SAHAY: Multimodal, Privacy-Preserving AI for Suicide Risk Detection and Intervention in India
Proceedings of the Thirty-Fourth International Joint Conference on Artificial Intelligence. AI and Social Good. Pages 9862-9870.
https://doi.org/10.24963/ijcai.2025/1096
Keywords
- Humans and AI: General
- Multidisciplinary Topics and Applications: General
- Natural Language Processing: General
Abstract
Suicide accounts for one of the leading causes of death in India, with over 164,033 deaths reported in 2021. Despite increased awareness, the gap between the need for consistent treatment and actual accessibility remains a challenge due to limited mental health infrastructure, the stigma surrounding mental illness in society, and the lack of real-time detection mechanisms. Traditional suicide risk assessments often miss early signs of distress, which rely heavily on clinical evaluations and self-reporting. Although AI-based monitoring seems promising, currently available models focus only on risk prediction without intervention and treatment, leaving a critical gap in tackling crisis management. In this proposal, we strive to design SAHAY, the first-of-its-kind AI-based, suicide prevention framework that seamlessly couples prediction with prevention and treatment access. Leveraging multimodal data, including the social media text and Electronic Health Records (EHR) and Ecological Momentary Assessments (EMA) such as wearable physiological data, SAHAY aims to assess suicide risk dynamically. Unlike existing models, SAHAY is culturally adaptive, multilingual and seamlessly integrates with India’s TeleMANAS mental health support system, to provide structured AI-human collaboration for long-term care and crisis interventions. It will be an adaptable, scalable, modular, and plug-and-play solution based on the Digital Public Infrastructure principle. Additionally, we intend to incorporate AI-driven geo-spatial crisis mapping to identify suicide hotspots in underserved regions. By combining real-time multimodal risk detection, professional mental health intervention, and geo-spatial outreach, SAHAY represents a scalable, adaptable, and end-to-end suicide prevention system. The design of SAHAY aligns with UN Sustainable Development Goals (SDGs) 3, 4, 5, 10, and 17, promoting inclusive, accessible, and data-driven mental healthcare.
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1 Introduction
Suicide remains a significant global public health challenge, accounting for nearly 800,000 deaths annually, with India contributing over 164,033 deaths in 2021 alone. 1 Despite national efforts in suicide prevention, including the launch of TeleMANAS 2 for accessible mental health services, India continues to face critical barriers such as stigma, lack of trained professionals, and insufficient early detection systems [Garg et al., 2019; Gururaj et al., 2016]. Suicide disproportionately affects young adults, with over 60% of victims having no prior contact with mental health services [Chaudhary et al., 2024]. The National Mental Health Survey (NMHS) reports a 75% treatment gap, highlighting the urgent need for early identification and intervention [Patel et al., 2018]. With the rapid adoption of digital technologies, AI-driven suicide prevention systems, specifically generative AI, are promising in suicide prevention [Chakraborty et al., 2025], and they have emerged as strong alternatives to traditional clinical assessments, enabling real-time risk detection and scalable intervention strategies. However, existing solutions suffer from limited multimodal data integration, a lack of regional adaptation, and weak AI-human collaboration frameworks, making them unsuitable for the diverse socio-cultural landscape of India.
Suicide: Indian Perspective and the Need for Early Detection India has one of the highest suicide rates globally, with suicide the leading cause of death among individuals aged 15-29. The suicide mortality rate stood at 16.5 per 100,000 in 2016, well above the global average of 10.5 per 100,000 [Dandona et al., 2018]. Mental health stigma, inadequate psychiatric infrastructure, and economic distress further exacerbate the crisis [Gaiha et al., 2020]. Despite the WHO's recommendation of 3 psychiatrists per 100,000 people, India has only 0.75 per 100,000, with rural areas facing severe shortages [Garg et al., 2019]. Traditional suicide detection relies on clinical assessments, self-reporting, and periodic screenings, which are reactive rather than proactive
2 TeleMANAS (Tele Mental Health Assessment and Networking Across States) is India's national tele-mental health service, launched to provide free, 24/7 mental health support through tollfree helplines.
[Patel et al., 2018]. Over 80% individuals with mental health conditions in India do not seek professional help within the first year of onset [Gururaj et al., 2016]. These methods also fail to capture real-time distress signals, which are critical for prevention. AI-driven approaches using social media analysis, physiological markers (heart rate variability, sleep patterns), and real-time self-reports (Ecological Momentary Assessment (EMA) surveys) offer a scalable early intervention strategy. However, for effective deployment in India, such systems must be multilingual, culturally sensitive, and seamlessly integrated with human-led interventions.
Existing Studies and Research Gaps AI-driven suicide detection has leveraged Natural Language Processing (NLP), physiological monitoring, and EHR analytics for risk assessment [Pigoni et al., 2024]. Social media-based NLP models detect ideation through text patterns and sentiment shifts [Chancellor and De Choudhury, 2020; Chatterjee et al., 2022], while wearable data on heart rate and sleep patterns correlate with mental health decline [Torous et al., 2018]. EHR-based models predict suicide attempts using historical markers [Zang et al., 2024]. However, existing approaches are fragmented, focusing on either prediction or intervention without a comprehensive, closed-loop system. Most of them lack multilingual support, seamless AI-human collaboration, and privacy safeguards, making them unsuitable for India's diverse population [Murthy, 2017]. Additionally, a few models are not plug-and-play, limiting integration with NGOs and private mental health platforms. The absence of geo-spatial crisis mapping further restricts targeted interventions in suicide hotspots. To address these gaps, we propose SAHAY 3 , a multimodal, privacy-preserving AI framework that fully integrates prediction, prevention, and treatment access. Unlike existing models, SAHAY closes the loop by combining social media analysis, wearable data, and EMA surveys while incorporating LLMs fine-tuned for Indian languages. Designed for scalability, it can be seamlessly integrated with TeleMANAS and other public, NGO, and private mental health platforms. In addition, AI-driven crisis mapping enables targeted outreach in high-risk areas. With end-to-end encryption and anonymised data handling, SAHAY ensures secure, adaptive, and ethical suicide prevention at scale.
Our Major Contributions
- A Multi-faceted Data Integration and Risk Detection System: We propose a comprehensive suicide risk assessment system that integrates social media activity, wearable physiological data, EMA surveys, and EHR records, processed through LLMs for dynamic risk classification and geo-spatial hotspot identification.
- End-to-End Suicide Prevention Pipeline: Unlike existing models that focus on either risk prediction or intervention, SAHAY closes the loop by ensuring seamless AIhuman collaboration, transitioning high-risk individuals from AI-driven support to professional mental health treatment, while leveraging geo-spatial crisis mapping for targeted deployment in suicide hotspots via TeleMANAS.
- Privacy-First and Ethically Aligned AI: SAHAY incorporates end-to-end encryption, anonymized data handling,
3 SAHAY is a Hindi word meaning help or assistance.
- and user consent mechanisms, ensuring compliance with GDPR, DPDP Act, and AI safety standards, while mitigating algorithmic bias through cross-cultural dataset training.
- Scalable and Adaptive Framework: We intend SAHAY to be a modular, privacy-preserving (as per Digital Public Infrastructure (DPI)) that can be seamlessly integrated into India's mental health ecosystem, ensuring nationwide accessibility and interoperability and supports regional language adaptation, and geo-spatial crisis mapping.
2 Goals
Through SAHAY, we aim to address the critical gaps in early suicide detection while ensuring sensitive care delivery. This section elaborates on the crisis and the key goals.
Limitations of Traditional Suicide Detection Methods Mental health assessment and suicide prevention in India face significant challenges due to their reliance on traditional clinical methods. Existing approaches primarily depend on in-person assessments, self-reporting, and periodic clinical evaluations, which often fail to capture the dynamic nature of mental health deterioration. The Lancet Commission on Global Mental Health highlights that these approaches capture only a fraction of at-risk individuals, with the treatment gap exceeding 75% in low and middle-income countries such as India [Patel et al., 2018] where over 150,000 individuals die by suicide annually, with significant underreporting likely making this figure an underestimate [Armstrong and Vijayakumar, 2018].
The scarcity of mental health professionals in India, particularly in rural areas with only 0.75 psychiatrists per 100,000 population in contrast to the recommended 3 per 100,000 population by WHO [Garg et al., 2019], makes traditional assessment methods inaccessible [Choudhary et al., 2024]. This creates significant gaps in monitoring and intervention, especially in regions where mental health stigma is prevalent. Studies show that over 60% of individuals who died by suicide had no recorded prior contact with mental health services [Chaudhary et al., 2024]. Clinical assessments, while valuable, provide only periodic snapshots of an individual's mental state, missing crucial behavioural changes between visits. Studies from the National Mental Health Survey of India reveal that over 80% of individuals with mental health conditions do not receive any form of professional help within the first year of onset [Gururaj et al., 2016]. The traditional system's reliance on active helpseeking behaviour particularly fails to identify individuals from marginalised communities who face additional barriers to accessing mental health services [Singh et al., 2016; Dandona et al., 2018].
Towards Multimodal Data Integration for Enhanced Suicide Detection Recent advances in digital mental health technologies have demonstrated the potential of integrating multiple data sources for more effective suicide risk assessment [Torous et al., 2018]. (i) Social Media: Digital footprints/phenotyping through social media activity patterns and online behaviour changes have emerged as valuable indicators of mental health status. NLP techniques applied to social media content have shown promising results in identifying at-risk individuals [Chancellor and De Choudhury, 2020]. Studies indicate that changes in social media usage patterns can precede suicide attempts by several weeks [De Choudhury et al., 2013]. (ii) Wearable Devices: This technology provides continuous physiological data modalities that objectively indicate mental state changes. Studies using platforms like MindLAMP demonstrate strong correlations between biomarkers such as sleep patterns, activity levels, heart rate variability, and mental health status [Torous et al., 2018]. Integration with EHR provides crucial historical context, with machine learning models showing efficacy in predicting suicide attempts through EHR analysis [Zang et al., 2024].
AI-Expert Collaboration Framework In SAHAY, we aim to propose a novel framework for effective collaboration between automated systems and mental health professionals, focusing on real-time risk assessment and expert validation systems. Khosravi et al. [Khosravi et al., 2024] showed that AI systems can effectively augment clinical decision-making by continuously monitoring and analysing multimodal data sources. However, integrating expert knowledge remains crucial for system accuracy and cultural competency.
Longitudinal Care Management Arya [Arya, 2024] demonstrated that the risk of suicide attempts remains elevated for extended periods after initial crisis points, with up to 60% of attempts occurring within the first year of suicidal ideation. SAHAY's longitudinal care framework addresses this challenge through continuous monitoring and adaptive support strategies. Studies of long-term digital interventions have demonstrated significant reductions in suicide risk when combined with professional support [Yosep et al., 2024]. Integrating passive monitoring with active intervention strategies has proven effective in maintaining engagement over extended periods [Mikus et al., 2018]. By incorporating automated monitoring with regular professional assessment, SAHAY addresses a key limitation of current prevention strategies in India, where follow-up care is often inconsistent or unavailable [Omboni et al., 2022].
3 Alignment with SDG
Our proposal is rightly aligned with the following SDGs:
- Good Health and Well-being (SDG 3): SAHAY tackles India's mental health crisis with a comprehensive suicide prevention system, integrating wearable data, social indicators, and professional care.
- Quality Education (SDG 4): SAHAY promotes mental health awareness and suicide prevention through culturally sensitive education and early warning recognition training.
- Gender Equality (SDG 5): The rate of suicide among Indian men is 2.5 times that among women, and there is hesitancy in seeking help among men [Yadav et al., 2023]. SAHAY adopts gender-specific mental health approaches, addressing distinct suicide risk patterns with culturally appropriate support.
- Decent Work and Economic Growth (SDG 8): SAHAY fosters economic growth by supporting adolescents, and youth, who are pillars of a nation's growth and development.
- Reduced Inequalities (SDG 10): SAHAY bridges urbanrural mental healthcare disparities with AI-driven detection, multilingual support, and integration with TeleMANAS.
- Partnership for the Goals (SDG 17): Collaboration with NIMHANS (National Institute of Mental Health & Neuro Sciences, an Institute of National Importance under the Government of India), SAHAY combines AI-driven detection with expert-guided intervention and long-term care via TeleMANAS.
Apart from these SDG goals, SAHAY also strongly aligns with the Leave No One Behind (LNOB) principle by addressing critical mental health disparities in India's vulnerable populations. Through AI-driven geo-spatial analytics, SAHAY identifies high-risk areas and deploys communitybased crisis teams alongside TeleMANAS support, bridging India's severe psychiatric care shortage (0.75 psychiatrists per 100,000 [Garg et al., 2019]). The system intends to support various Indian languages, ensuring linguistic minorities aren't excluded from mental healthcare. SAHAY's privacypreserving design aims to tackle the treatment gap driven by stigma while prioritising early intervention for adolescents, India's largest and most vulnerable demographic group.
4 SAHAY: SystemDescription
In this section, we present the technical architecture and methodological framework of SAHAY, detailing our approach to multimodal data integration, LLM-based risk detection, human-expert intervention through TeleMANAS, geographical crisis hotspot mapping and long-term care management. Each component is designed for privacy preservation and cultural sensitivity, working together to create a comprehensive suicide prevention system. Figure 1 shows a schematic diagram of SAHAY.
4.1 Data Sources and Integration
We plan to aggregate and analyse diverse data modalities for early detection and intervention, ensuring privacy and cultural sensitivity.
Data Sources, Collection and Multi-Modal Integration We aim to integrate multiple validated data sources to comprehensively assess mental health risk factors. We plan to leverage existing datasets while also curating and annotating data in-house. Key sources include real-time EMA data from smartphone sensing and wearable devices such as MINDLAMP [Torous et al., 2018], which continuously monitor activity patterns, sleep quality, and social interactions. Additionally, we will utilize the SHARP (Suicide and Health Assessment for Prevention) dataset, which provides clinically validated suicide risk progression patterns through longitudinal patient data. For social media analysis, ethical concerns necessitate a cautious approach. Therefore, we will begin with established datasets of mental health discourse [De Choudhury et al., 2013]. The clinical assessment component incorporates validated psychometric instruments, including the Patient Health Questionnaire (PHQ-9) for depression screening, the Generalized Anxiety Disorder Assessment (GAD-7) for anxiety evaluation, and the Columbia- Suicide Severity Rating Scale (C-SSRS) for suicide risk assessment, all of which have been extensively validated in Indian populations [Gururaj et al., 2016]. Additionally, we will leverage EHR data to enhance contextual risk assessment [Barak-Corren et al., 2020].

We propose to employ a federated architecture to ensure data consistency, privacy, and secure aggregation. Social media text will undergo language-specific normalisation, wearable data will be standardised across devices, and clinical assessments will be normalised to consistent scales. A temporal alignment system synchronises diverse data streams, handling varying sampling rates from continuous wearable monitoring to clinical periodic evaluations. Privacy is enforced through differential privacy mechanisms, enabling population-level analysis while preserving individual anonymity [Smith et al., 2023].
LLM-Based Risk Detection System SAHAY leverages LLM advancements for comprehensive suicide risk detection, contextual risk assessment, and culturally adaptive response generation for AI-assisted support. It analyses social media posts and EMA responses to identify linguistic markers of distress (e.g., hopelessness, social withdrawal, self-harm references), enhanced through clinically informed prompt engineering [Chancellor and De Choudhury, 2020; Smith et al., 2023]. The multi-level classification system evaluates both text-based risk indicators and contextual signals from multimodal data, escalating cases to human experts when uncertainty thresholds are exceeded [Khosravi et al.,
2024]. A key feature is regional language support, enabling LLMs to process distress signals across multiple Indian languages and addressing a critical accessibility gap in AI-driven mental health systems.
The system incorporates robust safety measures through carefully designed AI guardrails that prevent harmful or inappropriate responses while maintaining the empathetic nature required for mental health support [Dong et al., 2024; Menz et al., 2024]. Rather than developing new language models, SAHAY focuses on creating a framework for deploying existing LLM capabilities in a mental healthcare context, with particular attention to cultural sensitivity and regional language support. SAHAY's LLM framework incorporates specialized components for handling India's linguistic and cultural diversity in mental health contexts. For multilingual processing, we build upon established models like BLOOM [Scao et al., 2022], mT0 [Muennighoff et al., 2023] and Aya [ ¨Ust¨un et al., 2024], and recent India-specific models like OpenHathi, and Airavata [Gala et al., 2024] that demonstrate strong capabilities in processing Hindi contexts. The system implements a domain adaptation pipeline that fine-tunes these base models on culturally relevant mental health conversations, with particular attention to region-specific mental health terminology and expressions. This adaptation is crucial as mental health expressions often vary significantly across cultural contexts - for instance, somatic symptoms are more commonly reported than emotional distress in many Indian communities [Murthy, 2017].
SAHAY's cultural sensitivity framework addresses multiple dimensions: recognising culture-specific stigma markers, understanding family-centric expressions of distress common in Indian contexts, and appropriate interpretation of religious and spiritual references in mental health discussions. The system is designed to understand subtle linguistic markers that might indicate distress, such as indirect references to family conflicts or academic pressure, which are significant stress factors in the Indian context [Gaiha et al., 2020; Singh et al., 2016]. This cultural adaptation extends beyond mere language translation, incorporating an understanding of collectivist social structures, religious beliefs, and traditional support systems that play crucial roles in mental health in India. The framework maintains this cultural sensitivity while adhering to clinical standards, creating a bridge between traditional mental health assessment approaches and culturally relevant support mechanisms.
This approach aligns with our broader goal of creating a scalable, culturally competent mental health support system that effectively serves diverse Indian populations while maintaining the high safety and ethics required in mental healthcare applications [Choudhary et al., 2024].
4.2 Ecological Momentary Assessment (EMA) Integration and Real-Time Risk Monitoring
Building upon SAHAY's LLM-based risk detection system, we plan to implement an EMA framework [Shiffman et al., 2008] that enables continuous psychological state monitoring through interactive micro-assessments. The system delivers clinically validated instruments (PHQ-9, GAD-7, CSSRS) through an engaging interface with gamification elements [Mikus et al., 2018], maintaining therapeutic validity while encouraging sustained participation. When the LLM identifies potential risk patterns, it triggers targeted EMA interactions to gather specific information about the user's current state [Torous et al., 2018]. The system integrates EMA responses with passive monitoring data from smartphone sensors and wearables, tracking behavioural indicators like sleep patterns and activity levels. This multi-modal integration enables the LLM to perform more comprehensive risk assessments by comparing self-reported states against objective measures [De Choudhury et al., 2013]. The continuous feedback loop between EMA responses and LLM analysis creates a personalised monitoring system that adapts to individual risk patterns while maintaining engagement [Khosravi et al., 2024].
4.3 AI-Expert Collaboration Framework
Following LLM-based risk detection and real-time risk monitoring, SAHAY aims to implement a structured handoff protocol transitioning identified cases to TeleMANAS' human-led intervention network. Upon risk detection, the system generates a comprehensive assessment package combining the LLM's findings with supporting evidence from multimodal data sources, which is securely transmitted to TeleMANAS Tier-1 counsellors with the AI-generated risk assessment, behavioural patterns, and the temporal sequence of concerning signals that triggered the alert. The system implements priority routing for high-risk cases, ensuring immediate counsellor connection. Tier-1 counsellors provide initial psychological first aid and determine escalation needs to Tier-2 specialists. The system prepares automated referral documentation for specialised intervention by clinical psychologists and psychiatrists for escalated cases. The framework maintains structured clinical documentation of all interactions and interventions, serving as comprehensive care records and feedback data for refining AI detection parameters. The system manages follow-up scheduling based on risk levels and clinical recommendations while monitoring engagement patterns through automated reminders. Throughout this process, AI components function solely as support tools, with all therapeutic decisions residing with mental health professionals. This structured approach ensures a seamless transition from AI-based detection to human-led intervention while maintaining clinical autonomy and accountability through detailed audit logs.
4.4 Longitudinal Care Management System
Following the initial TeleMANAS intervention, SAHAY's longitudinal care systemwill implement structured protocols for sustained mental health monitoring and support. The system coordinates long-term care through an adaptive scheduling algorithm that manages follow-up appointments based on risk assessments, intervention outcomes, and clinical recommendations. The system integrates with TeleMANAS' callback infrastructure, preparing contextual summaries of interventions and behavioural patterns for each follow-up session. For cases requiring specialised care, it facilitates seamless transitions to District Mental Health Programs (DMHPs) and psychiatric facilities through automated referral documentation and care coordination. The system continuously monitors recovery trajectories throughout these transitions through integrated data modalities, including daily activities and physiological markers. The framework maintains comprehensive longitudinal records with strict access controls, enabling authorised providers to access relevant care histories while ensuring privacy. Progress reports are automatically generated for clinical review, allowing care teams to assess intervention effectiveness and adjust treatment plans. The system continues active monitoring until clinical teams determine intensive follow-up is no longer required, transitioning individuals to maintenance protocols while maintaining the capability for reactivation if needed.
5 Deployment Plans with TeleMANAS
Existing Capabilities of TeleMANAS We plan to deploy SAHAY using TeleMANAS, for which NIMHANS is the apex centre. NIMHANS is the premier mental health institution in India and they have demonstrated expertise in scaling digital mental health interventions through technology-driven training and outreach [Malathesh et al., 2021b]. This includes initiatives that successfully trained accredited social health activists (ASHAs) and primary care doctors, reducing the treatment gap for severe mental disorders (SMDs) and substance use disorders (SUDs) [Gakkhar et al., 2023; Malathesh et al., 2021a]. Large-scale programs like TORENT have equipped thousands of rural health workers, leveraging technology to identify, refer to, and manage psychiatric cases in underserved areas [Thakur et al., 2025]. This experience establishes a strong foundation for integrating SAHAY with TeleMANAS, ensuring seamless AI-human collaboration for nationwide mental health support.
TeleMANAS is a centralised mental health support system operating in a two-tier system: Tier-1 consists of trained counsellors providing psychological first aid, psychoeducation, and crisis de-escalation, while Tier-2 comprises mental health professionals handling complex cases. It currently supports mental health care in 20+ regional languages, TeleMANAS processes 7,000+ follow-up calls monthly nationwide.
SAHAY's Deployment Strategy We propose to deploy SAHAY using TeleMANAS's infrastructure, focusing on integrating multi-faceted data sources and AI-driven intervention. Our strategy encompasses three integrated phases as follows:
- Phase 1: Risk Detection and Immediate Support. The initial phase establishes multiple data collection and analysis pathways. We will develop partnerships with social media platforms to monitor opt-in public discourse for distress indicators through sentiment analysis. Simultaneously, we will collaborate with health technology firms to integrate wearable biosensors that track physiological correlates of mental health deterioration, including sleep disturbances, heart rate variability (HRV) patterns, and physical activity deviations. The system incorporates clinically validated psychometric assessment tools: PHQ-9, GAD-7 and C-SSRS, all embedded within a mobile health (mHealth) application. LLMs perform continuous NLP to identify high-risk expressions and generate real-time alerts for human review. The system deploys personalised interventions through EMA - a real-time data collection methodology that provides contextual behavioural insights and enables dynamic adaptation of coping strategies.
- Phase 2: Human-led Intervention and Crisis Response. The second phase activates SAHAY's comprehensive crisis response mechanisms. The system employs AI-driven geospatial analytics to map high-risk suicide hotspots, particularly identifying underserved rural areas with limited access to psychiatric facilities. In response to identified needs, crisis outreach teams are mobilised through partnerships with community-based organisations, extending support beyond digital interventions to provide in-person assistance. Through the TeleMANAS platform, Tier-1 counsellors provide immediate psychological first aid using evidence-based crisis intervention protocols. Tier-2 mental health professionals develop specialised interventions for sustained therapeutic engagement in complex cases. This creates a multi-layered support system where AI-assisted risk assessment guides human-led interventions while ensuring appropriate resource allocation based on severity levels.
- Phase 3: Long-Term Care Transition and Monitoring. The final phase establishes comprehensive pathways for sustained mental healthcare. The system implements automated referral protocols that seamlessly transition high-risk users from digital interventions to human-
led tele-consultations through TeleMANAS' tiered network. Based on standardised clinical assessment protocols, critical cases are directed to DMHPs or inpatient psychiatric facilities. Post-transition care includes AIaugmented follow-up systems that leverage TeleMANAS' extensive callback infrastructure, monitoring treatment adherence and early warning signs of relapse. The system employs longitudinal predictive analytics frameworks to track mental health trajectories over time, enabling continuous optimisation of prevention strategies and intervention protocols.
TeleMANAS Integration and Future Scalability Building upon the established deployment phases, SAHAY's future expansion focuses on deepening integration with TeleMANAS while maintaining system independence. The enhanced integration framework will be implemented through an advanced API-driven workflow system automatically connecting AI-detected high-risk cases with appropriate TeleMANAS counsellors. This integration leverages TeleMANAS' extensive linguistic capabilities, supporting mental health interventions across 22 Indian languages to increase the accessibility of suicide prevention services for diverse linguistic demographics. This is scrutinised by an anonymised datasharing protocol that conducts continual training to refine the AI models further while maintaining strict adherence to privacy regulations and ethical guidelines.
While SAHAY will be deeply integrated with TeleMANAS, it is designed with an independent operational architecture that enables it to function autonomously across various healthcare ecosystems. This flexibility ensures that the AIdriven risk detection and initial intervention components can operate effectively even in settings without immediate TeleMANAS access. Within this framework, TeleMANAS serves as an optimal closure partner, facilitating the transition from AI-based detection and intervention to sustained human-led care. SAHAY's modular and adaptable design enables it to function as a plug-and-play with DPI, which is a scalable, technology-driven backbone designed to address large-scale societal challenges through interoperable and inclusive systems. DPI enables seamless integration across digital and non-digital environments, ensuring accessibility for diverse user groups. Common examples include India's Aadhaar for identity verification and UPI for digital payments, allowing multiple access modes, including online platforms and offline alternatives. By adopting this approach, SAHAY aims to seamlessly integrate with both public and private mental healthcare ecosystems, including platforms like Wysa, Amaha, and Sneha, ensuring broad accessibility and interoperability across the mental health landscape.
6 Project Evaluation
We plan to evaluate the performance of SAHAY based on multiple factors as mentioned below:
- Risk Detection Accuracy: The model should effectively identify at-risk individuals with high precision, recall, and F1-score while minimizing false positives. Evaluation metrics such as AUC-ROC and PR-AUC will be utilized to measure the trade-off between sensitivity and specificity.
- Cross-Lingual Generalization: The model should perform consistently across multiple Indian languages. We will assess its effectiveness across various cross-lingual benchmarking datasets.
- Intervention Effectiveness: The system should provide timely and effective AI-driven interventions, measured through user engagement metrics (AI interaction rates, EMA survey adherence), crisis resolution rates (successful transitions to human-led interventions), and reduction in distress levels (PHQ-9, GAD-7 pre/post intervention scores).
- Ethical Compliance & Bias: The model should remain fair and impartial, ensuring that suicide risk predictions are unbiased across different demographics. We will conduct fairness audits, analyze false alarm rates, and ensure compliance with privacy regulations (DPDP Act, GDPR, HIPAA-equivalent standards) [Singh Sethi et al., 2025].
- Privacy and Safety: Given the sensitive nature of suicide prevention, SAHAY should maintain strict data security protocols through end-to-end encryption, anonymized data pipelines, and AI guardrails to prevent misinformation or harmful responses.
7 Challenges
There are several challenges involved in deploying an AIbased suicide prevention system. Moreover, integrating multimodal data poses a complex challenge: social media text, wearable sensor data, and EMA responses are not only coming from different sources but often show inconsistencies that require robust aggregation and validation (measured by data completeness and inter-source agreement scores). Linguistic and cultural adaptability is another barrier, with most existing AI models being English-centric and failing to capture regional dialects and culturally specific distress signals (evaluated by risk classification accuracy across languages). Risk detection, reporting false positives and false negatives, can either overburden crisis response teams or miss those in crisis, requiring high-precision AI models (measured by F1-score and recall). It is also crucial to ensure seamless AI-human collaboration, where delays in handoffs to TeleMANAS could impact intervention effectiveness (tracked by response time from AI flagging to counsellor engagement). Additionally, privacy and ethical concerns demand strong encryption, anonymisation, and consent frameworks (assessed through compliance with GDPR and the DPDP Act). Finally, long-term care is still challenging as it is important to continue with the engagement post-crisis to prevent relapse, measured by follow-up retention rates and long-term intervention success. Overcoming these challenges will enable SAHAY to scale as a privacy-preserving, clinically effective solution for suicide prevention in India.
8 Risks, Limitations, Ethical Considerations
SAHAY's primary challenges include false positives and false negatives, which require a meticulously designed highprecision AI model with structured AI-human handoff to mitigate such scenarios. Furthermore, as suicide assessments are highly sensitive, data privacy and security remain major concerns. While SAHAY has implemented end-to-end encryption, anonymisation, and strict compliance with GDPR, DPDP Act, and HIPAA-equivalent standards, data misuse and regulatory adherence concerns remain [Singh Sethi et al., 2025]. Although SAHAY integrates multimodal data and TeleMANAS interventions, its effectiveness depends on realworld resource availability, the geolocation in which crisis events unfold, and the generalizability of AI across different population demographics. Ethical frameworks focus on user autonomy, informed consent, and bias mitigation. Additionally, there are challenges of AI decision-making being non-transparent, users being unable to override an AI decision, and third-party auditors being unable to observe AI's inner workings to validate fairness. Addressing these concerns is essential for SAHAY/'s scalable, ethical, and effective deployment.
9 Expected Results and Long-TermPlans
SAHAY aims to improve early identification of suicide risk, AI-assisted crisis response, and privacy-preserving mental health support. The expected outcomes include precise patient risk classification, seamless AI-human intervention, and better accessibility through multilingual adaptation. Structured human-led support with TeleMANAS integration and longitudinal follow-up to prevent relapse. Eventually, SAHAY will develop into a country-wide system of AI-powered suicide intervention that folds in regional language support, personalised interventions, and geo-spatial risk mapping. Future directions of research include global adaptation targeting low-resource settings, near-zero treatment gap [Kumar et al., 2022], cost-effective intervention with high return on investment [Maheshwari et al., 2024] and policy advocacy for AI-assisted mental health care. SAHAY envisions redefining mental health intervention in India and the global context by bridging gaps in detection, scalability, and ethical AI deployment.
10 Conclusion
In this proposal, we proposed a comprehensive plan to deploy SAHAY, the first-of-its-kind scalable AI-predictive suicide prevention model that fully integrates prediction, prevention and access to treatment, thus bridging the gap between risk identification and real-world intervention. Unlike existing AI models focusing on either prediction or intervention, SAHAY operates as a closed-loop system by integrating multimodal risk detection and assessment, AI-driven early intervention and structured human-led support. Additionally, the seamless integration with TeleMANAS will help create structured referrals to ensure timely and accessible mental health care. In the long term, we intend SAHAY to be accessible to the broad diversity of populations and scalable through a modular DPI as a deployment platform that can integrate into existing public health initiatives, influencing AI-driven mental health policy. Finally, it will ensure early detection, realtime intervention, and continuous support and potentially redefine AI-assisted suicide prevention in India and beyond.
Acknowledgments
We acknowledge the generous support from Tower Research Capital Markets for funding our work on applying machine learning for social good.
@inproceedings{ijcai2025p1096,
title = {SAHAY: Multimodal, Privacy-Preserving AI for Suicide Risk Detection and Intervention in India},
author = {Singh, Salam Michael and Sethi, Manik Inder Singh and Math, Suresh Bada and Chakraborty, Tanmoy},
booktitle = {Proceedings of the Thirty-Fourth International Joint Conference on
Artificial Intelligence, {IJCAI-25}},
publisher = {International Joint Conferences on Artificial Intelligence Organization},
editor = {James Kwok},
pages = {9862--9870},
year = {2025},
month = {8},
note = {AI and Social Good},
doi = {10.24963/ijcai.2025/1096},
url = {https://doi.org/10.24963/ijcai.2025/1096},
}
TY - CPAPER TI - SAHAY: Multimodal, Privacy-Preserving AI for Suicide Risk Detection and Intervention in India AU - Singh, Salam Michael AU - Sethi, Manik Inder Singh AU - Math, Suresh Bada AU - Chakraborty, Tanmoy T2 - Proceedings of the Thirty-Fourth International Joint Conference on Artificial Intelligence, IJCAI-25 PB - International Joint Conferences on Artificial Intelligence Organization PY - 2025 SP - 9862 EP - 9870 DO - 10.24963/ijcai.2025/1096 UR - https://doi.org/10.24963/ijcai.2025/1096 ER -Copied
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