TECH OFFERS

Modern robots are highly capable in structured environments but struggle to handle unstructured tasks that require delicate touch, such as grasping irregular objects or performing fine manipulations. Traditional robotic grippers rely primarily on vision, which are insufficient for dynamic or contact-rich interactions. This technology introduces an AI-driven tactile intelligence platform coupled with tactile-sensing robotic fingers that can perceive and interpret contact pressure, texture, and shape in real time. By integrating advanced tactile sensors with a foundation model trained on tactile data, the platform enables robots to feel and adapt their actions with human-like precision. The technology owner is seeking adopters and collaborators such as robotics OEMs, automation system integrators, healthcare robotics developers, and deep-tech companies working on sensors, embedded systems, or AI analytics. Institutes of Higher Learning and research centres specializing in robotics or tactile perception are also key partners. These groups can leverage the platform to enhance robotic dexterity, precision, and safety across industrial, service, assistive, and manufacturing applications—particularly where delicate handling and high-fidelity tactile sensing are critical. The platform combines compact, non-optical tactile sensors with an AI foundation model for real-time interpretation and autonomous adaptation. This technology provides faster response, greater durability, and AI-driven tactile analytics (rather than fixed feedback) that continuously learn across objects and tasks—delivering smarter, more adaptable robotic manipulation. Key Components Tactile Sensor Array: Embedded multi-array tactile sensors can capture high-resolution tactile maps across each robotic fingertip. Robotic Finger Module: Compact, compliant, and modular finger design that can be mounted onto robotic hands or grippers; supports variable stiffness and sensitive touch. AI Processing Layer: Foundation model trained on large-scale tactile and kinematic datasets to interpret surface properties, object geometry, and grip stability. Industrial Robotics Applications in industrial robotics include automated assembly, sorting, and material handling of fragile or irregular objects. Relevant products: Smart robotic fingers and grippers; tactile AI control modules for industrial robotic arms. Healthcare & Assistive Robotics In healthcare and assistive robotics, the technology supports surgical aids, rehabilitation robots, and prosthetic devices that require safe, compliant, and highly sensitive touch. It enhances patient safety, dexterity, and human–robot interaction in medical environments. Relevant products: Adaptive prosthetic or rehabilitation devices; smart robotic fingers integrated into assistive tools. Service Robotics Service robotics—such as food handling, retail assistance, and hospitality robots—benefit from adaptive gripping capabilities and tactile sensing for safe interaction with diverse objects and customers. Relevant products: Smart robotic fingers and grippers for food-service robots; tactile AI modules for autonomous service systems. Logistics & Warehousing In logistics and warehousing, tactile-enabled manipulation supports efficient pick-and-place automation for e-commerce fulfilment and packaging. The technology improves accuracy when handling varied packaging materials and irregular items. Relevant products: Smart robotic grippers for parcel handling; tactile AI control modules for automated picking systems. Research and Education For research and education, the technology provides tactile perception tools and AI training datasets valuable for advancing human–robot interaction, manipulation research, and foundation model development. Relevant products: Tactile data foundation model licensing for robotics OEMs; research-grade tactile sensor modules and datasets. Unlike conventional robotic grippers that rely mainly on vision, this technology provides true tactile sensing and AI-driven interpretation of touch. It allows robots to understand what they are holding — not just detect that they are touching something. This technology offers real-time tactile feedback for adaptive grasping and slip prevention, powered by an AI foundation model that learns transferable tactile representations across objects and tasks. It is compatible with both rigid and soft robotic systems and operates reliably in any lighting or environment without the need for cameras or external sensors. The scalable data platform further enhances performance by continuously improving model accuracy across deployments. Tactile AI, Robotic Fingers, Smart Grippers, Soft Robotics, Tactile Sensing, Industrial Automation Electronics, Sensors & Instrumentation, Infocomm, Artificial Intelligence, Manufacturing, Assembly, Automation & Robotics, Robotics & Automation

This on-site molecular diagnostic platform enables rapid detection of pathogens in livestock, empowering farmers to identify infections early, before visible symptoms appear. Designed for field conditions, the kits are robust, cost-effective, and user-friendly. By enabling proactive disease surveillance at the farm level, the technology supports timely intervention, reduces antibiotic dependence, and enhances profitability through improved livestock health and reduced mortality losses. This technology combines a DNA extraction method that helps to preserve sample DNA and inactivate pathogens, together with lyophilised reaction beads. The system produces qualitative and semi-quantitative results and is compatible with downstream analyses such as qPCR and sequencing. The technology provider is seeking partnerships across the aquaculture and livestock value chain including research institutions, industry players, and government agencies to scale on-site disease detection and promote sustainable, biosecure food production globally.  ​​Nucleic Acid Extraction system  ​Pathogen-specific nucleic acid amplification reagents  ​All reagents are room-temperature stable and do not require cold-chain transport or special  ​storage conditions  ​Built using Loop-Mediated Isothermal Amplification (LAMP) technology, the system delivers lab-grade diagnostic results within 60 minutes  ​DNA is preserved in lysis buffer; pathogens are inactivated  ​Devices for sample processing (Quantitative/Qualitative Readouts)  ​Ideal collaborators include aquaculture and livestock labs, feed mills, hatcheries, animal health companies, and government agencies seeking scalable disease detection tools.  ​The technology strengthens early warning and response mechanisms, supports biosecurity programs, and enables data-driven farm management across multiple segments of the animal health industry, including:  ​Aquaculture: Facilitates routine pond-side monitoring of major shrimp diseases (e.g., WSSV, EHP, AHPND). Farmers currently use it for weekly pathogen surveillance to detect infections early and prevent severe outbreaks  ​Livestock and marine species: Adaptable for detection of pathogens such as TiLV and ASF in both marine and terrestrial species  ​Integrated programs: Can be incorporated into hatchery screening, feed mill quality control, and government surveillance schemes  The global veterinary diagnostics market is projected to exceed USD 7.3 billion by 2030, driven by rising protein demand, increasing disease outbreaks, and the growing adoption of precision livestock farming. In shrimp aquaculture alone, annual disease losses exceed USD 5.9 billion globally. ​Point-of-care convenience: Performs lab-grade diagnostic on-site  ​Rapid and cost-effective: Faster and cheaper than traditional PCR  ​Field-deployable: Operates without a laboratory, cold-chain logistics, or experienced technicians  ​High accuracy: Sensitivity and specificity comparable to PCR, validated in field trials  ​Scalable hardware: Modular design suitable for both smallholder and commercial farms  ​Versatile: Compatible with multiple pathogens across different species  ​Facilitates export compliance: Provides reliable on-site testing data to verify product safety and minimize antibiotic residues  Aquaculture, Diagnostics, Agritech, Molecular Diagnostics, Disease Surveillance, Farm Productivity, Disease Management, Point of Care Technologies Life Sciences, Agriculture & Aquaculture, Biotech Research Reagents & Tools

For organisations struggling with high rates of musculoskeletal injuries, rising ergonomics-training costs, and limited real-time insight into worker strain, current solutions remain reactive and inefficient. Most companies still depend on consultants and manual observations for ergonomics reporting—an approach that is subjective, inconsistent and expensive. The global safety consulting and training market is projected to reach USD 53 billion by 2025, yet much of that investment goes toward periodic assessments that fail to prevent injuries before they happen. Designed for sectors such as logistics, manufacturing, healthcare, construction, and oil and gas, the solution is an AI-powered ergonomic safety vest that replaces traditional audits with continuous, real-time measurement of core back pressure and force data. Beyond exertion, the system also features AI posture prediction capable of identifying key movements such as good pick-ups, upright, forward bends, backward bends, and twisting, giving organisations deeper visibility into high-risk behaviours. By mapping these measurements to the Borg CR-10 exertion scale, it quantifies physical strain with a level of precision previously unavailable in the field. This wearable technology offers a scalable, camera-free, data-driven alternative to manual training and audits. By embedding tactile intelligence into everyday workwear, it helps organisations reduce injury rates, lower costs, and build safer, smarter, more productive workplaces. Platform Overview Powered by Agentic AI, the platform automatically delivers personalized safety recommendations, automated KPI and risk reports, and anonymized, auditable compliance data. It not only detects high-risk postures and early signs of fatigue, but also guides workers to correct their movements instantly, reducing injury risk and improving long-term ergonomics. Key Components 1. Wearable Sensor Module: Equipped with tactile sensors that capture multidirectional pressure and force patterns from the user’s lower back. 2. Embedded AI Algorithm: Classifies body postures, detects improper lifting or bending techniques, and triggers haptic feedback. 3. Cloud Analytics Platform: Aggregates real-time data from multiple users to deliver organizational insights, risk scoring, and an ergonomics dashboard. 4. Tactile Foundation Model: A proprietary foundational model trained on diverse tactile datasets. Capable of adapting across domains such as logistics, healthcare, and sports to deliver context-aware safety intelligence. The technology can be applied across multiple sectors, including workplace health and safety, where it supports injury prevention and posture monitoring for logistics, manufacturing, and construction workers. In healthcare and rehabilitation, it enables posture correction and movement tracking to assist physical therapy and musculoskeletal recovery. For sports and fitness, it provides movement efficiency analysis and early injury risk detection to help athletes and trainers optimize performance. It also enhances robotics and human–machine interaction by integrating tactile data to improve ergonomic collaboration between humans and robots. These capabilities translate into a range of marketable products, such as smart posture belts and vests, industrial safety monitoring platforms, rehabilitation and physiotherapy assistive systems, and fitness coaching wearables equipped with tactile feedback. Unlike vision-based monitoring systems that rely on cameras and clear line-of-sight, this tactile AI technology is fully wearable and suitable for any work environment. By capturing biomechanical data directly from body pressure, it enables real-time and proactive injury prevention rather than merely detecting issues after they occur. Its predictive tactile analytics allow the system to anticipate risky movements, while its scalable AI foundation continually improves by learning from an expanding database of tactile data points. The technology is highly adaptable across industries—from logistics and healthcare to sports—and is built with a privacy-first design that avoids the use of any video or image data. The technology owner is seeking R&D collaboration and test bedding opportunities with industrial safety-equipment manufacturers, AI research institutes specialising in human-sensing technologies, and IHLs or companies with commercially ready sensing solutions. Partnerships with workplace health and safety service providers, as well as rehabilitation and sports-tech companies, are also welcomed to co-develop use cases, validate performance in real-world environments, and accelerate the path toward market adoption. Tactile AI, Wearable Sensors, Ergonomics, Injury Prevention, Force Sensing, Industrial Safety, Posture Analysis, Predictive Analytics, Health and Safety, HSE Electronics, Sensors & Instrumentation, Infocomm, Artificial Intelligence, Healthcare ICT, Wearable Technology

Conventional building central cooling plants, comprising water-cooled chillers, air handling units (AHUs), cooling towers, and pumps, often suffer fouling issues caused by accumulation of suspended solids in the micron range, such as rust and corrosion scale, as well as dissolved minerals within the chilled water closed loop system. Over time, these impurities clog strainers and nozzles, foul heat exchangers, and impair heat transfer efficiency, resulting in turbid water and reduced cooling performance. In condenser water open loop systems, untreated or ineffectively treated water further cause abrasion and leakage in condenser copper tubes, leading to system downtime and costly maintenance. To address these challenges, this invention introduces an effective and energy-efficient cleaning and filtration system that continuously filters blackish and rusty chilled water, returning cleaner and clearer water to the chilled water closed loop system. By leveraging existing water pressure without requiring an external pump or additional electricity, the system restores water clarity and operational efficiency, leading to: Reduced cooling energy consumption Enhanced occupant comfort and wellbeing Significant reduction in water usage for system cleaning Lower operational costs, carbon footprint, and emissions Alignment with the “Go 25°C” National Movement led by the Singapore Green Building Council (SGBC) The technology owner seeks collaboration with building owners, facility managers, main contractors, chiller and cooling tower manufacturers and suppliers, and energy service companies (ESCOs) to explore integration in new developments and retrofit applications. Dual Cleaning Capability: One system can clean up to 5 chillers and 1 chilled water closed loop circuit. Another system can clean up to 5 cooling towers and 1 condenser water open loop circuit Continuous Microfiltration: Continuously draws 5–10% of water from the loop to remove suspended solids and dissolved impurities, returning filtered water to the system No Additional Power Consumption: Operates without a dedicated pump or electricity Low Water Use: Requires only 5% of system water for cleaning, much less than conventional methods that replace most of the water Enhanced Cooling Efficiency: Enables a higher chilled water set point (e.g., from 6°C to 10°C) while maintaining comfort, resulting in significant energy savings Compact Design: Minimal installation footprint of 2m (L) × 2m (W) × 2m (H) Zero Downtime: easy to install without disrupting existing building operations The technology is applicable to both new installations and retrofit projects involving chilled water and condenser water systems, such as cooling tower open loop and chilled water closed loop circuits. Potential application scenarios include, but are not limited to: Commercial buildings Government facilities Shopping malls and hotels Data centres Educational institutions (e.g. schools, junior colleges, polytechnics, universities) Hospitals and healthcare facilities Industrial facilities and factories Equipment and systems using water for cooling or heating Application Versatility: Each system can handle multiple chillers or cooling towers Green Operation: Requires no electricity for filtration, reducing energy consumption and supporting sustainability goals Fast ROI: Payback period of less than 12 months through energy and maintenance savings. Significant Energy Savings: Enhances cooling efficiency and lowers electricity use and operating costs effective & efficient, cleaning system, chilled water, Cooling tower Environment, Clean Air & Water, Sanitisation, Green Building, Heating, Ventilation & Air-conditioning, Sustainability, Low Carbon Economy

Copper is high in reflectivity and thermal conductivity which makes it difficult to process using lasers. This copper 3D printing technology leverages powder bed fusion (PBF) and advanced high-powered laser to selectively fuses metal powder layer by layer. This enables the precise fabrication of intricate copper component while preserving the material's mechanical strength and conductivity. This technology enables superior design freedom, allowing small features and internal structures that is otherwise impossible to achieve with conventional copper manufacuturing methods. The technology owner is seeking for industry use cases for co-development.  Copper 3D printing with powder bed fusion technology enables precise, high-density copper printing with enhanced thermal and electrical properties. The system support a build volume of 250 x 250 x 325 mm. Aerospace & Defense: Heat exchangers, high strength-to-weight ratio components  Electronics & Electrical Engineering: Inductive components, busbars, electrical connectors, high-performance heat exchangers with optimized internal channels, other electrical components requiring superior conductivity and corrosion resistance Energy & Power Generation: Cooling plates, heat sinks, turbine components, efficient cooling solutions for power electronics and industrial applications Automotive & E-Mobility: Battery connectors, electric motor components, conductive cooling elements, high strength-to-weight ratio components for electric vehicles Medical & Healthcare: Heat-dissipating implant Other prototyping applications Complex Design Capability: Enables the production of fine lattice structures and intricate cooling channels. High Electrical & Thermal Conductivity: Essential for power electronics and cooling systems. Less Material Wastage: Reduces material waste compared to traditional subtractive methods. Improved Manufacturing Productivity: Short lead time and lesser manpower needed due to less processing/post-processing time.       Powder Bed Fusion, Selective Laser Melting, Additive Manufacturing, Copper 3D Printing, High Thermal Conductivity, High Electrical Conductivity, Intricate Fine Features, Heat Exchangers, Cooling Solutions Manufacturing, Additive Manufacturing

This system introduces a high-performance composite industrial 3D printer with a modular print system, enabling users to seamlessly switch between different composite print engines. It uses a unique combination of Fused Filament Fabrication (FFF) and Continuous Fiber Reinforcement (CFR) technology to create high-strength parts with exceptional dimensional accuracy. Designed for industrial-scale production, its expansive print volume accommodates the creation of large, complex parts with ease. This is particularly beneficial for industries like aerospace and automotive, where intricate designs are often required. Additionally, the 3D printing approach significantly reduces production time compared to traditional manufacturing methods, allowing for faster turnaround and increased efficiency.  The technology owner is seeking for industry use cases for co-development.  This technology utilizes Fused Filament Fabrication (FFF) and Continuous Fiber Reinforcement (CFR) technologies to produce high-strength parts with excellent dimensional accuracy. Large-scale prints: 375mm x 300mm x 300mm, suitable for large-scale prints in industrial applications. Fine resolution: Z layer resolution ranges from 125µm to 250µm for composite prints. Wide range of compatible materials: Composite base material - Micro carbon fiber filled nylon with flexural strength of 71 Mpa. Comes with options containing flame retardant properties or static-dissipative properties. It is high strength, toughness, and chemical resistance when printed alone. Composite material - Ultra-high-strength continuous fiber of flexural strength 540 Mpa. When laid into a composite base material, it can yield parts as strong as 6061-T6 Aluminum. Automotive industry: Produce custom parts and components for vehicles, enabling faster development cycles and reducing the need for expensive tooling. Aerospace: Create lightweight, high-strength parts makes it suitable for aerospace applications, where weight reduction and structural integrity are critical. Medical devices: Produce custom medical devices and implants, tailored to the specific needs of patients. Consumer goods and other applications: Create durable and high-quality consumer products, from household items to sports equipment. Hight strength-to-weight ratio: Yield parts as strong as aluminium material. Shorter lead time: Produce customized composite parts on demand, which increases time to market, reduce fabrication and inventory costs compared to traditional composite manufacturing methods. Continuous Fiber 3D Printing, Composite 3D Printing, 3D printing, Additive manufacturing, composite, composite manufacturing Materials, Composites

This technology enhances additive manufacturing (AM) of corrosion-resistant Stainless Steel 254 (SS254), a super austenitic alloy engineered for exceptional durability in harsh and saline environments. Developed through collaborative research supported by national innovation funding, the project optimised key AM parameters to achieve consistent part quality and mechanical performance. Through extensive experimentation, a validated processing window was established to ensure dense microstructure, high mechanical strength, and excellent corrosion resistance. The printed SS254 parts demonstrate a yield strength of approximately 600 MPa and can operate effectively across temperatures from –50 °C to over 250 °C. This advancement enables the production of complex, high-performance components directly through additive manufacturing, eliminating the need for conventional casting or machining. By positioning SS254 as a cost-effective alternative to nickel and titanium alloys, this innovation promotes sustainable, digital manufacturing for corrosion-critical applications across marine, chemical processing, and energy sectors. Material: Super austenitic stainless steel 254 (SS254) Corrosion Resistance: Exceptional resistance to chloride-induced corrosion and stress-corrosion cracking, ideal for marine and offshore exposure Mechanical Strength: Yield strength ~600 MPa, comparable to nickel-based superalloys Temperature Tolerance: Reliable operation from –50°C to 250°C Proven Process Charactherisation: Over five parameter combinations tested to establish an optimised, repeatable processing window ensuring >99.5% density and dimensional stability Surface Finish & Post-Processing: Capable of achieving improved surface roughness after minimal finishing treatments Sustainability: Reduces material wastage, enables digital inventory management, and supports on-demand production of spare parts This parameter-optimised process enables the production of functional SS254 components that meet or exceed international standards (API, ISO) for high-strength, corrosion-resistant materials. The optimised 3D printing process for SS254 opens new opportunities for marine, oil & gas, and offshore engineering sectors that demand durable, corrosion-resistant parts. The technology also supports digital spare-part libraries, enabling remote, on-demand production for maintenance and repair operations (MRO). By reducing logistics dependency and lead time, it supports supply chain resilience in industries operating in remote or high-risk environments. Potential applications include: Subsea and offshore structures such as pump housings, valves, and connector flanges Ship components exposed to seawater, including propeller hubs, brackets, and supports Oilfield and drilling equipment requiring high mechanical integrity and corrosion resistance Heat exchangers and cooling systems in chemical or desalination plants Global demand for corrosion-resistant alloys is steadily increasing across marine, offshore, and energy sectors, driven by the pursuit of longer-lasting and more cost-efficient solutions. The rapidly growing metal additive manufacturing market further enhances these opportunities by enabling decentralised production, faster turnaround times, and reduced inventory costs. This technology offers strong commercial appeal to companies aiming to replace costly nickel or titanium alloys with SS254, achieving comparable mechanical and corrosion performance at a significantly lower material cost. In Singapore and the wider Asia-Pacific region, the innovation aligns with ongoing maritime decarbonisation and sustainability goals, supporting the transition toward localised, digital manufacturing ecosystems within shipyards and maintenance facilities. As industries continue to embrace sustainable and digital production models, this SS254 additive manufacturing process presents substantial market potential for both original equipment manufacturers (OEMs) and aftermarket service providers seeking durable, corrosion-resistant metal solutions. By integrating this technology, industries can digitise spare-part inventories, implement on-demand manufacturing, and strengthen supply chain resilience in corrosion-prone sectors. Cost-effective alternative to nickel and titanium: SS254 uniquely combines high corrosion resistance, mechanical strength, and print reliability. Support fabrication of intricate designs: Additive manufacturing process enables the fabrication of complex geometries without tooling, reducing material waste and lead time. The validated process window ensures consistent part quality and repeatability — critical for industrial adoption.   additive manufacturing, materials engineering, marine, offshore, energy, oilfield Manufacturing, Additive Manufacturing

Buildings and photovoltaic (PV) systems face two major challenges: excessive heat gain and frequent surface soiling. In tropical climates, solar heat through glass façades can account for up to 40% of total cooling demand, while dust accumulation on PV panels can lower efficiency by 5–30% within months. These issues increase energy use, maintenance frequency, and operational costs. This technology introduces a multifunctional multilayer coating that integrates self-cleaning, infrared (IR) heat rejection, and high optical transparency in a single, durable formulation. Unlike conventional coatings that require multiple layers for different functions, this innovation achieves comparable or superior performance in an integrated multilayer design—simplifying application and lowering cost. The photocatalytic self-cleaning surface decomposes organic contaminants and enables natural washing by rain, reducing cleaning needs. Simultaneously, the IR-reflective layer rejects near-infrared heat while maintaining over ~80% visible light transmittance, cutting cooling energy use by ~10–15% without compromising daylight. Compact, scalable, and retrofit-friendly, this coating offers a cost-effective solution for building operators and solar installers aiming to enhance energy efficiency, reduce maintenance, and improve sustainability performance. The technology owner is seeking industry partners in solar panel manufacturing, green building projects, and glass applications for licensing Advanced Sputtering Process: Enables uniform multilayer deposition with high scratch resistance, strong adhesion, and optimized refractive index for superior optical clarity. High Transparency with Heat Rejection: Maintains ~80% visible light transmittance while blocking infrared radiation (700–2500 nm) to reduce solar heat gain. Thermal Regulation: Proven to lower surface and indoor temperatures in both PV applications and buildings respectively.  Multifunctional Design: Integrates self-cleaning, heat reflection, and high transparency into a single coating layer, simplifying fabrication and application. Self-Cleaning Surface: Photocatalytic-hydrophilic layer breaks down contaminants and allows natural rinsing by rain, reducing cleaning frequency. Cost-Competitive Solution: Offers multi-functional performance at comparable cost to conventional single-function coatings, suitable for solar panels, façades, and glass applications. Commercial and Residential Glazing Systems Solar Panel Installations Green Building and Retrofitting Projects Automotive Glass Applications Smart Windows and Energy-Efficient Architecture Single Multifunctional Coating: Integrates self-cleaning, heat reflection, and high transparency in an integrated multilayer design, eliminating the need for multiple single-function coatings. Energy Efficiency: Reduces building cooling energy consumption while maintaining high natural light transmission for occupant comfort and daylighting. Low Maintenance: Decreases cleaning frequency and maintenance costs through its self-cleaning, photocatalytic surface. Urban Heat Mitigation: Contributes to reducing the urban heat island effect by reflecting rather than absorbing solar radiation.  Energy Efficiency, Multifunctional Coatings, Self-cleaning Technology, Solar Panel Efficiency Chemicals, Coatings & Paints, Energy, Solar

Maintaining stable blood glucose levels is central to achieving a healthier lifestyle and preventing metabolic disorders such as diabetes. Even for non-diabetic individuals, daily fluctuations in glucose can affect energy levels, focus, sleep quality, and long-term metabolic health. As awareness grows around personalized health tracking, consumers are increasingly seeking simple, non-invasive ways to understand how diet, exercise, and stress influence their glucose patterns. BGEM meets this need through a smartphone app that estimates blood glucose levels non-invasively using data from smartwatches, fitness trackers, and smart rings. By leveraging the photoplethysmography (PPG) sensors that users already wear, the app provides on-demand insights into glucose fluctuations without the need for finger pricks or patches. Powered by advanced algorithms in the cloud, the system translates wearable sensor data into personalized glucose trend information, allowing users to visualize how daily habits influence their metabolic responses. This empowers individuals to make informed lifestyle adjustments, supporting better nutrition choices, improved fitness outcomes, and early awareness of potential glucose irregularities. Unlike conventional continuous glucose monitors that rely on invasive sensors, this technology is completely non-invasive, affordable, and accessible, making proactive glucose monitoring possible for a broader health-conscious population. This solution is designed for consumers who want to take greater control of their wellness journey through meaningful, data-driven insights. The technology owner is seeking collaborations with hardware manufacturers for integration, wearable brands for product development, distributors and IHLs for expanding research.  The BGEM technology is an end-to-end managed AI platform that leverages Photoplethysmography (PPG) enabled wearable sensors to monitor various tissue biophotonic and hemodynamic features associated with blood glucose fluctuation. The solution comprises the following features: Optimised and validated AI algorithm Mobile Demo App Including UI/UX design guideline User-friendly visualisations SaaS Scalability Security API Integration The BGEM technology offers a cost-effective, non-invasive approach to estimating an individual's blood glucose levels. The applications include: Empowering Consumers with Personalised Insights: The technology leverages the high growth rate of smart wearables and hearables, presenting an opportunity to offer consumers a holistic view of one's wellbeing towards leading a healthier lifestyle. Relieving Diabetic Patients from Painful Monitoring: By enabling regular, cost-free estimation of blood glucose changes, the technology empowers individuals with Type II diabetes to monitor their glucose levels comfortably and painlessly — freeing them from the discomfort of frequent finger pricks. The Diabetes Burden (2024–2025) As of 2024, approximately 589 million adults (aged 20–79) worldwide are living with diabetes. Projections indicate this number could reach 853 million by 2050 if current trends continue (IDF). Over 80% of people with diabetes live in low- and middle-income countries (IDF). Diabetes-related healthcare costs reached USD 966 billion globally in 2021 — a 316% increase over 15 years. The Rise of Wearable Technology The wearable health devices market was valued at approximately USD 44.06 billion in 2024 and is projected to grow at around 11% CAGR, reaching USD 112 billion by 2033. The wearable diabetes devices segment is estimated at USD 12.1 billion in 2025, with forecasts of USD 19.5 billion by 2030 (CAGR >10%). The broader wearable technology market is valued at USD 84.2 billion in 2024, expected to reach USD 186.1 billion by 2030, growing at around 13.6% CAGR. Growing Use of CGMs Among Healthy Individuals Over 1 million healthy individuals now use CGMs to monitor glucose for lifestyle and performance insights. Adoption among athletes and health enthusiasts is rapidly increasing, with expanding interest from the general wellness market. Current blood glucose monitoring technologies typically rely on finger pricks for blood extraction or the insertion of sensors beneath the skin, causing discomfort and inconvenience from wearing adhesive patches for extended periods. Moreover, the high upfront and recurring consumable costs — including sensors, needles, and test strips — continue to limit widespread adoption. Blood Glucose Estimation and Monitoring (BGEM) technology offers a truly non-invasive alternative that can be seamlessly deployed on billions of existing wearable devices already owned by consumers. By eliminating the need for disposable equipment, needles, or test strips, BGEM makes glucose monitoring significantly more convenient, affordable, and accessible than traditional invasive solutions. UVP of BGEM: Market-Ready: A non-invasive, SaaS-based AI solution that leverages consumer-grade wearables to provide on-demand blood glucose estimation. High Performance: Demonstrates strong analytical precision and clinical accuracy. Cloud-Based: Built on a secure, scalable cloud platform for seamless data processing and integration. Third-Party Compatible: Easily integrates with a wide range of existing wearable devices and mobile applications. Sustainable: Reduces biomedical waste by eliminating the need for disposable needles, test strips, and sensor patches. User-Friendly: Completely non-invasive, convenient, and designed for frequent, comfortable monitoring. Non-invasive Glucose Estimation, Photoplethysmography (PPG), Smart Wearables, Software as a Medical Device (SaMD), Software as a Service (SaaS), Healthier Lifestyle Healthcare, Medical Devices, Telehealth, Medical Software & Imaging