitoneal shunt and 1 (2.2%) extraventricular drain.

For in-hospital complications, 106 (37.5%) of the 283 patients had motor disorders, 37 (13.1%) had neurodevelopmental delay, 19 (6.7%) had epileptic seizures, 17 (6.0%) had visual impairment, 12 (4.2%) had hearing impairment, and 27 (9.5%) had anti-TB drug-induced hepatotoxicity. Adjunctive oral corticosteroid was administered to 262 (92.6%) of patients. In addition, 1 of the patients (a 6-month-old boy with stage II TBM) had severe acute respiratory syndrome coronavirus 2 coinfection (Appendix).

In-Hospital Death

Upon discharge, 231 (81.6%) of 283 patients had recovered (with or without disability), 3 (1.1%) had a persistent vegetative state, and 5 (1.8%) were discharged against medical advice. The remaining 44 (15.5%) died; median time to death was 7 days (interquartile range 3–13 days) after admission (Table 3).

Figure

Survival curves for in-hospital death in children treated for tuberculous meningitis at Hasan Sadikin Hospital, Bandung, Indonesia, 2011–2020. A) Known bacillus Calmette-Guérin (BCG) vaccination status (yes/no); B) tuberculous meningitis stage (I–III); C) radiographic evidence of hydrocephalus (yes/no); D) presence of seizures at hospital admission (yes/no).

Figure. Survival curves for in-hospital death in children treated for tuberculous meningitis at Hasan Sadikin Hospital, Bandung, Indonesia, 2011–2020. A) Known bacillus Calmette-Guérin (BCG) vaccination status (yes/no); B) tuberculous meningitis stage...

We performed univariate (Appendix Table 4) and multivariate (Table 4) analyses of risk for in-hospital death. In multivariate analysis, factors associated with increased risk were stage III TBM (aHR 5.96 [95% CI 1.39–25.58]), hydrocephalus (aHR 2.32 [95% CI 1.13–4.79]), male sex (aHR 2.10 [95% CI 1.09–4.05]), low-income parents (aHR 2.59 [95% CI 1.06–6.31]), seizures on admission (aHR 1.96 [95% CI 1.01–3.82]), and unknown BCG vaccination (aHR 1.97 [95% CI 1.03–3.76]). Among children <5 years of age, known history of TB contact was associated with an increased risk for in-hospital death (aHR 2.42 [95% CI 1.06–5.50]), adjusted for age, sex, and TBM staging. We charted Kaplan-Meier curves for several risk groups for in-hospital death (Figure).

Postdischarge Death

After the 12-month follow-up, 272 (96.1%) of 283 patients were evaluated for treatment outcomes, and 11 (3.9%) in ongoing treatment who started taking anti-TB drugs in late 2020 were excluded from further analysis. Among the 272 patients, 91 (33.5%) completed treatment, 1 (0.4%) was LTFU, and 62 (22.8%) died, including 18 (6.6%) who died after discharge; 118 (43.4%) had unknown outcomes (Table 3).

We performed univariate (Appendix Table 5) and multivariate (Table 5) analyses of odds for postdischarge death. Multivariate analysis identified that patients with unknown BCG vaccination status (aOR 5.38 [95% CI 1.07–27.07]) and those with clinical findings during hospitalization such as hydrocephalus (aOR 18.97 [95% CI 2.68–134.38]) and tuberculoma (aOR 8.78 [95% CI 1.10–70.39]) had increased odds of postdischarge death. Among patients with hydrocephalus, the absence of neurosurgical intervention was associated with increased odds of postdischarge death (aOR 11.06 [95% CI 1.61–76.12]), adjusted for age, sex, and TBM staging.

Neurologic Sequelae

Among 91 survivors who completed treatment, 58 (63.7%) had good recovery without neurologic sequelae and 33 (36.3%) had severe neurologic sequelae (Table 3). Of patients with severe neurologic sequelae, 22 (66.7%) had motor disorders, 9 (27.3%) had epileptic seizures, 7 (21.2%) had neurodevelopmental delay, 3 (9.1%) had visual impairment, and 3 (9.1%) had hearing impairment. Neurologic sequelae were observed in 23% of patients diagnosed with TBM at stage I, 31% at stage II, and 58% at stage III.

We performed univariate (Appendix Table 6) and multivariate (Table 6) analyses of odds for neurologic sequelae. In multivariate analysis, factors associated with higher odds of severe neurologic sequelae were baseline temperature >38°C (aOR 6.68 [95% CI 1.55–28.85]), stage III TBM (aOR 5.65 [95% CI 1.21–26.43]), and motor deficits at baseline (aOR 3.64 [95% CI 1.19–11.16]).

Discussion

We present important information from Indonesia about the high rates of neurologic sequelae and death in children with TBM, even when standard therapy has been provided. In TBM, treatment response is often judged by early morbidity, mortality, and relapse rates (21). Our overall case-fatality rate for childhood TBM (22.8%) is within the global estimates reported in a recent meta-analysis (19.3% [95% CI 14.0%–26.1%]) (2) but is lower than that reported in the same setting during 2007–2010 (34.4%) (14). The high proportion of unknown treatment outcomes in this study (43%) is unfortunate but comparable to a previous report in our hospital during 2007–2010 (45%), even after phone calls and home visits had been made (14). Considering the increased likelihood of death in patients with unknown outcomes after hospital discharge, the case-fatality rate recorded is probably an underestimate.

A diagnosis of TBM alone has been associated with an increased risk for childhood death compared with other types of TB (22), and this risk may be exacerbated by specific risk factors identified in this study. TBM diagnosis in stage II or III, hydrocephalus, and seizures are not surprising risk factors for death because they reflect more advanced disease. Neurosurgical complications (e.g., shunt blockage or infections) may have contributed to poor outcomes, but we believe the effect was minimal because the postdischarge death rate was significantly reduced with neurosurgery. The association of tuberculoma on baseline CT with postdischarge death might be related to a paradoxical worsening of tuberculomas during treatment (23). For male sex and low-income parents, their associations with in-hospital death are unclear but could be related to biologic factors (particularly for sex differences) or largely attributed to socioeconomic and cultural determinants (24).

This study confirms that TBM mainly affects young children (8), illustrated by 54% of our patients being <5 years of age. The high proportions of altered consciousness and seizures at admission suggest that these symptoms are the main reasons for clinicians to suspect childhood TBM. This finding raises important issues about training of healthcare providers to improve their ability to recognize and diagnose the disease (25). In addition, increasing community awareness of the signs and symptoms of TBM by including enhanced messaging in existing TB advocacy materials has the potential to improve early recognition of childhood TBM (25).

The difficulty of early diagnosis is confirmed by the fact that nearly 80% of our patients had stage II or III TBM at admission. This high proportion of patients with advanced disease at admission is supported by various studies from high TB incidence countries in Asia and Africa (11,14,26,27), and only slightly reduced in low TB incidence countries in Europe, where 66% of the patients have stage II or III TBM at admission (28). In many cases, nonspecific symptoms such as fever, headache, and vomiting are often wrongly interpreted, and other systemic symptoms such as cough, weight loss, and night sweats may be suggestive of TB but are also nonspecific (18).

The high risk for death in patients with unknown BCG vaccination status highlights the importance of better TB prevention. In young children, BCG vaccination has consistently shown protection against miliary TB and TBM (29–31) for >10 years after vaccination (29). The global shortage of BCG vaccine since 2013, particularly in countries where it was procured through UNICEF (32), has led to an alarming increase in the number of hospital admissions for childhood TBM (33). In Indonesia, where BCG vaccine is recommended at birth for all infants and annual coverage has been an estimated ≈90% since 2011 (34), this shortage has also been experienced, although the vaccine supply depends largely on domestic production by Biofarma, a state-owned vaccine manufacturer (32). In addition, among children with prolonged exposure to M. tuberculosis, protection with BCG vaccination alone is unlikely to be sufficient. Without early initiation of preventive therapy, the risk for TB disease development among exposed young children and infants is very high (35), but data on preventive treatment in our patients with known TB contact history were unavailable. Taken together, aside from improving BCG vaccination coverage, it is important to reduce TB transmission in children through contact investigation, coupled with preventive therapy among exposed children.

Neurologic sequelae occurred mostly in our patients who had stage III TBM at admission (58%), a higher rate than for those in stage I (23%) and II (31%). A meta-analysis in children with TBM confirms this upward trend with pooled estimates of 27% in stage I, 41% in stage II, and 70% in stage III (2). Recent studies also reported an increase in neurologic sequelae among children with stage II or III TBM (36,37). In children in South Africa with TBM, severe neurologic sequelae and death were significantly associated with cerebral infarctions (11); we did not find this association in our study. A high proportion of patients had hemiparesis or quadriparesis at admission in this study (55%), comparable to that reported in South Africa (62.1%) (11), but few patients had cerebral infarcts on brain CT (10%). This finding is difficult to explain but is likely attributable to the low sensitivity of early infarct detection with noncontrast CT as commonly used in the study.

Given the substantial levels of neurologic sequelae and death associated with childhood TBM, the current standard care for childhood TBM clearly remains suboptimal. New diagnostic strategies should be tested in future clinical trials because of the poor sensitivity, specificity, or both of available laboratory and clinical diagnostic tools (38). For TBM treatment, future research should explore the use of intensified antimicrobial therapy that contains high-dose rifampin and other anti-TB drugs with better CSF penetration and bactericidal activity (39). On the basis of observational data among children in South Africa, a 6-month intensified TBM treatment regimen with isoniazid, rifampin, and ethionamide at 20 mg/kg/day and pyrazinamide at 40 mg/kg/day was reported to be safe and effective, with lower case-fatality rates ranging from 4%–14% (11,12,40). This short-course, high-dose therapy has recently been added by WHO as an alternative treatment option for childhood TBM (41). Suboptimal plasma and CSF concentrations with standard doses of oral rifampin at 10–20 mg/kg/day in children with TBM have also been reported in recent pharmacokinetic studies (42,43), advocating the use of higher rifampin doses with further efficacy and safety evaluations.

Minimizing damaging immunologic responses leading to neurologic complications by using antiinflammatory drugs such as aspirin, thalidomide, and specific tumor necrosis factor α antibodies (e.g., infliximab) also warrants further investigations (10,44–46), particularly for paradoxical TBM reactions and potentially also for TBM in general. There is no evidence that corticosteroids (the mainstay of host-directed therapy) reduce neurologic sequelae although they do improve the TBM survival rate (47). Therefore, optimization of anti-TB drug dosing and consideration of immunomodulatory therapy beyond corticosteroids are required to improve childhood TBM treatment outcomes (9,46). Moreover, understanding the disease pathogenesis pathways of childhood TBM, particularly in the cerebral inflammatory response, is likely to offer valuable insights into potential targets for new treatment interventions (48,49).

The main limitation of our study is that, although most of the essential information recommended for TBM research was available (50), the retrospective nature of the study did not provide us with complete records on all key variables, especially longer-term outcome. Our dataset did not contain information on the drug-susceptibility pattern of the source case and was unable to reliably distinguish a contact history with an infectious drug-susceptible or drug-resistant TB case. This limitation may have led to underdiagnosis of drug-resistant TB disease, resulting in inappropriate antimicrobial therapy that may have contributed to poor outcomes. However, drug-resistance rates are not known to be high in the study population, an estimated 2.4% of multidrug-resistant TB among new cases in Indonesia (1), limiting the likely effect of inappropriate treatment of drug-resistant disease. In addition, the frequency of total neurologic sequelae at treatment completion might be underestimated in this study, given that mild to moderate sequelae were not tested or recorded in the database. Despite its limitations, this study provides one of the largest child TBM cohorts ever described globally outside of South Africa (11), and includes a wide range of variables in the analysis.

In conclusion, childhood TBM in Indonesia causes substantial neurologic sequelae and death, despite standard treatment. Several predictors of in-hospital death, postdischarge death, and neurologic sequelae have been identified for further development of early and tailored interventions to optimize care in this population. This study emphasizes the importance of improved early diagnosis, better TB prevention beyond BCG vaccination, and optimizing TBM management strategies, including antimicrobial and supportive therapy.

Dr. Nataprawira is a professor of pediatrics at the Universitas Padjadjaran and Hasan Sadikin Hospital. Her primary research interests include pediatric respirology, particularly tuberculosis. Mr. Gafar is a PhD student at the University of Groningen. His primary research interests include the epidemiology and pharmacotherapy of pediatric tuberculosis.

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Acknowledgments

We thank the director of Hasan Sadikin Hospital and head of the Department of Child Health of Hasan Sadikin Hospital for accommodating the study. We also thank Raisa Moeis for helping with data checking.

This work was supported by the Academic Leadership Grant of the Universitas Padjadjaran (grant no. 4851/UN6.C/LT/2018) awarded to H.M.N. The funding organization was in no way involved in study design or conception, writing or reviewing of the manuscript, and decision to submit the manuscript for publication.

H.M.N. was the principal investigator. H.M.N., R.R., N.A.R., and F.G. contributed to conception and design of the study. H.M.N. contributed to data collection, whereas H.M.N. and F.G. contributed to data cleaning. F.G. performed data analysis and created tables and figures. H.M.N., F.G., N.A.R., D.A.W., S.S., B.J.M., J.S., J.W.C.A., and R.R. interpreted the results. F.G. drafted the manuscript under the supervision of H.M.N. and J.W.C.A. All authors critically revised the manuscript for important intellectual content and approved the final version of the manuscript before submission for publication.

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References

  1. World Health Organization. Global tuberculosis report 2020. 2020 [cited 2021 Dec 28]. https://www.who.int/publications/i/item/9789240013131
  2. Chiang  SS, Khan  FA, Milstein  MB, Tolman  AW, Benedetti  A, Starke  JR, et al. Treatment outcomes of childhood tuberculous meningitis: a systematic review and meta-analysis. Lancet Infect Dis. 2014;14:947–57. DOIPubMedGoogle Scholar
  3. Marais  BJ, Gie  RP, Schaaf  HS, Hesseling  AC, Obihara  CC, Starke  JJ, et al. The natural history of childhood intrathoracic tuberculosis—a critical review of the pre-chemotherapy literature. Int J Tuberc Lung Dis. 2004;8:392–402.PubMedGoogle Scholar
  4. García-Basteiro  AL, Schaaf  HS, Diel  R, Migliori  GB. Adolescents and young adults: a neglected population group for tuberculosis surveillance. Eur Respir J. 2018;51:1800176. DOIPubMedGoogle Scholar
  5. Marais  BJ, Amanullah  F, Gupta  A, Becerra  MC, Snow  K, Ngadaya  E, et al. Tuberculosis in children, adolescents, and women. Lancet Respir Med. 2020;8:335–7. DOIPubMedGoogle Scholar
  6. World Health Organization. Roadmap towards ending TB in children and adolescents, second edition [cited 2021 Dec 28]. https://apps.who.int/iris/bitstream/handle/10665/274374/9789241514668-eng.pdf
  7. Wilkinson  RJ, Rohlwink  U, Misra  UK, van Crevel  R, Mai  NTH, Dooley  KE, et al.; Tuberculous Meningitis International Research Consortium. Tuberculous meningitis. Nat Rev Neurol. 2017;13:581–98. DOIPubMedGoogle Scholar
  8. van Toorn  R, Solomons  R. Update on the diagnosis and management of tuberculous meningitis in children. Semin Pediatr Neurol. 2014;21:12–8. DOIPubMedGoogle Scholar
  9. Hill  J, Marais  B. Improved treatment for children with tuberculous meningitis: acting on what we know. Arch Dis Child. 2022;107:68–9. DOIPubMedGoogle Scholar
  10. Huynh  J, Thwaites  G, Marais  BJ, Schaaf  HS. Tuberculosis treatment in children: The changing landscape. Paediatr Respir Rev. 2020;36:33–43.PubMedGoogle Scholar
  11. van Well  GTJ, Paes  BF, Terwee  CB, Springer  P, Roord  JJ, Donald  PR, et al. Twenty years of pediatric tuberculous meningitis: a retrospective cohort study in the western cape of South Africa. Pediatrics. 2009;123:e1–8. DOIPubMedGoogle Scholar
  12. van Toorn  R, Schaaf  HS, Laubscher  JA, van Elsland  SL, Donald  PR, Schoeman  JF. Short intensified treatment in children with drug-susceptible tuberculous meningitis. Pediatr Infect Dis J. 2014;33:248–52. DOIPubMedGoogle Scholar
  13. Yaramiş  A, Gurkan  F, Elevli  M, Söker  M, Haspolat  K, Kirbaş  G, et al. Central nervous system tuberculosis in children: a review of 214 cases. Pediatrics. 1998;102:E49. DOIPubMedGoogle Scholar
  14. Nataprawira  HM, Ruslianti  V, Solek  P, Hawani  D, Milanti  M, Anggraeni  R, et al. Outcome of tuberculous meningitis in children: the first comprehensive retrospective cohort study in Indonesia. Int J Tuberc Lung Dis. 2016;20:909–14. DOIPubMedGoogle Scholar
  15. Faried  A, Ramdan  A, Arifin  MZ, Nataprawira  HM. Characteristics and surgical outcomes of tuberculous meningitis and of tuberculous spondylitis in pediatric patients at Dr. Hasan Sadikin Hospital, Bandung: a single center experience. Interdiscip Neurosurg Adv Tech Case Manag. 2018;11:37–40.
  16. Faried  A, Putra  SPS, Suradji  EW, Trianto , Akbar  RR, Nugraheni  NK, et al. Characteristics and outcomes of pediatric tuberculous meningitis patients with complicated by hydrocephalus with or without tuberculoma at Regional Public Hospital Teluk Bintuni, West Papua, Indonesia. Interdiscip Neurosurg. 2020;19:100609. DOIGoogle Scholar
  17. Rahajoe  NN, Nawas  A, Setyanto  DB, Kaswandani  N, Triasih  R, Indawati  W, et al. Buku petunjuk teknis manajemen dan tatalaksana TB anak [National guideline on the management of tuberculosis in children]. Ministry of Health of the Republic of Indonesia. Jakarta (Indonesia): Ministry of Health of the Republic of Indonesia; 2016.
  18. Marais  S, Thwaites  G, Schoeman  JF, Török  ME, Misra  UK, Prasad  K, et al. Tuberculous meningitis: a uniform case definition for use in clinical research. Lancet Infect Dis. 2010;10:803–12. DOIPubMedGoogle Scholar
  19. World Health Organization. Guidance for national tuberculosis programmes on the management of tuberculosis in children (2nd edition). World Health Organization; 2014 [cited 2022 Feb 5]. https://www.who.int/publications/i/item/9789241548748
  20. Thwaites  GE, Nguyen  DB, Nguyen  HD, Hoang  TQ, Do  TTO, Nguyen  TCT, et al. Dexamethasone for the treatment of tuberculous meningitis in adolescents and adults. N Engl J Med. 2004;351:1741–51. DOIPubMedGoogle Scholar
  21. Donald  PR. The chemotherapy of tuberculous meningitis in children and adults. Tuberculosis (Edinb). 2010;90:375–92. DOIPubMedGoogle Scholar
  22. Gafar  F, Van’t Boveneind-Vrubleuskaya  N, Akkerman  OW, Wilffert  B, Alffenaar  JC. Nationwide analysis of treatment outcomes in children and adolescents routinely treated for tuberculosis in the Netherlands. Eur Respir J. 2019;54:1901402. DOIPubMedGoogle Scholar
  23. Kalita  J, Prasad  S, Misra  UK. Predictors of paradoxical tuberculoma in tuberculous meningitis. Int J Tuberc Lung Dis. 2014;18:486–91. DOIPubMedGoogle Scholar
  24. Chidambaram  V, Tun  NL, Majella  MG, Ruelas Castillo  J, Ayeh  SK, Kumar  A, et al. Male sex is associated with worse microbiological and clinical outcomes following tuberculosis treatment: a retrospective cohort study, a systematic review of the literature, and meta-analysis. Clin Infect Dis. 2021;73:1580–8. DOIPubMedGoogle Scholar
  25. Basu Roy  R, Bakeera-Kitaka  S, Chabala  C, Gibb  DM, Huynh  J, Mujuru  H, et al. Defeating paediatric tuberculous meningitis: applying the WHO “defeating meningitis by 2030: global roadmap.”. Microorganisms. 2021;9:857. DOIPubMedGoogle Scholar
  26. Maree  F, Hesseling  AC, Schaaf  HS, Marais  BJ, Beyers  N, van Helden  P, et al. Absence of an association between Mycobacterium tuberculosis genotype and clinical features in children with tuberculous meningitis. Pediatr Infect Dis J. 2007;26:13–8. DOIPubMedGoogle Scholar
  27. Rohlwink  UK, Donald  K, Gavine  B, Padayachy  L, Wilmshurst  JM, Fieggen  GA, et al. Clinical characteristics and neurodevelopmental outcomes of children with tuberculous meningitis and hydrocephalus. Dev Med Child Neurol. 2016;58:461–8. DOIPubMedGoogle Scholar
  28. Basu Roy  R, Thee  S, Blázquez-Gamero  D, Falcón-Neyra  L, Neth  O, Noguera-Julian  A, et al.; ptbnet TB Meningitis Study Group. Performance of immune-based and microbiological tests in children with tuberculosis meningitis in Europe: a multicentre Paediatric Tuberculosis Network European Trials Group (ptbnet) study. Eur Respir J. 2020;56:1902004. DOIPubMedGoogle Scholar
  29. Abubakar  I, Pimpin  L, Ariti  C, Beynon  R, Mangtani  P, Sterne  JA, et al. Systematic review and meta-analysis of the current evidence on the duration of protection by bacillus Calmette-Guérin vaccination against tuberculosis. [v–vi.] [v–vi.]. Health Technol Assess. 2013;17:1–372, v–vi. DOIPubMedGoogle Scholar
  30. Gafar  F, Ochi  T, Van’t Boveneind-Vrubleuskaya  N, Akkerman  OW, Erkens  C, van den Hof  S, et al. Towards elimination of childhood and adolescent tuberculosis in the Netherlands: an epidemiological time-series analysis of national surveillance data. Eur Respir J. 2020;56:2001086. DOIPubMedGoogle Scholar
  31. Trunz  BB, Fine  P, Dye  C. Effect of BCG vaccination on childhood tuberculous meningitis and miliary tuberculosis worldwide: a meta-analysis and assessment of cost-effectiveness. Lancet. 2006;367:1173–80. DOIPubMedGoogle Scholar
  32. Cernuschi  T, Malvolti  S, Nickels  E, Friede  M. Bacillus Calmette-Guérin (BCG) vaccine: A global assessment of demand and supply balance. Vaccine. 2018;36:498–506. DOIPubMedGoogle Scholar
  33. du Preez  K, Seddon  JA, Schaaf  HS, Hesseling  AC, Starke  JR, Osman  M, et al. Global shortages of BCG vaccine and tuberculous meningitis in children. Lancet Glob Health. 2019;7:e28–9. DOIPubMedGoogle Scholar
  34. World Health Organization. Immunization Indonesia 2021 country profile. 2021 [cited 2021 Dec 28]. https://www.who.int/immunization/monitoring_surveillance/data/idn.pdf
  35. Martinez  L, Cords  O, Horsburgh  CR, Andrews  JR, Acuna-Villaorduna  C, Ahuja  SD, et al.; Pediatric TB Contact Studies Consortium. The risk of tuberculosis in children after close exposure: a systematic review and individual-participant meta-analysis. Lancet. 2020;395:973–84. DOIPubMedGoogle Scholar
  36. Bang  ND, Caws  M, Truc  TT, Duong  TN, Dung  NH, Ha  DTM, et al. Clinical presentations, diagnosis, mortality and prognostic markers of tuberculous meningitis in Vietnamese children: a prospective descriptive study. BMC Infect Dis. 2016;16:573. DOIPubMedGoogle Scholar
  37. Thee  S, Basu Roy  R, Blázquez-Gamero  D, Falcón-Neyra  L, Neth  O, Noguera-Julian  A, et al.; ptbnet TB Meningitis Study Group. Treatment and outcome in children with tuberculous meningitis - a multi-centre Paediatric Tuberculosis Network European Trials Group study. Clin Infect Dis. 2021;ciab982; Epub ahead of print. DOIPubMedGoogle Scholar
  38. Boyles  TH, Lynen  L, Seddon  JA; Tuberculous Meningitis International Research Consortium. Decision-making in the diagnosis of tuberculous meningitis. Wellcome Open Res. 2020;5:11. DOIPubMedGoogle Scholar
  39. Cresswell  FV, Te Brake  L, Atherton  R, Ruslami  R, Dooley  KE, Aarnoutse  R, et al. Intensified antibiotic treatment of tuberculosis meningitis. Expert Rev Clin Pharmacol. 2019;12:267–88. DOIPubMedGoogle Scholar
  40. Donald  PR, Schoeman  JF, Van Zyl  LE, De Villiers  JN, Pretorius  M, Springer  P. Intensive short course chemotherapy in the management of tuberculous meningitis. Int J Tuberc Lung Dis. 1998;2:704–11.PubMedGoogle Scholar
  41. World Health Organization. Rapid communication on updated guidance on the management of tuberculosis in children and adolescents [cited 2021 Dec 28]. https://www.who.int/publications/i/item/9789240033450
  42. Ruslami  R, Gafar  F, Yunivita  V, Parwati  I, Ganiem  AR, Aarnoutse  RE, et al. Pharmacokinetics and safety/tolerability of isoniazid, rifampicin and pyrazinamide in children and adolescents treated for tuberculous meningitis. Arch Dis Child. 2022;107:70–7. DOIPubMedGoogle Scholar
  43. Panjasawatwong  N, Wattanakul  T, Hoglund  RM, Bang  ND, Pouplin  T, Nosoongnoen  W, et al. Population pharmacokinetic properties of antituberculosis drugs in Vietnamese children with tuberculous meningitis. Antimicrob Agents Chemother. 2020;65:e00487–20. DOIPubMedGoogle Scholar
  44. van Toorn  R, Zaharie  S-D, Seddon  JA, van der Kuip  M, Marceline van Furth  A, Schoeman  JF, et al. The use of thalidomide to treat children with tuberculosis meningitis: A review. Tuberculosis (Edinb). 2021;130:102125. DOIPubMedGoogle Scholar
  45. Abo  YN, Curtis  N, Osowicki  J, Haeusler  G, Purcell  R, Kadambari  S, et al. Infliximab for paradoxical reactions in pediatric central nervous system tuberculosis. J Pediatric Infect Dis Soc. 2021 Oct 5;piab094.
  46. Gafar  F, Marais  BJ, Nataprawira  HM, Alffenaar  JC. Optimizing antimicrobial and host-directed therapies to improve clinical outcomes of childhood tuberculous meningitis. Clin Infect Dis. 2021;ciab1036; Epub ahead of print. DOIPubMedGoogle Scholar
  47. Schoeman  JF, Van Zyl  LE, Laubscher  JA, Donald  PR. Effect of corticosteroids on intracranial pressure, computed tomographic findings, and clinical outcome in young children with tuberculous meningitis. Pediatrics. 1997;99:226–31. DOIPubMedGoogle Scholar
  48. Rohlwink  UK, Figaji  A, Wilkinson  KA, Horswell  S, Sesay  AK, Deffur  A, et al. Tuberculous meningitis in children is characterized by compartmentalized immune responses and neural excitotoxicity. Nat Commun. 2019;10:3767. DOIPubMedGoogle Scholar
  49. Rohlwink  UK, Mauff  K, Wilkinson  KA, Enslin  N, Wegoye  E, Wilkinson  RJ, et al. Biomarkers of cerebral injury and inflammation in pediatric tuberculous meningitis. Clin Infect Dis. 2017;65:1298–307. DOIPubMedGoogle Scholar
  50. Marais  BJ, Heemskerk  AD, Marais  SS, van Crevel  R, Rohlwink  U, Caws  M, et al.; Tuberculous Meningitis International Research Consortium. Standardized methods for enhanced quality and comparability of tuberculous meningitis studies. Clin Infect Dis. 2017;64:501–9.PubMedGoogle Scholar

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DOI: 10.3201/eid2803.212230

Original Publication Date: February 08, 2022

1These first authors contributed equally to this article.

Table of Contents – Volume 28, Number 3—March 2022

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Fajri Gafar, University of Groningen, Groningen Research Institute of Pharmacy, Unit of PharmacoTherapy, Epidemiology and Economics, Antonius Deusinglaan 1 (Rm: 3214.0450), 9713 AV Groningen, The Netherlands

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Page created: February 08, 2022
Page updated: February 21, 2022
Page reviewed: February 21, 2022
The conclusions, findings, and opinions expressed by authors contributing to this journal do not necessarily reflect the official position of the U.S. Department of Health and Human Services, the Public Health Service, the Centers for Disease Control and Prevention, or the authors' affiliated institutions. Use of trade names is for identification only and does not imply endorsement by any of the groups named above.
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