Elevating public awareness

 Featuring black bear science education as an exhibition zone in the Hubei (Wuling Mountains) Wildlife Specimen Museum, externally promoting and popularizing species knowledge and project achievements. Nature educators organized public museum tours, conducted wildlife rescue activities, science lectures, etc., with annual public reception exceeding 35,000 person-times. By displaying spectacular black bear footage captured by the project, publishing science articles, and streaming real-time videos, visitors observed bears without disturbance. In recent years, illicit excavation, deforestation, and poaching have nearly vanished. Local residents now fully recognize the species’ importance; diverse educational approaches fostered comprehensive multidimensional understanding of Asian black bears, acknowledging them as part of the reserve community while avoiding intrusion into bear habitats.

1.Biodiversity conservation concepts have landed and rooted in China; vigorous publicity and retransmission by major mainstream media elevated attention to black bears;
2.High prioritization by Houhe NNR management leadership; full cooperation from the reserve’s professional nature education team; continuous reporting by communicators;
3.The reserve possesses an effective external display platform—a multifunctional, technologically advanced specimen museum with diverse exhibition methods, centrally showcasing outcomes of black bear initiatives;
4.Obtained black bear footage was exceptionally compelling, shattered traditional perceptions, and sparked public discussion.

1.Timely dissemination of project outcomes within reserve communities invited media to narrate black bear stories; collaborated with residents to film species-related documentaries, enhancing community recognition;
2.The reserve regularly submitted promotional materials to CCTV, leveraging mainstream media for nationwide publicity, amplifying project influence;
3.Published research findings in academic journals, targetedly proposing species conservation and human-bear conflict mitigation solutions;
4.Research outcomes require transformation into science education materials easily understood by the general public.

Implementing robust protective measures

To effectively resolve wild beasts harming farmers, the Houhe Reserve invested 244,000 yuan, purchasing 63,000 meters of fencing nets for free distribution to communities, and issued 160 sets of prevention alarms; explored installing 5,000 meters of pulse electric fences; annually acquired 50,000-100,000 yuan in wildlife damage insurance, installing real "insurance" for residents' production and livelihoods. Through alarms, fencing nets, and electric fences, effectively warned of black bear presence, blocked bears from entering community areas, alleviating human-bear conflicts.

.1.Social organizations’ attention to "human-bear conflicts," opening purchase and compensation channels for wildlife damage insurance to reserve communities;
.2.High prioritization by reserve management leadership, annually directing dedicated funds for purchasing related materials and wildlife damage insurance.

.1.Alarm installations maintained appropriate distances from residential points, reducing triggered alarms and noise disturbances to residents while effectively warning of wildlife proximity.
.2.Protective fencing requires sufficient coverage area to effectively safeguard residential zones and production assets.
.3.Wildlife damage insurance claim recognition and compensation procedures need optimization toward intelligence—current recognition processes and compensation implementation require substantial manpower with lengthy process completion times.
.4.Alarms and fencing only partially mitigate human-bear conflicts; amid expanding black bear populations, new pathways must be explored to balance wildlife conservation and community development.

Launched the special black bear survey

 The Houhe NNR applied for financial support through multiple channels, and the black bear survey project secured 300,000 yuan from the "Green Mountains Public Welfare Nature Conservation Initiative" fund. Subsequently, scientific staff from the Houhe NNR selected 20 high-frequency black bear occurrence sites to deploy infrared camera traps, installing three infrared cameras at each trap point to capture individual identification markers of black bears. Simultaneously, they collected bear feces, hair, and other trace information to assist in population analysis. Using infrared camera traps, they identified and marked a portion of captured individuals, estimated the black bear population size in Houhe via mark-recapture methods, and concurrently conducted surveys through semi-structured interviews, completing a total of 193 questionnaires.

1.Sufficient funding ensured carrying out team investigations, study tours, and fieldwork;
2.Invited relevant experts from the Chinese Academy of Forestry's Forest Ecology and Environment Institute for on-site guidance, enabling reserve researchers to master relatively mature survey and research techniques and methods;
3.An enthusiastic research team ensured the effectiveness of the work;
4.Full cooperation from community residents who truthfully provided feedback completed the questionnaire surveys;
5.The black bear species possesses distinctive traits – the V-shaped chest patch can serve as an identification feature for individuals.

1.Invited community residents familiar with mountainous terrain to participate in fieldwork, and conducted initial technical training for field staff at the project's outset;
2.During the preparatory phase, utilized monitoring data from past years for preliminary analysis, laying the foundation for subsequent field deployment planning;
3.Community survey sample size and representativeness were limited—193 questionnaires could reflect some issues, but coverage of more villages and diverse stakeholder groups (farmers, tourism practitioners, conservation staff) would yield more comprehensive data;
4.Integration of multi-year monitoring data and long-term monitoring mechanisms need improvement; current data primarily supports short-term research; recommends establishing a black bear population dynamics database, combining GIS technology to analyze human-bear conflict hotspots, providing basis for long-term conservation.

PAMS Dashboard + Community Co-Design

The Protected Area Management System (PAMS) by NOARKTECH is a centralized, intuitive dashboard aggregating data from edge devices. Co-designed with forest officials and community members, it delivers predictive analytics, real-time alerts, and supports evidence-based decision-making.

  • User-focused design through participatory field engagements
  • Integration of remote sensing data and satellite overlays for broader context
  • Offline functionality and multilingual interface increase usability across regions
  • Adaptive interfaces tailored to specific users (rangers, farmers, analysts) increase engagement
  • Alert fatigue can be reduced by dynamic thresholding and contextual relevance
  • Sustained use requires continued training and localized support channels
Edge AI + LoRaWAN Infrastructure

NOARKTECH’s WildGuard AI uses on-device Edge AI models and LoRaWAN communication to process data locally and transmit alerts even in low-connectivity regions. This low-power, scalable network allows instant wildfire detection, animal tracking, and real-time environmental monitoring.

  • Flexible integration of open-source LoRaWAN technology and compact AI models
  • Low latency communication ensures rapid response in emergencies
  • Collaboration with embedded system experts for optimized hardware-software synergy
  • Local capacity building ensures long-term reliability and system maintenance
  • Intelligent alert routing and data filtering are essential to avoid signal noise
  • Redundant communication strategies strengthen system resilience
WildGuard AI Sensor Ecosystem (Bio-Acoustic + Chemical + Climate Sensing)

NOARKTECH’s WildGuard AI integrates bio-acoustic microphones, air quality sensors (CO, VOC), and hyperlocal climate monitors to detect wildlife movement, forest fires, and ecological disturbances. This system enables real-time environmental intelligence for conservation, climate resilience, and human-wildlife conflict prevention.

  • Deployment of rugged, energy-efficient sensors suited for field conditions
  • Scientific validation in collaboration with academic and environmental institutions
  • Pilot deployments across Western Ghats and Northeast India
  • Sensor effectiveness improves with community-informed placement strategies
  • Continuous environmental calibration enhances precision over time
  • Environmental durability must be prioritized during design and testing phases
Localized Reference Library Development

The creation of a comprehensive, open-access DNA reference library of native plant and animal species was foundational to our solution. Recognizing that global databases lacked coverage for many Eastern Mediterranean species, we built the first Lebanese library encompassing plants, mammals, and now expanding to insects, birds, and fungi. This reference database improves the accuracy of DNA sequence matching and enables precise identification of species present in environmental samples. It also fills a critical regional data gap and facilitates ecological studies, biodiversity monitoring, and conservation planning. By publishing the library openly, we promote transparency, collaboration, and the potential for adaptation in similar biodiversity hotspots.

Strong institutional support from Saint Joseph University, collaboration with local taxonomists, and access to specimens were vital. Funding from initial grants allowed sequencing efforts. Commitment to open data principles ensured broad accessibility. Support from iBOL facilitated integration into global databases, enhancing utility and visibility.

Building a reliable reference library requires significant coordination between molecular scientists and taxonomists. Accurate species identification depends heavily on quality-verified voucher specimens and metadata. The process is time-consuming but indispensable for meaningful metabarcoding results. Sharing the library openly generated interest and collaboration but also highlighted the need for continuous updates and expansion to cover more taxa. Engaging local experts fostered ownership and increased the scientific credibility of the data, ensuring the library’s sustainability as a national resource.

From Insights to Innovation: R&D, Design and Prototyping

This building block captures the iterative research, prototyping, and testing process behind the design and performance optimization of Sparsa's compostable menstrual pads. The goal was to systematically address key challenges such as absorbency, retention, and hygiene using accessible, compostable materials and context-appropriate methods. 
 
During initial trials, the embossing of the word 'Sparsa' into the pad design caused production issues, as the added pressure led to small holes at the site of embossing. This aesthetic feature was removed in future die versions to preserve structural integrity. Material testing revealed that the non-woven cotton selected for the top layer was hydrophobic, preventing fluid from entering the absorbent core. Though soft and natural, it was unsuitable. It was replaced by viscose, a hydrophilic and compostable fiber. However, viscose caused another issue—it spread liquid too effectively toward the wings, where no absorbent material was present, leading to leakage. 
 
To address these problems, internal lab tests were developed and applied. The team created over twenty prototypes, varying in top layers, glue types, layer arrangements, and inclusion of guar gum. Some of these, like guar gum, improved total retention but introduced a gel-like texture that reduced comfort and slowed absorption. Tests showed that glue can either support or hinder fluid transfer depending on how and where it's applied—too much glue acted as a barrier and even left residues. Effective glue bonding improved layer connectivity but required careful quantity control. 
 
One critical hygiene failure revealed the presence of Staphylococcus aureus. Investigation found that gloves were not mandatory in the fiber factory, especially after cooking. Human skin was the primary contamination source. The team responded by revising hygiene protocols, making gloves mandatory post-cooking in both pad and fiber factories. This step eliminated the bacterial presence in follow-up tests. 
 
To better understand bacterial presence and reduction strategies, five process variations were developed—each changing the sequence of cooking, beating, and chlorine treatment. These were labeled Sample A to E and tested for bacterial load. The results provided insight into how specific steps and moisture conditions influence microbial contamination. 
 
Leakage from the wings was another key challenge, especially with viscose layers that spread liquid outward. Since wings lacked absorbent material, the team created different prototypes to control this spread. Solutions included modifying top layers, stretching or perforating materials, using starch or wood glue in targeted zones, and bonding absorbent materials more tightly. Some prototypes featured layered configurations with transfer paper. Tests confirmed that fluid distribution and retention improved only when materials were positioned effectively—paper layers under the core performed poorly, while those bonded near the surface aided absorption. 
 
Through every iteration, the team learned to question assumptions, test every new configuration, and document repeatable results. Design improvements were not driven by one-time outcomes but by data-backed testing, careful material selection, and practical lessons from production. 
 

  • Continuous prototyping and iterative testing to improve absorbency, retention, and leakage prevention. 
  • Close collaboration between the pad and fiber factories to maintain hygiene standards. 
  • Market analysis to understand competitor performance and identify areas for improvement. 
  • Access to both internal and external testing facilities for thorough evaluation. 
  • Proactive implementation of hygiene protocols, especially for bacteria control. 
  • Flexible material testing to find optimal combinations for performance and comfort. 
  • Strong teamwork and open communication across all involved teams for efficient problem-solving.  
  • Always validate the embossing design in real production settings before finalizing the die. Even small design elements like text can compromise pad performance under pressure. 
  • Before finalizing top-layer materials, conduct small-scale fluid tests to understand their hydrophilic or hydrophobic nature. Visual feel or assumptions can be misleading. 
  • Never order large quantities of fabric without first testing their absorption behavior. It’s more cost-effective to prototype first and confirm the fabric’s functionality in the full pad structure. 
  • Liquid spreading behavior should be evaluated with the full pad geometry. Materials that seem absorbent may cause unexpected leakage in edge areas like wings if no absorbent barrier is present there. 
  • Develop internal lab test protocols early. They help catch design flaws (e.g., leakage, low retention) before costly mass production begins. 
  • Make hygiene practices consistent across all production units. If one facility follows strict protocol and the other doesn’t, contamination will still occur. 
  • Don’t rely on verbal hygiene instructions. Make critical steps like glove use mandatory and tied to specific process stages, such as post-cooking in the fiber line. 
  • Document every change in the fiber treatment process. Small alterations like shifting the cooking or beating order can significantly influence bacterial count. 
  • When using glue, test different concentrations and application patterns. Too much glue may block fluid transfer, while too little may cause delamination. 
  • Use small-batch prototypes to test before full-scale trials. Some may boost retention but hurt comfort or speed of absorption. 
  • If a layer (like paper) is meant to aid fluid distribution, test its placement. Not all positions will support its intended function. 
  • Explore bonding techniques through trial — glue, pressure, stretching, or perforation. Each has pros and cons depending on material and location. 
  • Always question why something works. Prototypes should be backed by repeatable observations, not just one-time success. 
Building Block 1 Field Research & User Insights: Understanding Menstrual Product Access and Preferences in Nepal

This building block outlines the findings and methodology of a nationwide field study conducted in 2022, which informed the Sparśa Pad Project. The research examined menstrual product usage, access, stigma, and user preferences among 820 Nepali women and adolescent girls in 14 districts across all seven provinces.

Using a structured face-to-face interview approach, the team employed ethically approved questionnaires administered by culturally rooted female research assistants. This method ensured trust, context sensitivity, and accurate data collection across diverse communities. The interviewers were trained in ethical protocols and worked in their own or nearby communities, thereby strengthening rapport and enhancing their understanding of local norms, power relations, and languages.

Key findings revealed a high reliance on disposable pads (75.7%) and ongoing use of cloth (44.4%), with product preferences strongly shaped by income, education, and geography. Respondents prioritized absorbency, softness, and size in menstrual products. While 59% were unfamiliar with the term “biodegradable,” those who understood it expressed a strong preference for compostable options, over 90%. Importantly, 73% of participants followed at least one menstrual restriction, yet 57% expressed positive feelings about them, seeing them as tradition rather than purely discriminatory.

These findings directly shaped the design of Sparśa’s compostable pads, informed the user testing protocols, and guided the development of targeted awareness campaigns. The accompanying link and PDFs include a peer-reviewed research article co-authored by the team and supervised by Universidade Fernando Pessoa (Porto, Portugal), as well as informed consent forms, a statement of confidentiality, and a research questionnaire. These documents are provided for practitioners' reference or replication purposes.

Why this is useful for others:

For Nepali organizations and local governments:

  • The study provides representative national data to inform product design, pricing strategies, and outreach campaigns.
  • It reveals regional, ethnic, and generational differences in attitudes that are essential for localized intervention planning.
  • The questionnaire is available in Nepali and can be adapted for school surveys, municipal assessments, or NGO projects.

For international actors:

  • The research demonstrates a replicable, ethical field methodology that balances qualitative insight with statistically relevant sampling.
  • It offers a template for conducting culturally sensitive research in diverse, low-income settings.
  • Key insights can guide similar product development, health education, and behavior change interventions globally.

Instructions for practitioners:

  • Use the attached PDFs as templates for conducting your own baseline studies.
  • Adapt the questions to reflect your region’s cultural and product context.
  • Leverage the findings to avoid common pitfalls, such as overestimating awareness of biodegradable products or underestimating positive views on restrictions.
  • Use the structure to co-design products and testing tools that truly reflect end-user needs.

 



 

  • Long-term engagement of NIDISI, a NGO with operational presence in Nepal, enabled trust-based access to diverse communities across the country.
  • Partnerships with local NGOs in regions where NIDISI does not operate directly were essential to extend geographic reach. In Humla, one of Nepal’s most remote districts, the entire research process was carried out by a trusted partner organization.
  • Pre-research networking and stakeholder consultations helped NIDISI refine research tools, adapt to local realities, and align with the expectations of communities and local actors.
  • Research assistants were female community members selected through NIDISI’s existing grassroots networks and recommendations from NGO partners, ensuring cultural sensitivity, linguistic fluency, and local acceptance.
  • Field research relied on ethically approved, pre-tested questionnaires, with interviews conducted in multiple local languages to ensure inclusivity and clarity.
  • Interviews were conducted face-to-face and door-to-door, prioritizing trust and participant comfort in culturally appropriate ways.
  • The study included a demographically diverse sample, representing various ethnic, educational, religious, and economic groups, strengthening the representativeness and replicability of the findings.
  • Academic collaboration with Universidade Fernando Pessoa (Portugal), where the research formed part of a Master's thesis by a NIDISI team member, ensuring methodological rigor and peer-reviewed oversight.
  • Language and cultural barriers can compromise data accuracy; working with local female facilitators from the same communities was essential to ensure comprehension, trust, and openness.
  • Social desirability bias limited the honesty of some responses around menstrual stigma. Conducting interviews privately and individually helped mitigate this, especially when discussing taboos or product usage.
  • The combination of quantitative surveys with qualitative methods (open-ended questions, observations, respondent quotes) enriched the dataset and provided both measurable and narrative insights.
  • Flexibility in logistics was crucial. Travel difficulties, seasonal factors, and participant availability—especially in rural and remote areas—required adaptable timelines and contingency planning.
  • Respecting local customs and religious norms throughout the research process was vital for ethical engagement and long-term acceptance of the project.
  • Training research assistants thoroughly not only on tools, but also on the ethical handling of sensitive topics, significantly improved the reliability and consistency of data collected.
  • Some communities initially associated the topic of menstruation with shame or discomfort, and pre-engagement through trusted local NGOs helped build the trust necessary for participation.
  • Pilot-testing the questionnaire revealed linguistic ambiguities and culturally inappropriate phrasing, which were corrected before full deployment—this step proved indispensable.
  • Remote district such as Humla required alternative model: relying fully on local NGO partners for data collection proved both effective and necessary for reaching hard-to-access populations without extensive budget burden.
  • Participant fatigue occasionally affected the quality of responses in longer interviews; reducing the number of questions and improving flow would significantly improve participant engagement.
  • Engaging with younger respondents, especially adolescents, required different communication strategies and levels of explanation than with older adults. Age-sensitive adaptation improved both participation and data depth.
  • Documentation and data organization during fieldwork (e.g. daily debriefs, note-taking, photo documentation, secure backups) was essential for maintaining data quality and enabling follow-up analysis.
Green Platform for Green Opportunities

Grasshopper Technologies has further identified a lack of coordination in terms of where Green Jobs are posted in South Africa. The Green Jobs Connect Platform was therefore built to help Green Graduates as well as Green SMMEs to apply for opportunities within the conservation sector in the country. The platform is made up of the 3 main components:

  1. Green MSMEs looking for opportunities
  2. Clients looking at appointing Green and vetted MSMEs and Graduates
  3. Graduates looking for work opportunities

The platform is managed by Grasshopper and is free for all and it seek to connect the three components above. 

This helps coordinate green opportunities in the sector.

This Solution was recently launched therefore not a lot of lessons learned yet.