Tuberc Respir Dis > Volume 89(2); 2026 > Article
Min, Jeong, Kim, Choi, Sohn, Lipman, and Kim: Post-tuberculosis Health: A Holistic Perspective on Multisystem Sequelae and Long-Term Wellbeing

Abstract

Tuberculosis survivors often face long-term physical, psychological, and social challenges that extend beyond microbiological cure. Post-tuberculosis complications include pulmonary damage, cardiovascular and neurological sequelae, as well as significant impacts on overall wellbeing and livelihoods. Despite increasing awareness, most care continues to focus primarily on lung disease, overlooking the multisystem and social needs of survivors. A holistic, people-centered framework that integrates medical, rehabilitative, and community-based strategies is essential for restoring health and facilitating societal participation among tuberculosis survivors.

Key Figure

Introduction

Tuberculosis (TB) remains a major threat to global health, especially in low- and middle-income countries [1,2]. Intensified efforts in diagnosis, treatment, and public health interventions have led to declining mortality rates and improved cure rates for TB. However, these advancements have also resulted in a growing number of individuals who survive TB treatment, emphasizing the need for management strategies that extend beyond early case detection and treatment completion. As these survivors transition out of acute care, it is increasingly recognized that completing anti-TB treatment does not necessarily mean full recovery or the restoration of pre-disease health. Evidence shows that many TB survivors experience persistent symptoms, functional limitations, and long-term complications, underscoring the necessity to broaden the clinical and policy focus to include aspects beyond microbiologic cure.
Most post-TB care has focused on pulmonary sequelae, such as bronchiectasis and chronic lung function impairment. However, recent studies have shown that TB can have extensive effects on multiple organ systems, including cardiovascular, neurological, musculoskeletal, metabolic, and psychosocial domains [3-6]. Moreover, the impact on quality of life, mental health, and socioeconomic wellbeing can be profound and lasting. In light of these findings, there is an urgent need to reframe TB outcomes more holistically. This review aims to provide a comprehensive overview of ‘post-TB’ disease, encompassing not only pulmonary outcomes but also multisystemic sequelae and the broader concept of post-TB health and wellbeing. Given the lack of data on children and adolescents [7], this review will focus on post-TB sequelae in adult populations.

Post-TB Disease: Beyond the Lungs

TB has long been regarded as a curable infectious disease that primarily affects the lungs in many parts of the world [1]. Increasing evidence indicates that many TB survivors experience ongoing or emerging health issues, which include not only structural lung damage but also impairment of extrapulmonary organs, mental health challenges, functional limitations, and a reduced quality of life. Recent estimates suggest that post-TB sequelae account for nearly half of the total TB-related disability-adjusted life years globally, highlighting a significant and previously under-recognized burden on survivors and health systems [8].
Despite the increasing recognition of the health impacts following TB, there is currently no single universally accepted term that fully encompasses the breadth of the post-TB experience. Instead, a variety of overlapping terminologies are employed in clinical practice, public health, and academic literature to describe different facets of post-TB health. Each term reflects a specific perspective, ranging from clinical diagnosis to policy framing to functional disability, and highlights distinct aspects of the post-TB burden.
To clarify the scope and usage of these terms, Table 1 provides a comparative overview of commonly used expressions, such as ‘post-TB disease [9],’ ‘sequelae [10],’ ‘morbidity [11],’ ‘disability [12],’ and ‘health [13],’ based on their definitions, included elements, and appropriate contexts. Previous terms such as ‘post-TB sequelae,’ ‘post-TB morbidity,’ and ‘post-TB health’ have been used inconsistently. ‘Post-TB sequelae’ generally implies irreversible structural damage or static residual lesions, primarily confined to the lungs. ‘Post-TB morbidity’ focuses on the burden and disability associated with TB but does not indicate an ongoing pathological process. ‘Post-TB health’ emphasizes holistic wellbeing after TB but lacks specificity regarding pathological conditions. The concept of ‘post-TB health’ advocates for a people-centered, holistic approach, acknowledging the physical, psychological, and social needs of TB survivors beyond mere microbiological cure [13]. These terms do not adequately reflect that many individuals experience dynamic, multisystem, and sometimes progressive disease processes following TB, which extend beyond residual scarring or disability. This variation in terminology underscores the heterogeneity of post-TB manifestations and emphasizes the need for a more integrated conceptual framework to inform clinical care, health systems planning, and survivor-centered policy development. Given the wide range of health outcomes experienced by TB survivors, there is an increasing need to define ‘post-TB disease’ in a manner that accurately reflects both clinical and functional realities. Drawing from recent efforts to characterize post-infectious conditions, such as long coronavirus disease (COVID) [14], and considering the limitations of existing TB-specific terminology, we can propose the following definition (Table 2).
Post-TB disease is a chronic condition associated with TB that can arise after TB infection or its treatment. It is characterized by ongoing or re-emerging pathological activity rather than mere static damage and may impact one or more organ systems. Importantly, it includes both symptomatic individuals and those with asymptomatic structural or functional sequelae. This condition reflects the long-term consequences of TB—structural, functional, psychological, or social—and can impair health-related quality of life and overall wellbeing.
This proposed definition acknowledges the diversity of post-TB manifestations, the potential for delayed onset, and their impact on both diagnosed disease and lived experiences. It shifts away from a narrow focus on pulmonary sequelae and supports a multidimensional framework that integrates clinical care, rehabilitation, and survivor support. Post-TB disease emphasizes a broader and more dynamic concept, reframing post-TB outcomes as an active disease continuum rather than a static endpoint of prior infection.

Multisystem Sequelae of TB

Increasing evidence demonstrates that TB can lead to persistent structural, functional, and immunologic changes across multiple organ systems (Figure 1). These multisystem sequelae may arise from the infection itself, its inflammatory aftermath, treatment-related toxicity, or secondary deconditioning. Recognizing these extrapulmonary consequences is essential for comprehensive post-TB care and underscores the need for a holistic approach to TB survivorship.

1. Pulmonary sequelae

The lungs are the most commonly affected organ in TB, and pulmonary sequelae are the most well-characterized aspect of post-TB disease [15]. In adults, imaging studies often reveal structural abnormalities such as bronchiectasis, fibrosis, lung cavitation, and pleural thickening, even after microbiological cure [3]. These changes are often irreversible and can lead to chronic respiratory symptoms, including persistent cough, dyspnea, chest pain, and hemoptysis. Functionally, post-TB lung disease (PTLD) is associated with obstructive, restrictive, or mixed pulmonary function deficits, even in the absence of sequelae findings on chest X-ray [16]. These impairments lead to decreased exercise tolerance, hypoxemia, and long-term declines in quality of life.
The term PTLD has been proposed by international expert groups to describe chronic respiratory abnormalities— whether symptomatic or asymptomatic—that are at least partially attributable to prior TB [17]. Emerging data suggest that PTLD is associated with increased healthcare utilization, recurrent respiratory infections, and, in some cases, premature mortality [18-20]. Despite its significant burden, PTLD remains underdiagnosed and underreported in most parts of the world. This issue is particularly critical in high TB burden settings, where the large number of affected individuals often leads to limited long-term follow-up and rehabilitation services.

2. Cardiovascular sequelae

Individuals with TB, both during active disease and in the post-treatment phase, are susceptible to various cardiovascular conditions. TB pericarditis is the most recognized form of TB-related cardiac disease, affecting approximately 1%-2% of those with TB [21]. Despite receiving adequate anti-TB treatment and corticosteroids, chronic constrictive pericarditis may develop in 30%-60% of affected individuals, leading to long-term disability and increased mortality [22]. Prompt diagnosis and anti-TB therapy are essential, and pericardiectomy should be considered in cases of persistent symptomatic constriction.
Beyond pericardial disease, TB survivors face an increased long-term risk of developing cardiovascular disease (CVD). This includes conditions such as myocardial [23], acute coronary syndrome [24], ischemic heart disease [4], ischemic stroke [25,26], and peripheral arterial disease [27]. This risk continues for more than a decade after completing TB treatment and may not be fully accounted for by existing CVD risk prediction tools used in the general population. The mechanisms are not completely understood, but proposed contributors include persistent immune activation, chronic inflammation, endothelial dysfunction, and metabolic derangements [13]. Traditional cardiovascular risk factors— such as smoking, diabetes, hypertension, and dyslipidemia—are prevalent among TB patients and increase their risk. Additionally, shared socioeconomic determinants like poverty, poor diet, and limited healthcare access further heighten vulnerability to both TB and CVD. Considering these risks, a pragmatic and long-term approach to cardiovascular risk stratification and management in TB survivors is essential.

3. Neurological sequelae

Although neurological TB accounts for approximately 1% of all TB cases [28], it is one of the most severe and disabling forms, associated with a high mortality rate and long-term sequelae in survivors. Central nervous system (CNS) TB includes tuberculous meningitis (TBM), intracranial tuberculomas or abscesses, and spinal TB, which can occur individually or in combination. The primary pathological effects of TB-related CNS inflammation include arachnoiditis, leading to cranial nerve palsies and cerebrospinal fluid obstruction; vasculitis, which can result in stroke; and space-occupying tuberculomas or abscesses. Spinal involvement often presents as vertebral TB, potentially causing neural tissue compression, radiculomyelitis, and, in some cases, post-treatment syringomyelia, a chronic condition characterized by spinal cord cavitation that further impairs function.
Long-term neurological sequelae are common and often severe. A systematic review found that approximately one-third of adults who survive TBM experience persistent physical disabilities [6]. Longer-term data suggest that severe disability persists in 14% of survivors even 5 years after treatment [29]. Outcomes are similarly poor for individuals with spinal TB or syringomyelia, as many of them remain non-ambulatory at the 9-month follow-up [30,31]. In a cohort of patients with intracranial tuberculomas, only 37% achieved full clinical recovery after 18 months [32].
These findings highlight the profound and lasting impact of CNS TB, emphasizing the importance of early diagnosis, intensive treatment, and post-treatment rehabilitation. However, routine neurological follow-ups and access to neurorehabilitation services remain scarce in most TB-endemic settings. Consequently, neurological TB is a leading cause of TB-associated disability and significantly contributes to the post-TB disease burden.
In addition to CNS involvement, neurotoxicity from anti-TB drugs contributes to long-term neurological sequelae. Isoniazid may induce peripheral neuropathy due to pyridoxine deficiency, while ethambutol [33] is a well-known cause of optic neuritis, especially in patients with renal impairment. Linezolid [34], which is increasingly used for multidrug-resistant TB, can lead to dose- and duration-dependent peripheral and optic neuropathies that may be irreversible.
These drug-induced toxicities may coexist with CNS-related deficits, exacerbating functional impairment after treatment. Therefore, regular neurological and ophthalmologic monitoring during therapy is essential for the early detection and prevention of permanent disability.

4. Osteoarticular sequelae

Osteoarticular TB, most commonly affecting the spine, hips, or knees, can lead to joint destruction, chronic pain, spinal deformity, and mobility impairment. In cases of spinal TB (Pott's disease), vertebral collapse may result in kyphosis and spinal instability, with some patients experiencing chronic neurological compromise. Even after achieving microbiological cure, many patients report persistent pain and functional limitations, particularly in low-resource settings where access to surgical and rehabilitative care is limited.

5. Gastrointestinal and genitourinary sequelae

Although less common, extrapulmonary TB involving the gastrointestinal or genitourinary tract can result in chronic functional impairment. Gastrointestinal TB [35] may lead to intestinal obstruction, malabsorption, or adhesive peritonitis. In contrast, genitourinary TB [36] can cause ureteric strictures, bladder contracture, or infertility due to tubal or epididymal scarring, and it increases the risk of ectopic pregnancy in TB-endemic settings [37]. Although their overall prevalence is lower than that of pulmonary or CNS involvement, these forms contribute to the broader spectrum of post-TB morbidity and should be considered in the long-term follow-up of TB survivors.

6. Comorbidities in post-TB disease

In high-income, low-incidence settings like Korea, an increasing proportion of TB patients are older adults with pre-existing chronic conditions [38,39]. These comorbidities not only predispose individuals to TB disease but may also worsen during or after TB treatment due to persistent systemic inflammation, drug-related toxicity, or physical deconditioning. The deterioration of underlying diseases—whether cardiovascular, metabolic, renal, or neuropsychiatric—represents an important yet under-recognized aspect of post-TB disease. In this context, post-TB disease includes not only newly emerging chronic conditions but also the exacerbation or accelerated progression of pre-existing comorbidities, highlighting the complex interplay between prior infection, host vulnerability, and age-related health trajectories.

Post-TB Health-Related Quality of Life and Wellbeing

Many TB survivors face ongoing challenges that impact their health-related quality of life and overall wellbeing, even when there are no apparent clinical abnormalities. These difficulties are often multidimensional, involving psychological distress, social disruption, and economic vulnerability, and they may persist long after TB treatment has concluded.
Psychological wellbeing is often compromised by the traumatic experience of TB, prolonged treatment, stigma, and fear of recurrence. Depression and anxiety are common, particularly among patients who have experienced hospitalization, isolation, or complications such as drug resistance [40,41]. These mental health effects may be worsened by internalized stigma and a lack of social support. Importantly, many TB survivors continue to suffer in silence because mental health care is often inaccessible or culturally stigmatized in high-burden settings.
Social wellbeing is significantly impacted by TB, a disease that carries a high level of stigma in many societies. Even after achieving microbiological cure, survivors often continue to face social repercussions. TB can result in extended withdrawal from work, school, and community life. In certain cultural contexts, survivors encounter ongoing stigma, rejection in marriage or employment, and a loss of social status. These challenges can exacerbate the existing stigma, further undermining self-esteem and identity, and leading to enduring feelings of marginalization and disconnection from society.
Economic wellbeing is frequently compromised by TB. Even when treatment is offered at no cost, indirect expenses—such as transportation, lost wages, and caretaking duties—can be significant. TB predominantly affects individuals of working age in many regions, often the primary earners in their households. Consequently, the financial repercussions of TB can impact entire families. Many TB survivors return to work with diminished physical capacity, encounter discrimination during hiring, or remain unemployed for long periods. For those in informal or unstable jobs, TB can trigger or worsen a cycle of poverty that may last for years or even generations.
To address these hidden yet profound effects of TB, a holistic approach to post-TB care is essential. Wellbeing should be regarded as a primary outcome rather than a secondary concern. In addition to achieving medical recovery, TB programs and health systems must focus on restoring dignity, functionality, and full participation in society for all TB survivors. While many existing initiatives have concentrated primarily on PTLD, there is a pressing need for more comprehensive frameworks that consider multisystem sequelae and the wider social and economic aspects of recovery. This will necessitate integrated policies, intersectoral collaboration, and the active participation of affected communities in designing and assessing post-TB support systems.

Assessment Strategies

Given the multisystem nature of post-TB disease, a comprehensive and structured assessment is essential to identify residual morbidity, inform individualized care, and guide long-term follow-up (Figure 2). Many post-TB sequelae, such as exercise intolerance, fatigue, and neurocognitive impairment, are often under-recognized because they go undetected unless clinicians actively screen for them or specifically inquire during follow-up.
A minimum baseline evaluation conducted near the end of antimicrobial treatment for TB has been suggested as a useful reference point [42]. From this baseline, tailored follow-up can be planned. For PTLD, the initial assessment includes symptom screening (dyspnea, cough, hemoptysis), vital signs (respiratory rate, oxygen saturation), spirometry (pre- and post-bronchodilator), and lung imaging (chest X-ray or computed tomography scan) (Table 3). Exercise capacity (e.g., 6-minute walk test with oximetry), gas exchange (e.g., diffuse capacity of the lung for carbon monoxide), and lung volumes may also provide valuable insights where resources permit. Quality of life and symptom burden should be quantified using validated instruments such as the St. George’s Respiratory Questionnaire (SGRQ), modified Medical Research Council Dyspnea Scale, and the EuroQol 5 Dimensions (EQ-5D), ideally adapted to the local language and context. While the SGRQ has been applied in post-TB populations [18,43], its adaptation may be necessary for use in resource-limited settings to address TB-specific issues such as stigma and social isolation [44].
Cardiovascular risk stratification should be included in post-TB evaluations. Tools commonly used in the general population, such as the Framingham score and the atherosclerotic CVD [45] risk calculator, may underestimate the risk for TB survivors, and none have been specifically validated for this population. Emerging evidence suggests that latent TB is independently linked to subclinical atherosclerosis [46]. Until TB-specific tools are developed, a pragmatic, risk-factor-based approach should be adopted, emphasizing the screening of hypertension, dyslipidemia, diabetes, and smoking. For instance, diabetes is both a risk factor for developing TB and a common comorbidity among TB survivors, necessitating careful glycemic control to enhance anti-TB treatment outcomes and reduce post-TB complication [47]. Smoking is linked to increased severity of TB disease, delayed recovery, and higher rates of post-TB lung impairment, making smoking cessation a crucial aspect of care [48].
Neurological assessment is especially important for TB survivors with a history of CNS TB, such as TB meningitis or spinal TB. Common issues include physical disabilities, neurocognitive dysfunction, and psychi-atric symptoms, all of which necessitate structured follow-up. The modified Rankin Scale [49] is recommended at 12 months to assess functional recovery, in conjunction with domain-specific tools for cognition and mental health. For individuals with residual weakness, joint contractures, or spasticity, rehabilitation planning should address safety concerns, including fall risk, impaired balance, and diminished self-care ability.
A biopsychosocial approach to assessment, which integrates symptoms, functional ability, comorbidities, and contextual factors, provides the best opportunity for delivering person-centered care. The development and validation of severity scoring tools, along with standardized post-TB follow-up pathways, remain important priorities for research and implementation [50].

Toward a Holistic Approach to Post-TB Life

Survivors often encounter a range of challenges, including respiratory impairment, cardiovascular complications, mental health distress, social exclusion, and financial hardship, which cannot be effectively addressed through a purely biomedical model of care. Therefore, a holistic approach to post-TB life is urgently needed (Figure 3).
A holistic approach recognizes the interconnected nature of health determinants following TB and aims to address them through multidisciplinary, coordinated care. This process begins with collaboration across various specialties, including respiratory medicine, cardiology, mental health, rehabilitation, nutrition, and social work. For example, pulmonary rehabilitation, physical therapy, and nutritional support can significantly enhance function and prevent long-term disability [51]. While there are no specific CVD guidelines for TB, it is important to integrate interventions that control blood pressure, blood glucose, lipid levels, and lifestyle factors—such as smoking cessation, physical activity, and diet—into TB care. Collaboration between TB programs and primary care or non-communicable disease services is essential to ensure continuity, sustainability, and equitable delivery of cardiovascular care post-TB. Additionally, mental health services are crucial to address common conditions like depression, anxiety, and post-traumatic stress, which are often underdiagnosed in TB survivors.
The integration of TB care into broader chronic disease and primary care systems is a critical pillar. TB survivors often have comorbidities, and a siloed system may fail to effectively recognize or manage these issues. Additionally, framing TB as a standalone issue risks limiting its visibility and priority among policymakers and funders. Embedding post-TB care within integrated health services can strengthen advocacy for sustainable resources, ensure alignment with broader health agendas, and promote long-term, people-centered management. Establishing structured follow-up protocols—rather than discharging patients after treatment completion—enables early detection of complications and allows for tailored interventions as patient needs evolve.
Social and economic support is essential for achieving long-term recovery [52]. Programs that promote employment, financial security, housing, and community reintegration can restore autonomy and dignity. At the same time, care must be person-centered, reflecting each survivor's priorities, preferences, and values, rather than focusing solely on clinical outcomes. This approach includes shared decision-making, culturally sensitive communication, and flexibility in care planning.
To implement a holistic post-TB care model, several enabling factors must be addressed. First, national policies and guidelines should formally recognize post-TB disease and establish standards for follow-up care. Second, post-treatment surveillance systems are necessary to track outcomes and inform resource allocation. Third, training and sensitizing healthcare providers can enhance recognition of post-TB needs and help reduce stigma. Finally, actively engaging TB survivors and communities in designing, evaluating, and delivering services will ensure that care is relevant, equitable, and sustainable. For instance, national TB programs in Kenya, Uganda, Zambia, and Zimbabwe have trialed end-of-treatment assessments for comorbidities and disabilities, with feasibility studies indicating high acceptability [53]. Evidence from PTLD populations in Brazil, Italy, and France indicates that pulmonary rehabilitation enhances functional outcomes and quality of life, providing a compelling rationale for its inclusion in comprehensive post-TB care frameworks [54].
In addition to providing post-TB care, it is essential to focus on strategies aimed at preventing post-TB disease. This includes reducing the disease burden through early detection and prompt treatment, promoting public education to encourage timely care-seeking, and implementing innovative approaches during TB treatment, such as host-directed therapies that can modulate immune responses and reduce longterm complications. An effective response should be supported by standardized clinical guidelines, robust post-treatment surveillance systems, and sustainable financing mechanisms. Concurrently, research plays a crucial role in guiding these efforts. Key priorities include conducting longitudinal cohort studies [55,56] to understand the natural history of post-TB disease, developing risk stratification tools for targeted interventions, and evaluating rehabilitative and therapeutic methods to restore health and dignity to TB survivors.

Conclusion

Post-TB disease should be understood as a multidimensional condition that goes beyond lung health, affecting various physical, psychological, social, and economic aspects of life. Survivors encounter complex and often overlooked challenges that can persist for years after completing treatment. To effectively address these issues, a holistic, people-centered model of care is essential, emphasizing interdisciplinary collaboration and long-term system engagement.

Notes

Authors’ Contributions

Conceptualization: Min J, Jeong Y, Kim HW, Lipman M, Kim JS. Methodology: Min J, Jeong Y, Kim HW, Choi H, Sohn H, Lipman M, Kim JS. Data curation: Min J. Funding acquisition: Min J. Project administration: Min J, Jeong Y, Lipman M. Visualization: Min J, Jeong Y. Investigation: Min J, Jeong Y, Kim HW, Choi H, Sohn H, Lipman M, Kim JS. Writing - original draft preparation: Min J, Jeong Y. Writing - review and editing: Min J, Jeong Y, Kim HW, Choi H, Sohn H, Lipman M, Kim JS. Approval of final manuscript: all authors.

Conflicts of Interest

Jinsoo Min is an editor of Tuberculosis and Respiratory Diseases, but he was not involved in the peer reviewer selection, evaluation, or decision process of this article. No other potential conflicts of interest relevant to this article were reported. Jinsoo Min received lecture fees from Otsuka, Qiagen, and BD between 2024 and 2025.

Funding

This study was supported by a Research Program funded by the Korea National Institute of Health (grant number 2025E201400). The funders played no role in the study design, data collection and analysis, decision to publish, or manuscript preparation.

Fig. 1.
Illustration of post-tuberculosis (TB) sequelae and their interrelationships. This diagram depicts the range of potential long-term health consequences following TB, including pulmonary, cardiovascular, neurological, and musculoskeletal complications. The unidirectional arrows indicate possible causal or contributory pathways between conditions; for example, post-TB lung damage and chronic obstructive pulmonary disease (COPD) may exacerbate cardiovascular strain, while cardiovascular impairment may promote atherosclerotic changes in cerebral vessels, contributing to secondary cerebrovascular disease. Neurological impairment can further limit mobility and functional capacity. Together, these overlapping sequelae contribute to impaired psychological, social, and economic wellbeing in TB survivors. The figure highlights the interconnected and multisystemic nature of post-TB disease and underscores the need for comprehensive, multidisciplinary follow-up care. MTBc: Mycobacterium tuberculosis complex.
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Fig. 2.
Post-tuberculosis (TB) care pathway integrating domain-specific assessment and management. This diagram illustrates a conceptual framework for post-TB care, beginning with initial assessment at the completion of TB treatment. Survivors undergo domain-specific evaluations to identify residual morbidity and guide tailored interventions. Management plans address comorbidities and lifestyle factors alongside rehabilitation and psychosocial support. Long-term follow-up and strategies for social reintegration are essential to restore health, dignity, and participation in community life.
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Fig. 3.
Framework for a holistic approach to post-tuberculosis (TB) care. This conceptual diagram outlines the key components of a holistic care model for post-TB survivors. At the core is the individual affected by TB, surrounded by five essential domains of care: multidisciplinary clinical management, integration with chronic disease and primary care systems, access to mental health services, social and economic reintegration, and person-centered care planning. These domains are supported by enabling factors including national policy guidelines, post-treatment surveillance systems, provider training, and community engagement. Together, these elements form a comprehensive strategy to promote long-term health, dignity, and wellbeing among TB survivors.
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Table 1.
Comparative overview of terms related to post-tuberculosis health
Category Term Definition and meaning Included elements Appropriate context
Clinical entities Post-TB disease A chronic medical condition after TB disease (regardless of treatment completion) with identifiable organ damage Multisystem disease, structural damage, functional impairment, diagnosed conditions Clinical and academic writing; multisystem effects
Post-TB sequelae Irreversible long-term anatomical or functional impairments resulting from TB Structural damage, functional deficits, especially pulmonary Radiologic, pathologic, and physiological descriptions
Broad consequences Post-TB condition A general and flexible term for any health issue following TB Symptoms, impairments, diseases, psychosocial effects Policy documents, flexible or early-phase assessments
Post-TB morbidity Burden of chronic illness experienced after TB Diagnosed disease, health service use, chronic effects Epidemiology, health services research, burden estimation
Functional status Post-TB syndrome A collection of persistent symptoms after TB treatment without confirmed pathology Fatigue, anxiety, dyspnea, cognitive issues, reduced stamina Quality of life studies, symptom management, mental health
Post-TB disability Functional impairments and activity limitations caused by TB or its treatment Physical, neurological, or mental impairments; activity limitations; social exclusion Disability assessment, rehabilitation, rights-based health systems
Overlap Post-TB health Overall lived experience or wellbeing of TB survivors, encompassing wellbeing and recovery Functional status, social reintegration, psychological wellbeing, people-centered recovery Narrative framing, advocacy, holistic or survivor-centered approaches

TB: tuberculosis.

Table 2.
Proposed definition of post-tuberculosis disease
Core definition Post-TB disease is a TB-associated chronic condition that may occur after TB disease or its treatment, characterized by ongoing or re-emerging pathological activity, not mere static damage, and may affect one or more organ systems.
Clinical manifestations Post-TB disease can manifest in diverse ways. A complete listing would span hundreds of potential symptoms and conditions. Involved organ systems may include respiratory, cardiovascular, neurologic, musculoskeletal, endocrine, renal, and mental health domains.
Patients may present with:
 Single or multiple persistent symptoms, such as chronic cough, dyspnea, fatigue, chest pain, post-exertional breathlessness, reduced exercise tolerance, sleep disturbance, weight loss, neurological deficits (e.g., headache, limb weakness, paresthesia), and musculoskeletal pain.
 Single or multiple diagnosable conditions, including but not limited to:
  Respiratory: chronic airflow obstruction, bronchiectasis, fibrocavitary disease, hypoxemia, or post-TB lung disease.
  Cardiovascular: increased risk of ischemic heart disease, stroke, or pulmonary hypertension.
  Neuropsychological: depression, anxiety, cognitive dysfunction, post-traumatic stress disorder.
  Metabolic and systemic: diabetes, sarcopenia, chronic kidney disease, malnutrition.
Key features It may follow drug-susceptible or drug-resistant TB, and pulmonary or extrapulmonary TB, including TB meningitis or spinal TB.
It may begin during treatment for TB or become apparent months after treatment completion, even following clinical cure.
It affects individuals regardless of age, sex, comorbidities, or socioeconomic status.
It may involve new conditions or worsening of pre-existing diseases due to TB-associated tissue damage or inflammation.
It may be mild to disabling, and its course may be self-limited or persistent for years.
Diagnosis is primarily clinical, based on post-treatment history, symptoms, functional assessments, and investigations (e.g., imaging, pulmonary function tests), as no definitive biomarker exists.
It may significantly impact the ability to work, perform daily activities, and maintain social roles, leading to long-term disability and reduced wellbeing.

TB: tuberculosis.

Table 3.
Structured assessment domains in post-tuberculosis care
Domain Recommended components Notes
Pulmonary Symptom screening Use culturally adapted, validated instruments
Full lung function testing, including spirometry Repeat assessments over time for follow-up
Chest X-ray or CT
DLCO
6-minute walk test with oximetry
QoL tools (SGRQ, mMRC, EQ-5D)
Cardiovascular Screening for hypertension, dyslipidemia, diabetes, smoking No TB-specific risk tool exists
Use of Framingham or ASCVD risk tools Risk-factor-based pragmatic approach currently recommended
Neurological Assessment of TBM or spinal TB outcomes TBM: CNS imaging if needed
Modified Rankin Scale at 12 months Incorporate physical and mental rehabilitation
Neurocognitive and psychiatric assessment
Psychological & cognitive Depression, anxiety, PTSD screening Link with community mental health and social services where possible
Cognition-focused tools
Consider stigma and social reintegration needs
Functional & physical Assessment of balance, gait, ADLs Functional scales
Fall risk Involve physiotherapy, occupational therapy
Rehabilitation planning for weakness, joint contracture, spasticity
Comorbidities & lifestyle factors Screening for diabetes mellitus, smoking, alcohol use, nutritional status These factors are highly prevalent and strongly influence post-TB morbidity
Integrated management of these factors to reduce post-TB risk Requires sustained counseling and intervention
Social & economic Assessment of work capacity and employability Consider vocational rehabilitation and linkage to welfare services
Support for returning to work or alternative jobs
Evaluation of family economic stability and access to social support programs Engage with community-based support systems

CT: computed tomography; DLCO: diffuse capacity of the lung for carbon monoxide; QoL: quality of life; SGRQ: St. George’s Respiratory Questionnaire; mMRC: modified Medical Research Council; EQ-5D: EuroQol 5 Dimensions; ASCVD: atherosclerotic cardiovascular disease; TB: tuberculosis; TBM: tuberculous meningitis; CNS: central nervous system; PTSD: post-traumatic stress disorder; ADL: activity of daily living.

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ORCID iDs

Jinsoo Min
https://orcid.org/0000-0001-6091-518X

Yoolwon Jeong
https://orcid.org/0000-0001-8179-4620

Funding Information

Korea National Institute of Health
https://doi.org/10.13039/501100003653
2025E201400

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