Beneficiary Identity Systems

Beneficiary identity systems establish unique records for individuals receiving services from humanitarian or social protection programmes. These platforms provide registration workflows, deduplication capabilities, and identity verification mechanisms that enable organisations to track service delivery, prevent fraud, and coordinate across programmes. The architectural scope ranges from lightweight registration modules integrated with data collection tools to national-scale foundational identity platforms supporting biometric enrolment and credential issuance.

Requirements taxonomy

This taxonomy defines evaluation criteria for beneficiary identity systems. Requirements are organised by functional area with priority levels reflecting typical humanitarian and social protection contexts. Adjust weights based on specific programme requirements, regulatory environment, and integration landscape.

Functional requirements

Core capabilities defining what the system must accomplish for beneficiary identity management.

Registration and enrolment

Identity resolution

Credential management

Registry management

Programme integration

Technical requirements

Infrastructure, architecture, and deployment considerations.

Deployment and hosting

Scalability and performance

Integration architecture

Security requirements

Security controls and data protection capabilities critical for identity systems.

Authentication and access control

Data protection

Security assurance

Operational requirements

Administration, monitoring, and support considerations.

Administration

Monitoring and observability

Backup and recovery

Support and maintenance

Data management requirements

Data portability, interoperability, and lifecycle considerations.

Import and migration

Export and portability

Comparison matrices

Identity stack positioning

Each platform addresses different layers of the beneficiary identity architecture:

Rating: ● Full capability | ◐ Partial capability | ○ Not primary function

Assessment notes:

• MOSIP provides foundational identity infrastructure at national scale; organisations connect as relying parties
• OpenCRVS specialises in birth, death, and marriage registration with certificate issuance
• OpenSRP delivers health worker-facing registration within FHIR-native architecture
• OpenG2P manages social protection programme registration with payment integration
• Simprints provides biometric capture and matching for integration with other systems

Functional capability matrices

Registration and enrolment

Assessment notes:

• MOSIP: Registration Client supports offline biometric capture with quality assessment; demographic schema configurable per deployment
• OpenCRVS: Designed for field-based vital event registration with offline-first architecture; supports community health worker submission
• OpenSRP: FHIR-native registration with configurable questionnaires; integrates with CommCare, ODK for data collection
• OpenG2P: ODK-based field registration with offline capability; relies on external systems for biometrics
• Simprints: Focused on biometric capture; demographic data managed by calling application (CommCare, DHIS2)

Identity resolution

Assessment notes:

• MOSIP: ABIS integration for biometric deduplication at population scale; supports multiple commercial and open source matchers
• OpenCRVS: Elasticsearch-based fuzzy matching for demographic deduplication; no native biometric capability
• OpenSRP: FHIR-based patient matching using MDM (Master Data Management) module from HAPI FHIR
• OpenG2P: Integrates with MOSIP for biometric deduplication; demographic matching via configurable rules
• Simprints: Core competency in biometric matching; supports 1:1 verification and 1:N identification within enrolled populations

Credential management

Assessment notes:

• MOSIP: Inji wallet for verifiable credentials; configurable ID card templates with security features
• OpenCRVS: Certificate generation for birth, death, marriage with configurable templates; QR code verification
• OpenSRP: Relies on external systems for ID management; generates programme-specific identifiers
• OpenG2P: Verifiable credential support for beneficiary authentication; integration with print providers
• Simprints: No credential issuance; biometric template serves as credential for verification

Technical capability matrices

Deployment characteristics

Integration architecture

Standards compliance

Assessment notes:

• MOSIP: eSignet provides OpenID Connect compliant authentication; Inji implements W3C VC
• OpenCRVS: FHIR-inspired data model but not fully FHIR-compliant; OpenID Connect for authentication
• OpenSRP: FHIR Core is fully FHIR R4 native; designed for WHO Smart Guidelines implementation
• OpenG2P: G2P Connect alignment for interoperability with payment systems
• Simprints: ISO biometric standards compliance; limited protocol standardisation

Security capability matrices

Authentication and access control

MFA methods supported:

Data protection

Assessment notes:

• MOSIP: Zero-knowledge architecture; biometric templates stored encrypted with HSM key management
• OpenCRVS: Field-level encryption for sensitive data; comprehensive audit logging
• OpenSRP: Android device encryption; server-side database encryption
• OpenG2P: Odoo security model with field-level access controls
• Simprints: PolyProtect biometric template protection; on-device encryption

Security assurance

Assessment notes:

• MOSIP: Regular security assessments; published security architecture documentation
• OpenCRVS: Independent security audits conducted; DPG certified
• OpenSRP: Digital Square Global Good; community security review
• OpenG2P: DPG certified; security review as part of certification
• Simprints: ISO 27001 compliant processes; biometric security research published

Operational capability matrices

Administration and support

Recent release history:

Individual tool assessments

MOSIP

Overview

MOSIP (Modular Open Source Identity Platform) provides infrastructure for building national-scale foundational identity systems. The platform encompasses the complete identity lifecycle from registration through credential issuance and authentication. Governments deploy MOSIP to establish digital identity programmes serving entire populations, with production implementations in Philippines (PhilSys), Ethiopia (Fayda), Morocco, and ten additional countries representing over 100 million enrolled individuals.

The architecture follows microservices principles with independent modules for pre-registration, registration, identity repository, authentication, and credential management. Each module exposes well-defined APIs enabling integration with country-specific systems while maintaining interoperability across implementations. The platform achieves vendor neutrality through abstraction layers for biometric devices, matching algorithms, and credential formats.

For humanitarian organisations, MOSIP serves primarily as infrastructure to integrate with rather than deploy directly. Organisations operating in countries with MOSIP-based national ID systems can leverage existing identity infrastructure for beneficiary verification, reducing registration burden and improving deduplication across programmes.

Capability assessment for beneficiary identity

MOSIP excels at foundational identity establishment but requires substantial infrastructure investment unsuitable for programme-level deployment. The Registration Client supports offline biometric enrolment with quality assessment, demographic data capture, and supporting document attachment. Configurable registration workflows accommodate country-specific requirements including introducer-based registration for individuals without prior identity documentation.

The ID Repository provides deduplication through ABIS (Automated Biometric Identification System) integration supporting both proprietary and open source matchers. Quality thresholds are configurable per deployment, enabling balance between false reject rates and duplicate prevention. The platform’s authentication services enable relying parties to verify identities through biometric, demographic, or OTP-based mechanisms.

Inji, MOSIP’s digital credential wallet, implements W3C Verifiable Credentials enabling offline-capable identity verification. Beneficiaries store credentials on mobile devices and present them to service providers without requiring real-time connectivity to the identity system. eSignet provides OpenID Connect compliant authentication for service providers to verify identity claims.

Key strengths

1. National-scale architecture: Proven deployments serving populations exceeding 100 million with documented scalability characteristics
2. Biometric sophistication: Multi-modal biometric support (fingerprint, iris, face) with quality assessment, liveness detection, and configurable matching thresholds
3. Vendor neutrality: Abstraction layers prevent lock-in to specific biometric device vendors or matching algorithms
4. Security architecture: Zero-knowledge design minimising data exposure; HSM-based key management for biometric template protection
5. Ecosystem maturity: Active partner programme with system integrators, biometric vendors, and credential providers

Key limitations

1. Deployment complexity: Kubernetes-native architecture requires substantial infrastructure expertise; minimum 16 CPU cores and 32GB RAM for basic deployment
2. Implementation timeline: Country implementations require 12-24 months for configuration, integration, and rollout
3. Programme-level mismatch: Designed for government-scale deployment rather than NGO programme needs; overkill for most humanitarian use cases
4. Integration overhead: Connecting as a relying party requires technical capacity for API integration and credential verification
5. Cost structure: While software is free, implementation requires significant system integration investment

Deployment and operations

MOSIP deployment requires Kubernetes orchestration with Helm charts provided for component installation. A minimal development environment requires:

# Minimum cluster resources for MOSIP sandbox
nodes: 3
cpu_per_node: 8 cores
memory_per_node: 32GB
storage: 500GB SSD

Production deployments supporting millions of registrations require substantially larger infrastructure with high availability configuration across availability zones. The platform provides Rancher-based deployment automation for cloud environments.

Operational overhead is significant, requiring dedicated teams for:

• Infrastructure management (Kubernetes, databases, message queues)
• Security operations (HSM management, certificate rotation, audit review)
• Application support (registration client distribution, biometric device management)
• Integration maintenance (ABIS connectivity, credential issuance)

Integration capabilities

Cost analysis

Organisational fit

• Governments establishing national ID: Primary use case; comprehensive platform for foundational identity
• Large humanitarian organisations: Consider as integration target in countries with MOSIP deployment
• Programme-level registration: Not recommended; complexity exceeds requirements
• NGOs: Integration consumer rather than platform deployer

OpenCRVS

Overview

OpenCRVS provides digital infrastructure for civil registration, enabling governments to record births, deaths, marriages, and divorces while generating vital statistics. The platform addresses the challenge that one billion people globally lack birth registration, preventing access to education, healthcare, and legal protections. Built specifically for low-resource settings, OpenCRVS operates offline and supports community-based registration through health facilities and local officials.

The architecture separates the core platform from country-specific configuration, enabling governments to customise registration forms, certificate templates, administrative hierarchies, and workflow rules without modifying source code. A reference implementation for the fictional country “Farajaland” demonstrates configuration capabilities and serves as a starting point for new deployments.

Production implementations operate in Bangladesh, Liberia, and several additional countries with pilots underway across Africa and Asia. The platform integrates with health information systems for notification of births and deaths occurring in facilities, improving registration completeness.

Capability assessment for beneficiary identity

OpenCRVS establishes legal identity through civil registration rather than functional identity for programme purposes. Birth certificates issued through the platform serve as foundational documents for subsequent identity establishment. The platform’s value for humanitarian programmes lies in providing authoritative demographic data for verification rather than direct beneficiary registration.

The registration workflow supports field-based data collection through mobile devices operating offline. Health workers, community volunteers, or registration officials capture vital event information and upload when connectivity allows. Configurable validation rules ensure data quality before supervisor review and registration approval.

Deduplication relies on Elasticsearch-based fuzzy matching of demographic data without biometric capability. The matching algorithm identifies potential duplicates based on name similarity, date of birth, and location, presenting candidates for manual review. This approach suits vital statistics contexts where duplicate birth registration is uncommon but provides limited protection against identity fraud in programme contexts.

Key strengths

1. Vital statistics focus: Purpose-built for civil registration with strong alignment to UN standards and interoperability guidelines
2. Low-resource optimisation: Designed for offline operation, low-bandwidth synchronisation, and deployment on modest infrastructure
3. Certificate issuance: Configurable certificate templates with security features and QR-based verification
4. Health system integration: FHIR-based interoperability for birth/death notifications from health facilities
5. Rapid deployment: Country configuration achievable in weeks rather than months; reference implementation accelerates customisation

Key limitations

1. Vital events only: Limited to birth, death, marriage, divorce registration; not designed for programme beneficiary management
2. No biometric capability: Demographic matching only; unsuitable for contexts requiring biometric deduplication
3. Government focus: Designed for civil registration authorities; limited applicability for NGO programme registration
4. Identity verification gap: Establishes identity documents but doesn’t provide verification services for relying parties
5. Scale constraints: Optimised for vital statistics workloads rather than high-transaction programme delivery

Deployment and operations

OpenCRVS deployment uses Docker Swarm or Kubernetes with infrastructure requirements modest compared to MOSIP:

# Minimum deployment resources
nodes: 3
cpu_total: 8 cores
memory_total: 16GB
storage: 200GB SSD

The platform provides automated deployment scripts and environment provisioning tools. Country configuration involves:

• Administrative hierarchy definition
• Registration form customisation
• Certificate template design
• User role and permission configuration
• Integration endpoint setup

Operational requirements include:

• Database backup management (MongoDB)
• Search index maintenance (Elasticsearch)
• Certificate stock and security feature management
• User account administration

Integration capabilities

Cost analysis

Organisational fit

• Governments establishing civil registration: Primary use case
• Humanitarian organisations: Limited direct applicability; potential data source for identity verification
• Programme registration: Not recommended; scope mismatch
• Identity verification: Potential integration for birth certificate verification

OpenSRP

Overview

OpenSRP (Open Smart Register Platform) enables frontline health workers to manage patient populations through mobile applications. The platform digitises paper-based registers used in community health programmes, providing decision support, service tracking, and reporting capabilities. With deployments in 14 countries and over 150 million patients registered, OpenSRP demonstrates scale and maturity in health service delivery contexts.

The FHIR Core architecture (OpenSRP 2) represents a complete platform rebuild using HL7 FHIR as the native data model. This design enables implementation of WHO Smart Guidelines, providing standardised clinical workflows that can be configured for specific programmes. The Android application works offline with synchronisation when connectivity allows, essential for community health workers operating in remote areas.

For beneficiary identity, OpenSRP provides client registration and tracking within health programmes rather than foundational identity establishment. The platform excels at longitudinal patient records, vaccination tracking, and service delivery documentation. Integration with national health information systems (typically DHIS2) enables aggregate reporting while maintaining individual records for continuity of care.

Capability assessment for beneficiary identity

OpenSRP registration captures demographic data through configurable questionnaires aligned with FHIR Patient and RelatedPerson resources. The platform supports household-based registration linking family members, important for programmes targeting mothers and children. Unique identifiers are generated locally with reconciliation during synchronisation.

Client matching uses HAPI FHIR’s Master Data Management (MDM) module for deduplication based on demographic attributes. The matching rules are configurable but limited to non-biometric comparison. Integration with Simprints enables biometric identification for deployments requiring stronger deduplication, though this requires additional configuration and licensing.

The platform’s strength lies in longitudinal tracking rather than one-time registration. Health workers see complete client histories, upcoming service requirements, and decision support prompts. This operational model suits programmes with ongoing service delivery (immunisation, ANC, nutrition) rather than one-time registration for cash transfers.

Key strengths

1. FHIR-native architecture: Standards-compliant data model enabling interoperability with health information systems
2. WHO Smart Guidelines: Configurable implementation of standardised clinical protocols
3. Offline operation: Complete functionality without connectivity; efficient synchronisation when available
4. Scale evidence: 150+ million patient registrations across 14 countries demonstrates production readiness
5. Health ecosystem integration: Native connectivity with DHIS2, HAPI FHIR, and health information exchanges

Key limitations

1. Health programme focus: Optimised for clinical service delivery rather than general beneficiary registration
2. Android dependency: Mobile application Android-only; no iOS or web registration interface
3. Limited biometrics: Native deduplication demographic-only; biometrics require Simprints integration
4. Configuration complexity: FHIR knowledge required for questionnaire and workflow customisation
5. Server infrastructure: Requires HAPI FHIR server deployment with ongoing maintenance

Deployment and operations

OpenSRP FHIR Core deployment involves Android application distribution and HAPI FHIR server infrastructure:

# Server requirements
cpu: 4-8 cores
memory: 8-16GB RAM
storage: 100GB+ SSD
database: PostgreSQL

The Android application is configured per deployment with:

• Questionnaire definitions (FHIR Questionnaire resources)
• Workflow rules (CQL expressions)
• Synchronisation parameters
• UI customisation

Operational considerations:

• Device management for field deployment
• Server backup and maintenance
• Synchronisation monitoring
• Application update distribution

Integration capabilities

Cost analysis

Organisational fit

• Health programmes: Primary use case; immunisation, maternal health, nutrition
• Community health workers: Excellent fit for CHW-based service delivery
• General programme registration: Possible but not optimised; consider OpenG2P
• Cash transfer programmes: Not recommended; lacks payment integration
• Biometric requirements: Requires Simprints integration

OpenG2P

Overview

OpenG2P provides building blocks for government-to-person (G2P) transfer programmes, enabling social protection agencies to manage beneficiary registries, determine eligibility, and orchestrate payments. The platform emerged from IIIT Bangalore (also home to MOSIP) as a Digital Public Good addressing the digitisation of social benefit delivery. OpenG2P positions itself as a key component of Digital Public Infrastructure, interoperating with national ID systems, payment providers, and programme management systems.

The architecture comprises modular components: Social Registry for beneficiary data management, Programme and Beneficiary Management System (PBMS) for programme administration, and integration layers for identity verification and payment execution. Built on Odoo ERP, OpenG2P inherits mature enterprise capabilities while extending them for social protection contexts.

For humanitarian organisations, OpenG2P provides directly applicable functionality for programme-level beneficiary registration and management. The platform handles the complete cycle from registration through eligibility assessment, enrolment, and payment tracking. Integration with MOSIP enables biometric deduplication, while G2P Connect alignment facilitates payment provider connectivity.

Capability assessment for beneficiary identity

OpenG2P Social Registry maintains beneficiary demographic data with support for individual and household registration. Field registration uses ODK-based data collection operating offline, with validation and deduplication on synchronisation. The registry supports multiple programmes sharing beneficiary data while maintaining programme-specific enrolment status.

Eligibility determination uses configurable rules including Proxy Means Testing (PMT) formulas that calculate scores from demographic and socioeconomic variables. The eligibility engine supports categorical targeting (age, disability status), geographic targeting, and combined approaches. Batch processing enables periodic eligibility reassessment across large populations.

Identity verification integrates with MOSIP for biometric authentication and demographic verification against national ID data. Verifiable credentials enable offline-capable beneficiary authentication at distribution points. For contexts without national ID infrastructure, OpenG2P operates with self-asserted identity and demographic deduplication.

Key strengths

1. Purpose-built for social protection: Direct alignment with cash transfer, food assistance, and social welfare programme requirements
2. Eligibility engine: Configurable rules supporting PMT, categorical targeting, and combined approaches
3. Payment integration: G2P Connect alignment for connectivity with banks, mobile money, and payment aggregators
4. MOSIP integration: Native biometric deduplication and identity verification through MOSIP APIs
5. DPG certification: Digital Public Goods Alliance recognition validates governance and sustainability

Key limitations

1. Early maturity: Fewer production deployments than alternatives; documentation still developing
2. Odoo dependency: Built on Odoo ERP requiring familiarity with Odoo ecosystem and architecture
3. Integration complexity: Full capability requires MOSIP and payment provider integrations
4. Limited biometric: No native biometric capability; relies on external systems (MOSIP, Simprints)
5. Government orientation: Designed for government social protection; humanitarian adaptation may require customisation

Deployment and operations

OpenG2P deployment uses Docker containers with PostgreSQL database:

# Minimum deployment resources
cpu: 4 cores
memory: 8GB RAM
storage: 100GB SSD
database: PostgreSQL 14+

Configuration involves:

• Programme definition and eligibility rules
• Registration form customisation
• Integration setup (MOSIP, payment providers)
• User roles and permissions
• Reporting dashboard configuration

Operational requirements:

• Odoo administration skills
• Database backup and maintenance
• Integration monitoring
• Eligibility rule maintenance

Integration capabilities

Cost analysis

Organisational fit

• Government social protection: Primary use case
• Humanitarian cash transfers: Strong fit with programme management capabilities
• Food assistance programmes: Applicable with distribution tracking
• Integration-heavy contexts: Consider when MOSIP and payment systems available
• Standalone registration: Possible but Simprints may be simpler for biometric needs

Simprints

Overview

Simprints provides biometric identification technology designed specifically for humanitarian and health contexts. The nonprofit organisation, originating from Cambridge University, focuses on last-mile identification challenges where traditional identity documents are unavailable or unreliable. SimprintsID, the open source Android application, captures fingerprint and face biometrics for integration with data collection platforms like CommCare, DHIS2, and ODK.

The platform addresses the critical humanitarian challenge of beneficiary identification without assuming national identity infrastructure or document availability. By integrating biometrics into existing data collection workflows, Simprints enables deduplication and identity verification at distribution points, vaccination campaigns, and service delivery locations.

With 2.5 million enrolments across 17 countries, Simprints demonstrates production readiness in challenging field conditions. Partnerships with Gavi, ministries of health, and humanitarian organisations validate the platform’s effectiveness for vaccine delivery, maternal health, and cash assistance programmes.

Capability assessment for beneficiary identity

SimprintsID operates as an identification module called from host applications rather than a standalone registration system. The Android app captures biometrics (fingerprint via Vero scanner, face via device camera), generates templates, and returns match results to the calling application. Demographic data management remains with the host application (CommCare, DHIS2), while Simprints handles biometric matching.

The biometric pipeline includes quality assessment ensuring captured samples meet matching thresholds, template extraction, and storage (locally or cloud-based). Identification queries search enrolled populations returning candidate matches ranked by similarity score. Verification confirms claimed identity through one-to-one comparison against stored template.

Large-scale deduplication for programme launches uses the backend deduplication service processing entire registries to identify duplicate enrolments. This batch capability complements real-time identification during registration, providing comprehensive duplicate prevention.

Key strengths

1. Field-optimised biometrics: Hardware and algorithms designed for challenging capture conditions (dirty fingers, harsh lighting, low-end devices)
2. Integration architecture: Android Intent interface enables integration with any Android data collection application
3. Multiple modalities: Fingerprint (Vero scanner) and face (device camera) support different context requirements
4. Humanitarian focus: Nonprofit mission alignment with ethical biometric use and privacy protection
5. Offline capability: Local matching for connectivity-constrained environments

Key limitations

1. Biometrics only: No demographic data management; requires host application for beneficiary records
2. Android exclusive: No iOS or web interface; limits device flexibility
3. Hardware dependency: Fingerprint capture requires Vero scanner ($200-300 per unit)
4. Scale constraints: Backend deduplication capacity limited compared to enterprise ABIS systems
5. Transitional licensing: Recent open source transition; ecosystem maturity developing

Deployment and operations

Simprints deployment involves Android application installation and backend configuration:

# Backend requirements (self-hosted)
cpu: 2-4 cores
memory: 4-8GB RAM
storage: 50GB+ SSD

Integration requires:

• Host application configuration (CommCare, DHIS2, ODK)
• Backend setup (cloud or self-hosted)
• Vero scanner procurement and distribution
• User training on capture procedures

Operational considerations:

• Device and scanner management
• Biometric template backup
• Quality monitoring
• Algorithm updates

Integration capabilities

Cost analysis

Organisational fit

• Vaccination campaigns: Excellent fit; proven deployments with Gavi partners
• Cash distribution: Strong fit for verification at distribution points
• Health programmes: Good integration with CommCare, DHIS2 workflows
• Large-scale registration: Consider when biometric deduplication required without national ID
• Document-poor populations: Primary value proposition

Selection guidance

Decision framework

                           +------------------+
                           | What is the      |
                           | primary need?    |
                           +--------+---------+
                                    |
          +-------------------------+-------------------------+
          |                         |                         |
          v                         v                         v
+------------------+     +------------------+     +------------------+
| National-scale   |     | Programme-level  |     | Biometric        |
| foundational ID  |     | beneficiary      |     | identification   |
|                  |     | management       |     |                  |
+--------+---------+     +--------+---------+     +--------+---------+
         |                        |                        |
         v                        v                        v
+------------------+     +------------------+     +------------------+
|     MOSIP        |     | What programme   |     |   Simprints      |
| (government-led  |     | context?         |     | (integrate with  |
|  implementation) |     |                  |     |  data collection)|
+------------------+     +--------+---------+     +------------------+
                                  |
                   +--------------+--------------+
                   |              |              |
                   v              v              v
          +---------------+ +------------+ +-------------+
          | Health        | | Social     | | Civil       |
          | service       | | protection | | registration|
          | delivery      | | / cash     | |             |
          +-------+-------+ +-----+------+ +-----+-------+
                  |               |              |
                  v               v              v
          +---------------+ +------------+ +-----------+
          |   OpenSRP     | |  OpenG2P   | | OpenCRVS  |
          |   FHIR Core   | |            | |           |
          +---------------+ +------------+ +-----------+

Recommendations by context

Governments establishing foundational identity

Primary recommendation: MOSIP

National identity programmes require the comprehensive architecture MOSIP provides. The platform’s modular design accommodates country-specific requirements while maintaining interoperability standards enabling ecosystem development. Consider timeline of 12-24 months for implementation with substantial system integration investment.

Alternative: Start with civil registration

Countries without existing identity infrastructure may begin with OpenCRVS to establish birth registration, creating foundation for subsequent national ID programme. Birth certificates provide authoritative identity documents while building registration capacity.

Humanitarian organisations managing beneficiary programmes

Primary recommendation: OpenG2P with Simprints integration

OpenG2P provides programme management capabilities (eligibility, enrolment, payment tracking) while Simprints adds biometric deduplication for contexts lacking reliable identity documents. This combination addresses the complete beneficiary management lifecycle.

Alternative: Simprints with existing data collection

Organisations with established CommCare, DHIS2, or ODK deployments can add Simprints for biometric identification without changing registration systems. This approach minimises disruption while adding deduplication capability.

Health programmes with longitudinal tracking

Primary recommendation: OpenSRP FHIR Core

Immunisation programmes, maternal health services, and community health worker deployments benefit from OpenSRP’s health-optimised workflows and WHO Smart Guidelines support. The FHIR-native architecture enables health information exchange and standards compliance.

Alternative: CommCare with Simprints

Organisations already invested in CommCare can achieve health tracking with biometric identification through Simprints integration rather than platform migration. Consider OpenSRP for new deployments or when FHIR compliance is required.

Countries with existing MOSIP deployment

Primary recommendation: Integration rather than parallel registration

Humanitarian organisations in MOSIP-implementing countries should integrate as relying parties rather than establishing separate identity systems. Use eSignet for authentication and Inji credentials for verification. This approach leverages existing infrastructure while avoiding duplicate registration.

Integration pattern:

1. Register programme in MOSIP partner portal
2. Configure eSignet integration for beneficiary authentication
3. Accept Inji credentials for identity verification
4. Use MOSIP demographic verification for additional validation

Migration paths

From paper-based registration to digital

1. Begin with Simprints + existing data collection (CommCare, ODK)
2. Add biometric deduplication during registration
3. Consider OpenG2P when programme management complexity increases
4. Integrate with national ID systems as they become available

From standalone to national ID integration

1. Maintain programme registration while national ID deploys
2. Implement identity verification against national database
3. Link programme records to national ID as beneficiaries enrol
4. Transition to national ID as primary identifier over time

From single programme to social protection platform

1. Start with programme-specific registration
2. Implement OpenG2P Social Registry for cross-programme data
3. Add eligibility engine for targeting
4. Integrate payment orchestration for disbursement

Resources and references

Official documentation

Relevant standards

Related procurement resources

See also

• Beneficiary Registration and Identity -Conceptual overview of beneficiary identity management
• CVA Platforms -Cash and voucher assistance delivery systems
• Case Management Systems -Individual tracking for protection services
• Data Collection Tools -Mobile registration interfaces
• Data Protection Policy -Organisational data protection requirements
• Protection Data Principles -Do no harm considerations for identity systems