Fostering the integration of ABS into National Biodiversity Strategy and Action Plans (NBSAP)

This building block supports the integration of ABS and biotrade into National Biodiversity Strategies and Action Plans (NBSAPs), aligning them with the Global Biodiversity Framework - particularly Target 13 - and fostering synergies with other instruments, such as the International Treaty on Plant Genetic Resources for Food and Agriculture. 

ABS mainstreaming involves embedding ABS into policies and plans across sectors such as trade, agriculture, health, finance, and research, rather than limiting its implementation to conservation authorities. At the 13th Pan-African ABS and Biotrade Workshop, participants discussed challenges, including limited funding, complex regulations, and insufficient involvement of non-environmental ministries. They explored Whole-of-Government and Whole-of-Society approaches, with a strong focus on private sector engagement in valorisation to generate socio-economic benefits.

Country examples, such as Uganda’s multisectoral working group involving local authorities, NGOs, IPLCs, and businesses, showed how early stakeholder mapping, integration into national development plans, and cross-sector collaboration can make ABS integration into NBSAPs more practical, inclusive, and impactful.

Success was supported by an interactive format combining expert inputs, panel discussions, and concrete country cases. Contributions from organisations such as FAO and UNEP broadened perspectives. Building on outcomes from a previous workshop ensured continuity, while structured guiding questions helped participants identify challenges, and to align ABS with other instruments, (such as the International Treaty on Plant Genetic Resources for Food and Agriculture) and define practical steps for mainstreaming in their national contexts.

Mainstreaming ABS into NBSAPs is most effective when positioned as both a conservation tool and an economic opportunity. Workshop discussions showed that broader stakeholder involvement is essential: it goes beyond ministries for environment or conservation and includes sectors such as trade, agriculture, health, finance, research, and users such as the private sector and research institutions. 

Synergies with the International Treaty on Plant Genetic Resources for Food and Agriculture can strengthen coherence and align benefit-sharing across instruments. Early stakeholder mapping involving local authorities, IPLCs, NGOs, and businesses builds ownership and helps address monitoring and data gaps. 

Valorisation strategies, industry-wide agreements, and Whole-of-Government and Whole-of-Society approaches ensure ABS is embedded in business models, policy frameworks, and community initiatives, creating sustainable value chains and fostering long-term ABS integration.

Treelings

1. Digital MRV (Measurement–Reporting–Verification) System

  • What it is: AI-powered monitoring platform combining drones, satellite imagery, and blockchain verification.
  • Why it matters: Ensures transparency, traceability, and credibility of every planted tree.
  • Transferability: Can be adapted to monitor other nature-based solutions (wetlands, grasslands, mangroves, etc.).

2. Blockchain-Verified Tree Registry & Certificates

  • What it is: Each planted tree is assigned a digital ID and certificate stored on blockchain.
  • Why it matters: Builds trust with funders, companies, and individuals by proving tree ownership and survival.
  • Transferability: Applicable to carbon markets, biodiversity credits, or ecosystem services accounting.

3. Youth Volunteer Engagement Model

  • What it is: Mobilization of students and local youth (e.g., “Green Volunteers”) for tree planting, maintenance, and awareness-building.
  • Why it matters: Builds long-term stewardship and community ownership of restored areas.
  • Transferability: Can be replicated for climate education, waste management, or community energy projects.

4. Corporate Partnership & CSR Integration

  • What it is: Businesses (telecom, finance, events, resorts, etc.) co-finance tree groves as part of CSR/ESG strategies.
  • Why it matters: Provides sustainable funding for reforestation while aligning with companies’ branding and SDG goals.
  • Transferability: Can be applied to other green initiatives (renewables, circular economy, eco-labels).

5. Three-Year Maintenance & Survival Guarantee

  • What it is: Each planting project includes watering, fencing, and maintenance for at least 3 years.
  • Why it matters: Addresses high mortality rates in tree planting, ensuring long-term carbon sequestration.
  • Transferability: Maintenance-first approach can be adopted in agriculture, conservation, or infrastructure projects.

6. Community Education & Reward System

  • What it is: Local residents and households (e.g., ger districts) participate and receive recognition, small rewards, or utility discounts.
  • Why it matters: Incentivizes grassroots climate action and strengthens community buy-in.
  • Transferability: Rewards model can support recycling, clean cooking, or water conservation programs.

Digital MRV (Measurement–Reporting–Verification) System

Purpose:
To ensure that every tree planted is measurable, reportable, and verifiable in a transparent way. It solves the credibility gap in reforestation projects, where funders often cannot confirm survival or carbon impact.

How it works:
Treelings deploys drones and satellites to capture high-resolution imagery. AI algorithms detect tree survival, growth, and canopy cover. These data points are stored and shared through a user dashboard. The system reduces manual error, provides near-real-time monitoring, and can be adapted to other ecosystems.

Digital MRV (Measurement–Reporting–Verification) System

Enabling Conditions:

  • Reliable internet and cloud infrastructure for data transfer and storage.
  • Access to drones, satellite imagery, and AI/remote sensing expertise.
  • Technical capacity for system calibration and algorithm training.
  • Open collaboration with local authorities for field data validation.

2. Blockchain-Verified Tree Registry & Certificates

Enabling Conditions:

  • A functioning blockchain environment and smart contract platform.
  • Partnerships with IT developers and registry operators.
  • Clear project metadata (species, GPS coordinates, planting date).
  • Stakeholder willingness to adopt digital certification instead of traditional paperwork.

3. Youth Volunteer Engagement Model

Enabling Conditions:

  • Strong partnerships with schools, universities, and youth NGOs.
  • Training and safety guidelines for fieldwork.
  • Incentive structures (certificates, recognition, or small stipends).
  • Community support to integrate youth efforts into broader reforestation projects.

4. Corporate Partnership & CSR Integration

Enabling Conditions:

  • Corporate buy-in and alignment with ESG/SDG reporting frameworks.
  • Transparent communication of impact metrics (e.g., survival rates, CO₂ captured).
  • Marketing/branding benefits clearly outlined for partners.
  • Legal agreements covering co-branding, funding flows, and monitoring obligations.

5. Three-Year Maintenance & Survival Guarantee

Enabling Conditions:

  • Upfront financing that includes maintenance costs, not just planting.
  • Reliable local partners to execute watering, fencing, and replanting.
  • Monitoring protocols (app reports, drone flights, survival surveys).
  • Community involvement to reduce risks of neglect or damage.

6. Community Education & Reward System

Enabling Conditions:

  • Collaboration with local authorities and utilities to provide rewards (discounts, recognition).
  • Simple, accessible communication materials (visuals, local language).
  • Mechanisms for households to record participation (e.g., app, QR codes).
  • Ongoing awareness campaigns to maintain motivation.

 

 

 

 

 

Prioritizing full-time employment for women and part-time roles for men to promote gender equity in production.

This building block ensures that women are prioritized for full-time employment across Sparsa’s production value chain from manufacturing banana fiber paper at the fiber factory to producing menstrual pads at the pad factory. These roles provide women with steady income, skills training, and economic empowerment, aligning with Sparsa’s mission of gender-responsive entrepreneurship. 
Men, on the other hand, are hired as seasonal workers during the banana harvest season. After farmers harvest bananas, Sparsa’s two male seasonal workers visit farms to cut and collect banana trunks, which are the raw material used to produce fiber. These trunks are then transported to the fiber factory for processing. This arrangement ensures a fair distribution of labor, with women at the core of value-added production and men supporting time-sensitive, heavy-lifting tasks during peak agricultural periods.

  • Strong organizational commitment to gender equity 
  • Clear job roles tailored to skill levels 
  • Local community support for employing women full-time 

 

  •  Offering full-time roles to women increases retention and improves product quality through consistent staffing.
  • Some families were initially hesitant about women working full-time awareness and dialogue helped gain acceptance. 
  • Advice: Involve family or community members early in the employment process and provide orientation sessions on workplace safety and flexibility.
Prioritisation and planning

Prioritisation and Planning took place in three categories:

  1. Basic prioritisation: Combines results of the assessment to identify areas that are threatened and under-protected.
  2. Multi-criteria approach:  Uses criteria to identify important sites for biodiversity, drawing from the foundational datasets and results of the assessment.
  3. Systematic conservation planning: Identifies a portfolio of biodiversity priority areas based on biodiversity targets. Can include a range of additional data on ecological processes, ecosystem services, constraints and opportunities.
  1. Partnerships
  2. Stakeholder engagement
  3. Financial resources

Team work is important. Mapping and prioritisation of biodiversity can only effectively and efficiently happen when people, organisations work together.

  1.  
Assessment

Risk status and protection levels  of the ecosystems and species were assessed. 

  1. Collaboration
  2. Partnerships
  3. Financial resources
  1. Timely and meaningful engagement of relevant stakeholders is key in developing and implementing solutions
  2. Partnerships, collaborations and regional projects provide opportunities for cross-border conservation initiatives
Spatial Datasets

All the countries collected  spatial data sets that included:

  1. Baseline map of ecosystem types
  2. Map of current extent and condition
  3. Map of protected and conserved areas
  4. Maps of species occurrence

1..An agency that can play a coordination role (leadership). SANBI and UNEP-WCMC provided the crucial leadership roles

2. Establishing a strong community of practice that promotes peer learning and sharing.  The project brought together experts from across the implementing countries. 

3. Making clear links to government priorities and processes, to inform national policy. The project secured high level buy in from the government through rengagement with government entities in the implementing countries.

Perhaps the most valuable aspect of the approach presented in this guide lies in the intuitive understanding and wide range of information that can be conveyed in a few maps. Maps give geographic meaning to a biodiversity assessment, and provide focus areas that can be prioritised in the real world. They are able to communicate important messages about pressures on the natural environment and conservation imperatives to a range of relevant stakeholders

4. Leveraging Expertise for Advocacy, Knowledge Sharing, and Technological Integration:

It is understood that effective conservation necessitates continuous knowledge exchange, unwavering policy advocacy, and the smart integration of modern technology.

Actionable Step: Actively utilize established platforms and networks to disseminate crucial information and influence policy. The role as Regional Vice Chair at IUCN CEESP, contributions to environmental law blogs, and appearances in environmental awareness videos are instrumental in this endeavour. Furthermore, focus will be placed on integrating 

Artificial Intelligence (AI) with Traditional Knowledge Systems (TKS) to create advanced conservation strategies. AI can analyse vast datasets on ecological patterns, climate change impacts, and biodiversity trends, while TKS provides invaluable localized, nuanced understanding of ecosystems and sustainable resource management. This synergy can lead to more precise conservation interventions and predictive models.

Areas of Focus: Continue to lead international webinars and symposiums on critical environmental topics such as "Rights of Nature in the Anthropocene" and "Science and Environmental Law Interface." Dedication to advocating for environmental causes at international conferences and universities, fostering regional and global collaboration, is paramount.

In conclusion, by strategically intertwining environmental law and policy with the profound wisdom embedded in cultural practices and Traditional Knowledge Systems, and by judiciously integrating advanced technologies like drones for reforestation and AI for enhanced analysis, a more sustainable and equitable path to biodiversity conservation can be forged. This framework, passionately designed offers a powerful means to engage communities, influence policy, and ultimately secure a healthy planet for all future generations.

3. Integrating Cultural Practices and Festivals for Environmental Conservation

It is contended that Hinduism, with its diverse pantheon symbolizing aspects of a single reality ("Truth is One, the wise call It by many names"), inherently promotes reverence for nature.

It is contended that Hinduism, with its diverse pantheon symbolizing aspects of a single reality ("Truth is One, the wise call It by many names"), inherently promotes reverence for nature.

For Example:

  • Nature Worship: It is observed that nature worship is a fundamental part of human society, with divinity ascribed to various natural elements. This community-based practice is increasingly vital for effective nature and natural resource conservation.
  • Symbolism of Deities and Vahanas: The portrayal of Hindu deities with animal or bird "vahanas" (vehicles)—such as Ganesha with his rat (Mooshika), Shiva with the bull (Nandi), Durga with the lion or tiger, and Vishnu with Garuda—instills deep respect and protection for these animals. This cultural veneration fosters a natural inclination towards animal welfare and conservation.
  • Festival Connections: Many Hindu festivals incorporate elements that inherently promote environmental consciousness, ranging from the ceremonial use of specific plants to rituals honouring natural elements. Highlighting these connections strengthens the cultural impetus for conservation.
2. Cultivating "Grow Natives" through Cultural Practices and Innovative Technology

It is believed that the inherent harmony with nature, so central to Indian culture where mountains, rivers, trees, flowers, and animals hold sacred significance, can be powerfully harnessed. This deep reverence for nature is a potent force for promoting the cultivation and preservation of native plant varieties.

Actionable Step: Actively encourage and facilitate initiatives to "grow natives" by directly connecting them to deeply rooted cultural and religious practices. This can be significantly amplified through the strategic use of technology. For instance, drones can be employed to deploy seed bombs in challenging terrains like mountains, facilitating large-scale afforestation and restoration efforts in areas otherwise difficult to access.

For Example:

  • Sacred Plants: The immense cultural and religious significance of plants worshipped since the Vedic era is highlighted. The "Panchvati" – the combination of Banyan, Peepal, Fig, Bilva, and Amla trees – described in "The Ramayana," symbolizes health, medicinal value, and enhanced cognitive well-being. Other sacred trees such as Ashoka, Bael, Bamboo, Banana, Bhang, Coconut, Lotus, Mango, Neem, Red Sandalwood, and Tulsi are associated with deities and hold significant medicinal value, showcasing their multifaceted importance.
  • Deity Associations: It is emphasized how specific native plants are linked to various Hindu gods, goddesses, and planets, such as Tulsi with Vishnu and Krishna, Bilva with Shiva, and Lotus with Lakshmi and Saraswati. By promoting the planting and nurturing of these species through the lens of spiritual devotion, significant contributions to biodiversity can be made, complemented by technological solutions for wider reach.

Prophet/Holy Men Associations: Trees like the Banyan, Sala, Peepal, and Ber, which are revered due to their association with prophets and holy figures across Hindu, Buddhist, and Jain traditions, are highlighted. Work in this area includes supporting the establishment and protection of groves featuring these trees, reinforcing both cultural heritage and biodiversity

1. Elevating Traditional Knowledge Systems (TKS) into Binding Laws:

It is recognized that Traditional Ecological Knowledge (TEK) offers highly effective, community-based approaches to nature and natural resource conservation. These practices, often rooted in socio-religious and anthropological contexts, are now widely acknowledged for their efficacy.

Actionable Step: A key priority is to transition these "soft laws" of TKS into binding legal frameworks. This involves leveraging expertise in legal research and analysis to draft policy briefs and vigorously advocate for the formal recognition and inclusion of TKS in both Indian and international environmental legislation. My doctoral thesis on "Sustainable Development and Laws Relating to Bio-Diversity and Forest Conservation: An Analytical Study in Indian Perspective" provides the foundational research for this critical work.

 

For Example: The legal protection of India's Sacred Groves is specifically championed. These communally protected tracts of pristine forest, like those safeguarded by the Bishnois community of Rajasthan state in India, demonstrate how religious beliefs can effectively prohibit hunting and logging, thereby preserving diverse flora and fauna. Formalizing their protection offers a powerful model for integrating TKS into law.

By strategically intertwining environmental law and policy with the profound wisdom embedded in cultural practices and Traditional Knowledge Systems,a more sustainable and equitable path to biodiversity conservation can be forged.