TECH OFFERS

In hydroponics, plants receive nutrients directly from a water-based solution. pH affects how well plants can absorb these nutrients. If the pH is too high (alkaline) or too low (acidic), certain nutrients become chemically unavailable, leading to deficiencies even if the nutrients are present. To adjust the pH, hydroponic farmers have to use pH up solution (commonly potassium hydroxide or potassium carbonate) or pH down solution (commonly phosphoric or nitric acid), which adds cost, increases safety risks and utilises resources like time, manpower and storage space. This innovation combines Electrolysed Water (EW) with an Internet of Things (IoT) system to autonomously adjust pH to improve vegetable health, optimise plant growth, and reduce algae without the use of chemicals. The solution features a modular chamber setup, precise EW control, and real-time environmental monitoring. The technology addresses the common challenges of uneven plant growth, algae outbreaks, and chemical handling in urban agriculture. The Electrolysed Water (EW) system is capable of adjusting water pH levels from acidic to alkaline without chemicals. An integrated IoT system with sensors for pH, EC, water temperature, humidity, light lux, CO₂, and atmospheric pressure. Enhances germination and plant height of leafy greens, microgreens and algae significantly. Five modular, human-sized growth chambers with protocols for immediate test-bedding and optimisation Urban farms and vertical farming systems Indoor hydroponics and aquaponics setups Algae control in closed-loop water systems Educational training for smart farming and sustainable agri-tech Food packaging films (for shelf-life extension studies) Government agencies focusing on chemical reduction in agriculture This technology offers a chemical-free, safe alternative for pH control in agriculture. The use of EW eliminates the need for acids or alkalis, reducing handling risks and removing the need for chemical storage. IoT integration allows remote monitoring and automation, optimising plant conditions in real-time. The system improves plant health, enhances yield, and controls algae naturally, providing a return on investment within the near term through savings on chemicals, training, and space. Smart Farming, IoT in Agriculture, Hydroponics, Urban Agriculture, Algae Control, Sustainable Farming, Chemical-Free Farming, Smart pH Control, Indoor Vertical Farming, Electrolysed Water Sustainability, Circular Economy

With the maritime industry responsible for 2–3% of global CO₂ emissions, the need for practical, safe, and affordable low-carbon fuel solutions has become increasingly urgent. While alternatives like hydrogen and ammonia show potential, they face major barriers in safety, cost, and infrastructure—particularly for long-haul shipping routes. Bio-methanol is considered a strong alternative fuel for the maritime sector, offering a practical, scalable, and safer pathway for transitioning to low-carbon marine fuels. The technology on offer features a proprietary catalyst that simplifies the bio-methanol production process, enabling up to 50% reduction in capital and operating expenses compared to conventional methods. This approach allows renewable methanol to be produced at costs approaching that of fossil-based methanol or diesel, especially when normalized by energy density and inclusive of carbon pricing. The process also supports circular economy goals by valorising waste into energy, further enhancing its environmental and societal impact. By enabling affordable, scalable production of renewable methanol, this technology fills a critical gap in the clean energy supply chain, facilitating a just and profitable transition to greener shipping. It also directly addresses the maritime industry’s growing demand for sustainable fuels that align with international climate targets, such as the International Maritime Organization’s (IMO) net-zero emissions goal. The technology owner is seeking for co-development and test-bedding opportunities with end-users in the maritime sector i.e., shipping companies, fuel distributors, port operators, and clean energy developers and waste biomass producers i.e., palm oil, bagasse, animal manures, municipal sewage waste. This technology includes a proprietary catalyst and an optimised process to convert waste biomass into bio-methanol. Its key components include: Biomass-to-Biogas: Converts waste biomass to biogas (Optional) Biogas Conversion Unit: Transforms biogas into useful building block chemicals, H2 and CO Bio-methanol Synthesizer: Production of green methanol from H2 and CO Some features of the bio-methanol process: Simplified process, thereby lowering OPEX and CAPEX up to 50% Ensures good quality and consistent methanol production Can be tailored for different waste biomass types Potential applications of this technology include (but not limited to): Biofuel – as a high value bio-methanol Biogas – to improve energy efficiency for power generation Maritime - as a clean transportation fuel in shipping to meet IMO’s target and avoid carbon emission penalties Producers of organic waste i.e., agriculture, sewage treatment plants, farming – as a method to transform waste for profit Green chemical feedstocks i.e., downstream processing of bio-methanol for green chemicals and derivatives Simplifies the operational process of converting biogas into green bio-methanol Reduces the cost of bio-methanol product by up to 50% Supports the transition to clean energy by offering good quality bio-methanol sustainability, green fuels, green biomethanol, biofuels, waste biomass, waste to x, green chemicals, catalyst, biogas, methanol, decarbonisation, sustainable fuels, clean energy Energy, Biofuels & Biomass, Chemicals, Catalysts, Organic, Sustainability, Circular Economy, Low Carbon Economy

Platinum group metals (PGMs) are critical raw materials essential in diverse industries, including automotive catalytic converters, jewelry, glassware, petrochemical refining, electronics, and healthcare sectors like pharmaceuticals and dental implants. Primarily sourced through the mining of PGM ores, they constitute about 70% of the global PGM supply, with South Africa and Russia accounting for 85% of this production. This concentration in supply can lead to price gouging and market monopoly. Recycling PGMs from waste not only mitigates the supply shortfall but also reduces environmental impacts compared to mining. However, conventional recycling methods are energy-intensive, requiring temperatures around 1500°C, and involve costly downstream processing to treat waste. Furthermore, the high processing temperatures result in high-value raw materials being burnt and releasing harmful toxins. The technology owner has developed a novel biorecovery method that incorporates and modifies a series of biochemical and biological processes into a streamlined 3-stage process as opposed to the multi-tiered stages of current conventional methods used in industry. It offers the following advantages over the competition: Energy Efficiency: consumes 6x less energy than traditional methods Cost Effective: 3x cheaper in operation cost High Yield: capable of recovering multiple PGM simultaneously with high yield even from low-grade waste Sustainability: support company decarbonization goals by offering a truly green and sustainable recycling manner for spent catalyst The core process and specifications of the technology are summarised as follows: Statistically-Optimised Ultrasonication: as a key pretreatment step, this sonication method effectively removes all undesirable metals from waste, isolating PGM-rich materials, called the PGM-preconcentrated stream, enhancing the efficiency of subsequent steps. Bioextraction Technique: secondly, utilise a novel and unique bioextraction technique to extract PGMs from waste with high efficiency (i.e., 99% recycling rate per cycle for rhodium (Rh), 92-95% per cycle recycling rate for platinum (Pt) and palladium (Pd)). It can be employed at a commercial scale without compromising yield. Bioreduction, Bioaccumulation, and Bioprecipitation: a combination of these improved biological processes are used in the third step to produce PGM into powder form which further undergoes separation and purification to produce high-purity PGM products. This technology is ideal for industries that are interested to recycle their spent catalysts. The potential applications are as follows: Catalyst manufacturers Precious metal recycling companies Electronics and lithium ion battery (LIB) manufacturers Waste management companies Modular design: reduced logistics costs and downtime Lower cost (CAPEX & OPEX) compared to existing technologies Superior recovery rate: even for low-grade wastes  Sustainable and efficient recycling: offer significant step towards decarbonisation in industrial practices Biorecycling, Platinum group metals, Low carbon emission, Decarbonisation, Clean technology, Circular economy Chemicals, Catalysts, Environment, Clean Air & Water, Biological & Chemical Treatment, Waste Management & Recycling, Industrial Waste Management, Sustainability, Circular Economy

The world faces a mounting challenge in feeding a growing population projected to reach 9.7 billion by 2050 (United Nations). This increase drives demand for high-quality protein, but traditional sources like livestock, poultry, and fish are resource-intensive (e.g., water, land, feed), environmentally harmful (GHG emissions, deforestation) and increasingly unsustainable. With high efficiency, low emissions, and strong nutritional value, insect protein offers a sustainable alternative to conventional meat sources—especially relevant in urbanized, climate-conscious societies seeking innovation in food systems like Singapore. Crickets possess subtle flavours reminiscent of crustaceans, making them an excellent addition to our fried crackers. This familiar taste profile is particularly advantageous in Southeast Asia, where prawn crackers (Keropok) are a beloved snack. By leveraging this familiarity, this technology hopes to achieve greater consumer acceptance and rapid market adoption. These versatile crackers can be savoured as a delightful snack or paired with traditional dishes such as Nasi Lemak. Whether enjoyed as a standalone treat or as an accompaniment to a meal, these cricket-infused fried crackers offer a unique and flavourful experience that bridges the gap between innovative food trends and cultural culinary traditions. The method of processing leverages the equipment available and suitable for all standard commercial kitchens e.g. steams, dehydrators, mixers and fryers, thus allowing for lower set-up costs and being scalable to large production quantities. In addition, the recipe does not use any specialised ingredients such as modified starches, additives, preservatives. Starches used are mostly native which means the cost generally be lower and easier to source for. This makes for a relatively clean-label product. The production steps are shown below: Mixing of ingredients Precooking and drying of mixture The dried pieces are deep-fried in hot oil until crispy and golden brown This product is intended to be a high protein snack, with protein content estimated to be around 12%. It also does not contain trans fats. Sodium content can be adjusted with formulation. This makes it a healthier alternative to conventional snacks like potato chips. The shelf life of this product is estimated to be at least 6 months in proper packaging under ambient and higher if nitrogen flushed. This Cricket Keropok serves as a versatile base snack that can be customized with various ingredients, seasonings, and flavours to cater to different taste preferences and market demands. Flavour Variations with Seasonings & Spices (e.g. Mala / Seaweed) Dipping & Pairing Options (e.g. Served as a dipping snack with sauces like sambal, garlic aioli, or yoghurt-based dips) Functional & Health-Oriented Applications (e.g. High-Protein Snack – Marketed as a nutritious, protein-rich alternative to regular crackers) Innovative Culinary Uses (e.g. Crushed as a topping for salads or soups) Scalable with common kitchen equipment Clean label and free of additives Healthier choice snack Sustainable & eco-friendly protein source Customisable & versatile to cater to diverse consumer preferences Alternative Protein Source, High Protein Snack, Food Sustainability, Circular Economy, Eco-Conscious Eating, Sustainable Living Foods, Ingredients, Sustainability, Circular Economy

The adoption of multi-functional autonomous robots is steadily increasing to support and enhance operational efficiency in the facilities management sector. This technology presents a robot integrated with advanced sensor systems, artificial intelligence (AI), and autonomous mobility to perform multiple tasks. As a digital concierge, the robot provides enhanced visitor experience with seamless 2-way communication and an integrated touchscreen to connect with site duty personnel. The same screen can double up as an announcement board for advertisements and alerts, thereby extending a virtual front-desk capability effectively. In the security domain, this robot conducts autonomous patrols with real-time video surveillance and A.I.-based anomaly detection. The security head is embedded with a "brain” to perform on-edge computing to detect security-related used cases, significantly improving safety and accuracy in complex indoor environments. For cleaning, the robot can detect over 30 types of waste with 99% accuracy. Its self-adaptive cleaning system adjusts to floor type and debris volume, while a verification mechanism ensures more effective spot-cleaning compared to conventional single-pass robots.  These Multi-Functional Autonomous Facility Management Robot can yield significant operational savings, increase patrol frequency and shorten response time to incidents. This technology offers a software that features plug-and-play solutions that be customised to specific SOPs and needs. The technology owner is looking for collaborators, such as building owners and integrated facility management companies, with use cases to test-bed AI models. Examples include but not limited to identification of suspicious baggage, illegal parking or stray supermarket trolleys.  The robot combines autonomous navigation with real-time AI processing. Its modular design allows for easy customisation based on operational needs. Key components include: Sensor suite featuring 32-beam 3D LiDAR, ultrasonic sensors & cameras for obstacle detection or environmental mapping AI-powered modules for object/person detection, thermal imaging, and anomaly alert Cloud-based dashboard for task assignment, remote monitoring, and analytics Interchangeable task modules for cleaning (e.g., vacuum/sweeper), security patrolling, and data capture Detect over 30 types of waste with 99% accuracy, with cleaning efficiency reaches up to 15,550 m²/hr Customisable module to fit specific applications This multi-functional robotic platform is ideally suited for deployment in environments that require a combination of cleanliness, security, and user interaction, particularly where operational efficiency and manpower optimization are key priorities. Industries and settings include: Commercial buildings: Automates cleaning, performs security patrols during and after hours, and assists visitors Healthcare facilities: Maintains hygiene, monitors for safety risks, and provides non-contact concierge functions Transportation hubs (airports, train stations): Enhances public safety and facility cleanliness at scale Retail complexes and malls: Supports shopper engagement, provides sanitation services, and detects anomalies Educational institutions and campuses: Ensures safe, clean, and welcoming environments Hospitality and mixed-use developments: Offers 24/7 concierge support, patrolling, and environment upkeep The global service robotics market is projected to grow by a CAGR of 30.25%, or $90.4 billion, from 2024 to 2028. This rapid growth will be driven by the continuing integration of advanced technologies such as IoT, A.I., and natural language processing into service robots. Technological advancements in machine learning, adaptive computing, and vision systems will also make service robots increasingly suitable for commercial tasks.  This autonomous multi-functional robot offers a comprehensive upgrade over current facility management solutions by integrating various functions in domains such as cleaning, security, and concierge into a single, intelligent body. This all-in-one solution delivers: Operational cost reduction through task consolidation across different functions, potentially cut cleaning and security manpower cost by 60-70% Faster response from sensing to action with integrated digital concierge, dashboard monitoring and real-time alerts Enhanced safety via advanced 3D spatial awareness Improved service quality without added manpower By unifying execution and intelligence across multiple domains, the robot transforms traditional building operations into efficient, autonomous workflows, bridging the gap between insight and action, delivering a more responsive, self-sufficient, and cost-effective solution for modern facility operations. Autonomous robotics, Integrated facility operations, cleaning automation, security surveillance, AI, robots, multi-function Green Building, Sensor, Network, Building Control & Optimisation, Infocomm, Robotics & Automation, Ambient Intelligence & Context-Aware Computing, Environment, Clean Air & Water, Sensor, Network, Monitoring & Quality Control Systems

This technology represents an innovative approach to indoor air quality (IAQ) management, focusing on sustainability and energy efficiency. Leveraging the principle of dilution, outdoor airflow can be adjusted dynamically to balance energy consumption and air quality. The system uses a predefined control algorithm to determine the optimal mix of outdoor and recirculated air based on the concentration of particulate matter or carbon dioxide in the indoor environment. Users can customise the system's operation based on their IAQ requirements, ensuring efficient ventilation while minimising energy usage. This low-cost solution aims to tackle challenges associated with IAQ, energy efficiency, and sustainability that cannot be accomplished by traditional heating, ventilation, and air conditioning (HVAC) systems. Instead, integrating decentralised air purification technologies into building design and urban planning initiatives, indoor pollutants can be removed while minimising operational costs and environmental impact. City planners can now better prioritise IAQ and energy efficiency from the outset, ensuring that future developments contribute to healthier, more livable communities. Public health, well-being, environmental sustainability, and climate resilience can be strengthened. This technology is best suited for retrofitting air conditioning systems in small to medium-sized residential care facilities and commercial buildings. This technology uses IAQ management to maintain consistent air quality, tailored to individual rooms or zones. With customisable airflow rates and purification levels, IAQ can be more effectively managed across the entire building. Additionally, integrating the Dilution Air Processing Unit (DAPU) enhances energy efficiency through process integration, engineered air psychrometry, and real-time monitoring and control. This significantly reduces energy consumption and operational costs compared to conventional HVAC systems. The novelty of this technology lies in its comprehensive approach to IAQ management, integrating engineering principles with advanced technologies to deliver tailored solutions for various building needs. Key features and performance data of DAPS include: Customisable fresh air intake: Gradually adjusts fresh air intake to maintain target PM1.0/PM2.5 levels. Activates 100% fresh air only when PM levels reach user-defined critical thresholds. Improved particle reduction efficiency: At a baseline ventilation requirement of 33% fresh air, DAPS reduces PM2.5 by 33%, compared to only 21% with traditional ACMV systems. At 100% fresh air, DAPS reduces PM2.5 by 79%, whereas traditional ACMV systems achieve only 51%. Better performance compared to air purifiers: Provides 10% higher PM2.5 particle reduction efficiency than standard air purifiers in similar room settings. Air purifiers do not meet SS554 fresh air requirements for buildings. Energy efficiency: When coupled with Dilution Air Processing Unit (DAPU), DAPS consumes 25% to 34% less energy across all fresh air settings than traditional ACMV systems. Critical environments such as hospitals and laboratories Commercial buildings requiring zone-level or room-level IAQ control Healthcare isolation and treatment facilities Hot-desking areas in airport terminals Hot-desking areas in shopping malls     Optimises energy efficiency by identifying the ideal fresh air percentage to achieve the desired air quality, ensuring energy savings and improved IAQ. Adapts purification levels in real-time to minimize unnecessary energy use while maintaining optimal air quality. Mitigates retrofitting issues for existing buildings by setting up easy-to-implement real-world examples. Incorporates advanced dynamic features that meet SS554 standards and outperform existing air cleaning technologies, including air purifiers and HEPA filters. Adopts a pollution-free, environmental-friendly approach for indoor air quality, aligning with global energy and environmental goal. The technology owner seeks to collaborate with: Building and transport system integrators to drive widespread adoption of DAPS. Healthcare institutions looking to upgrade their ventilation systems to reduce respiratory illnesses among vulnerable occupants. AI-based statisticians to analyse correlations among various factors and develop predictive models for reducing the spread of airborne diseases using DAPS data-driven systems. By integrating engineering, health sciences, and data science, the technology owner aims to develop comprehensive healthcare solutions for future advancements. Dilution ventilation, Air purification, Clean air technology, Indoor air quality management, Outdoor/ Fan Environment, Clean Air & Water, Sensor, Network, Monitoring & Quality Control Systems

Facing the dual challenge of high energy consumption and the need for effective air purification in urban environments, this solution optimizes air filtration in HVAC systems. By employing advanced sound wave technology, the specialized emitter agglomerates fine airborne particles, making them easier to capture and significantly reducing the pressure drop across air handling units. This method not only lowers energy usage but also extends filter lifespan, cutting operational costs and maintenance needs. Ideal for building operators and industries that prioritize energy efficiency and superior indoor air quality, such as commercial real estate, hospitals, and manufacturing facilities, this system meets stringent G4 filtration standards and achieves performance levels equivalent to MERV 13 and MERV 14 filters.  The technology presents a cost-effective solution that significantly enhances HVAC performance and air quality, positioning itself as a sustainable investment for facilities dedicated to optimizing operational efficiency and environmental health. It improves motor energy consumption by up to 45%, while also enhancing air quality and reducing operational costs in HVAC systems. The technology owner is actively seeking collaboration partners for research and development, as well as opportunities for test-bedding within the HVAC systems field to enhance indoor air quality. Patented Emitters: Positioned along the edges of the system’s frame, these emitters work in tandem with the filter core to reduce pressure drop and enhance filtration efficiency. By altering the path of particulate matter (PM) using sound waves, the system requires less fan power to deliver the same volume of clean air, resulting in significant energy savings. Filter Media: High-quality synthetic media designed with environmental sustainability in mind. Efficiency: G4-rated performance, with MERV 13/14 efficiency validated through rigorous testing. Healthcare: Ensure sterile environments with advanced air purification and energy Saving capabilities Entertainment, Hospitality, and Education: Reduce energy consumption and improve air quality for public spaces. Construction and Real Estate: Improved HVAC performance in commercial buildings. Data Centre: Demanding Eco-energy solutions to enhance CRAC, Fan Wall, HVAC system energy reduction. Manufacturing: Efficient air filtration in industrial settings. The global market for advanced air filtration systems is robust, valued at approximately USD 4 billion and experiencing rapid growth. These systems enhance filtration efficiency by 50% and reduce pressure drops by up to 70%, significantly improving HVAC performance and energy savings. They also allow fan motors to lower energy consumption by up to 50%, maintaining optimal air quality. With an 80% increase in filtration efficiency, these technologies effectively capture more airborne pollutants, offering superior air purification compared to similar market solutions.  This advanced air filtration technology significantly outperforms traditional systems by utilizing sonic vibration to extend the travel distance of airborne particles, enhancing their capture by filter fibres for a 50% boost in filtration efficiency. Additionally, it reduces pressure drops across air handling units, enabling up to 50% energy savings and lowering operational costs while supporting sustainability goals. The UVP lies in its patented sound wave technology that uniquely alters the path of particulate matter, delivering unmatched performance and energy efficiency. This makes the system versatile for use in diverse settings like hospitals, data centres, and commercial buildings. energy saving, hvac, air quality, esg, green building, air filtration, carbon emission, filtration Environment, Clean Air & Water, Filter Membrane & Absorption Material, Sustainability, Sustainable Living

The leather industry faces increasing challenges due to its high environmental impact and ethical concerns. Traditional leather production drives deforestation, greenhouse gas emissions, and water pollution, while the tanning process involves toxic chemicals. Synthetic alternatives, often made from PU or PVC, contribute to microplastic pollution and long-term waste. As industries seek sustainable and ethical alternatives, the demand for eco-friendly materials is rising.  This innovation introduces mycelium-based leather, a biodegradable, non-toxic, and low-carbon alternative. Cultivated using agricultural waste as a substrate, it eliminates the need for livestock farming, excessive water use, and harmful chemicals. The result is a high-performance material that mimics the look, feel, and durability of traditional leather while being sustainable and scalable.  Ideal for fashion, footwear, automotive, and upholstery industries, this technology meets the growing demand for eco-friendly and ethical materials. With customizable properties and scalable production, it offers a viable alternative for brands looking to reduce their environmental footprint without compromising on quality or aesthetics.  The technology owner is looking for R&D collaborations and test-bedding partners to develop new products.  This mycelium-based leather is engineered for strength, flexibility, and durability, making it a high-performance alternative to traditional leather. It resists tearing, stretching, and abrasion, ensuring longevity even under frequent use. The material remains crack-free and flexible over time, making it suitable for applications requiring both durability and comfort.  Its colorfastness properties ensure that the material retains its color and texture, even after washing, exposure to sweat, and prolonged wear. It is resistant to staining and fading, maintaining a premium appearance over time.  From a sustainability and safety perspective, this leather is free from harmful chemicals and has natural insulating properties, making it suitable for various applications. It is also fully biodegradable, decomposing naturally within a short period, unlike synthetic leather, which contributes to long-term plastic waste.  With a significantly lower carbon footprint compared to traditional leather, this innovation provides an eco-friendly and scalable solution for industries seeking high-quality, sustainable materials without compromising on performance or aesthetics.  This mycelium-based leather technology can be deployed across multiple industries that require durable, flexible, and sustainable materials.  Fashion & Accessories  Footwear, handbags, wallets, small leather goods, apparels  Automotive & Transportation  Car seat upholstery, steering wheel, dashboard covering, seat interiors Consumer Electronics  Smartphone cases. smartwatch straps. laptop sleeves and accessories  Furniture & Interior Design  Upholstery for chairs and sofas  Luxury Goods & Packaging  Branded accessories for premium products  The global leather goods market is projected to reach USD 470 billion by 2025, with a 7% CAGR, while the leather alternatives market is valued at USD 150 billion. The mycelium leather market is expected to grow from USD 106 million to USD 5.6 billion by 2028-2030, signaling strong industry adoption.  Sustainable & Circular – Biodegradable, plastic-free, and low-carbon, offering a cleaner alternative to animal and synthetic leather.  Regulatory & Consumer Shift – EU and US restrictions on animal and PU/PVC-based leather are driving demand for ethical, low-carbon materials.  High Performance & Cost-Effective – Matches traditional leather in durability and aesthetics, with a lower environmental impact and scalable production. Expanding Adoption – Growing investment in bio-materials across fashion, luxury, automotive, and furniture industries, creating B2B collaboration opportunities.  Key Advantages Over Animal Leather  Sustainable Production – No livestock farming, reducing land use by 100x, water consumption by 90%, and carbon emissions by 42%.  Chemical-Free Tanning – No toxic chromium or heavy metals, preventing water pollution.  Ethical & Cruelty-Free – No animal slaughter, aligning with the demand for ethical and sustainable fashion.  Key Advantages Over Synthetic Leather (PU/PVC)  Plastic-Free & Biodegradable – Fully biodegrades within 90 days (ISO 14855-1), unlike PU/PVC, which contributes to microplastic pollution.  Lower Carbon Footprint – Made from upcycled agricultural waste instead of fossil fuel-based materials.  Non-Toxic & Safe – Free from harmful solvents and chemicals, ensuring safer consumer use.  Why Mycelium Leather?  Scalable & Customizable – Easily grown and processed, with adjustable thickness, texture, and color.  Durable & High-Performance – Matches animal leather in strength, flexibility, and longevity, without cracking or peeling.  mycelium leather, sustainable alternative, animal-free, ethical fashion, vegan leather, next-gen textiles Waste Management & Recycling, Food & Agriculture Waste Management, Sustainability, Sustainable Living, Low Carbon Economy

With increasing discoveries of new pollutants being detrimental to human health and the environment, there have been an increasing scrutiny of air pollution, industrial emission and air quality through tighter government regulations. With the increasing importance to detect different combination of analyte concentrations within an area, there is a growing demand for electronic olfactory system. Laboratory multi-analyte analysis method, like gas chromatography and mass spectrometry (GC/MS), provide high accuracy and selectivity but is time consuming, complex and not portable. Comparatively, industrial gas sensors, like micro-electromechanical systems (MEMS), are portable and simple but lack the selectivity of chemical substances and do not operate in real-time. The technology owner has leveraged on Field Asymmetric Ion Mobility Spectrometry (FAIMS) with a proprietary odour analysis system built on extensive experimental data to develop a compact, lightweight spectrometer for real-time multi-analyte analysis.  While this system may not fully match the performance of laboratory-grade mass spectrometry, it offers higher accuracy and selectivity than industrial gas sensors, enabling continuous, non-invasive analysis on the go. Notably, it excels in ammonia detection by achieving highly sensitive measurements ranging from sub-ppb to several hundred ppb. The technology owner is currently seeking industrial collaborators looking to explore digital olfaction devices for multi-analyte analysis application, particularly for ammonia-based detection, which leverages on the technology’s high selectivity and sensitivity. The device solution utilises FAIMS (Field Asymmetric Ion Mobility Spectrometry), which separate individual gas molecules via ionisation and specialised electric field and identifies them via electrical signals. Previously limited to only specialised environments, the technology owner has leveraged on proprietary algorithm of data analysis to develop a deployable device for broader usability. The key features include: High sensitivity and selectivity Battery powered for portability to deploy device (as an IoT) on site Compact formfactor (~3kg) with current prototype being 120mm (H) × 220mm (W) × 160mm (D) User friendly with no in-depth technical expertise required Real-time multi-gas analysis for quick and actionable insights, such as pattern recognition, early hazard detection and predictive maintenance Continuous, non-invasive sample delivery design using integrated pump design for contactless analysis Provision of cloud data transmission, computing and visualisation for horizontal usage across various application Easier maintenance due to fewer consumables and ease of replacement With the capability of deployable laboratory multi-analyte detection and analysis, the technology solution is designed to enable various odour-centric application across different industries such as: Environmental Monitoring for Safety and Health: Monitoring and mapping of ambient air pollutants, fire hazard monitoring and prediction, cleanroom contamination and visualisation, and odour monitoring in confined environments (e.g. cabin air, tunnel) Gas/Solvent-based Industrial & Manufacturing Processing: Monitoring, leak detection and mapping (e.g. for ammonia energy source), odour detection and control, and solvent analysis and contamination evaluation Food & Beverages: Maintenance of food hygiene, freshness evaluation and control, authenticity assessment of products, and contamination detection and mapping Logistics: Monitoring of perishables, and packaging defect detection Healthcare and Wellness: Non-invasive bio-gas analysis for disease diagnostics, management of chronic conditions, and effectiveness testing Agriculture: Quality assessment of produce, and predictive maintenance of optimal growth conditions The global electronic nose (e-nose) market is expected to be valued at US$972 million in 2024 and is projected to reach US$1,617 million by 2029, exhibiting a CAGR of 10.7% during the forecast period. Across application segments within the global e-nose market, medical application is projected to be the largest market share in 2029 of US$665 million while environmental monitoring application is expected to exhibit the largest CAGR of 12.1% during the forecast period of 2024 to 2029. The technology solution is designed to leverage the advantages of FAIMS and MEMS technology to develop the odour sensor system capable of high sensitivity and selectivity while being compact, portable and user friendly. With the continuous real-time multi-gas analysis on site, the system has the capability to provide AI based analytics, such as odour profiling and predictive maintenance, for quick insightful decision-making. This technology will provide the future integration to a non-invasive IoT device across various use-cases, from potentially detecting new hazardous odours for public safety to disease diagnostics via breath analysis. Real-Time Spectrometry, MEMS, Field Asymmetric Ion Mobility Spectrometry (FAIMS), Air Quality, Ammonia Monitoring and Detection, Process Monitoring, Bio-gas Diagnostics, Food Inspection, Chemical Substance Detection, Volatile Organic Compounds (VOC), Leak Detection Electronics, Sensors & Instrumentation, Green Building, Indoor Environment Quality, Infocomm, Smart Cities, Environment, Clean Air & Water, Sensor, Network, Monitoring & Quality Control Systems