TECH OFFERS

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

This technology offer presents a nano-formulated iron supplement designed to enhance nutrient uptake and improve plant growth efficiency. Using nano-sized iron particles, the formulation increases iron solubility and bioavailability, ensuring faster absorption through plant roots and foliage. Iron is essential for chlorophyll production, photosynthesis, and metabolic enzyme activities. In many soils, especially alkaline or calcareous soils, iron becomes unavailable, leading to yellowing leaves and reduced growth. The formulation overcomes this challenge by delivering iron in a stable, highly absorbable form that maintains plant greenness, increases leaf development, and enhances overall plant vigor. Field trials on Brazilian spinach demonstrated up to 82% increase in plant height, broader leaf formation, and healthier coloration compared to untreated controls. The technology owner is open to further co-development and field validation through multi-site trials, data sharing, and performance benchmarking across various soil types and crops. This nano-chelated iron formulation (23% w/w Fe) utilises nano-sized iron particles to increase solubility, mobility, and absorption efficiency in plant tissues. Key features include: High Bioavailability & Rapid Uptake - Nano-scale particle size allows faster penetration through root and leaf membranes, improving nutrient translocation. Supports Chlorophyll & Photosynthesis - Enhances chlorophyll biosynthesis and photosynthetic activity, resulting in deeper green foliage and improved energy production. Prevents Chlorosis in High-pH Soils - Remains soluble and plant-available even in alkaline or calcareous soils where conventional iron forms become insoluble. Improved Plant Growth Performance - Proven to increase plant height (up to 82%), expand leaf width, and strengthen stems, based on controlled plant trials. Compatible with Foliar and Soil Application - Water-soluble formulation suitable for weekly foliar spray or root irrigation feeding. Field & Plantation Crops Enhances chlorophyll formation and growth in crops such as paddy, corn, sugarcane, and oil palm, especially in iron-deficient soils. Leafy and High-Value Vegetables Improves leaf size, greenness, and yield quality in vegetables such as spinach, kangkung, sawi, salad greens, and herbs. Fruit Trees & Orchard Management Supports strong vegetative growth and fruit setting in mango, papaya, citrus, guava, banana, and other fruiting plants. Greenhouse, Hydroponics & Vertical Farming Provides controlled iron supplementation in soilless systems, ensuring continuous nutrient availability for efficient plant metabolism. Nurseries & Seedling Production Strengthens early-stage plant development, promoting healthier, greener seedlings with improved survival and transplant success. This formulation delivers iron in a highly bioavailable nano-chelated form, ensuring rapid absorption and effective nutrient utilisation even in soils where conventional iron fertilisers fail. Its nano-scale formulation prevents chlorosis, enhances chlorophyll production, and significantly improves plant vigor and growth with lower application volume, reducing overall fertiliser cost. The product provides visible results, including greener leaves, stronger stems, and increased yield quality. Safe, water-soluble, and compatible with foliar or root application, the supplement supports sustainable, high-efficiency farming across field crops, vegetables, fruit trees, nurseries, and hydroponics. It offers farmers a proven, fast-acting, and cost-effective plant nutrition solution. nano-iron, fertiliser, fertilizer, advanced foliar supplement, precision nutrient delivery Chemicals, Agrochemicals, Life Sciences, Agriculture & Aquaculture, Sustainability, Food Security

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

Traditional hydropower systems require large-scale infrastructure, making them expensive and location dependent. This In-Pipe Hydropower Generation System offers an innovative, cost-effective, and eco-friendly alternative that captures excess water pressure within pipelines to generate electricity. The system features multiple nozzles and a smart bypass mechanism that optimize power generation while maintaining stable water flow. It is designed to be scalable, modular, and compatible with existing municipal and industrial pipeline networks. Additionally, it can efficiently generate energy under varying flow conditions. While the system is capable of producing significantly higher power, real-world testing has demonstrated an output of up to 60 kW, helping to reduce energy costs and provide a sustainable solution for water distribution networks. The technology provider is seeking collaboration partners, including municipal and government agencies, industrial water users, agricultural and irrigation networks, and engineering and utility companies, to co-develop, test-bed, and deploy the In-Pipe Hydropower System. This pipeline hydropower system is designed to maximize energy conversion efficiency without disrupting water demand. Key features include: Smart Bypass System - Redirects excess flow back into the turbine and main channel for continuous energy generation and stable water flow. Multi-Nozzle Design - Optimized to adjust to varying water flow rates, ensuring a stable power output. High Energy Efficiency - Converts up to 90% of kinetic energy into electricity. Low Maintenance & Long Lifespan - Built for durability and minimal operational costs. Modular Configuration - Adaptable to different pipe sizes and water flow conditions. This hydropower technology is suitable for various industries and infrastructure systems: Municipal Water Systems - Generates renewable energy from city water pipelines, reducing municipal electricity costs. Industrial Pipelines - Provides sustainable power for factory operations without additional fuel costs. Irrigation Networks - Generates power from agricultural water distribution systems, supporting rural electrification. Water Treatment Plants - Reduces operational energy costs by utilizing existing water flow for power generation. Off-Grid & Remote Locations - Supplies environmentally friendly electricity to rural and isolated communities. This In-Pipe Hydropower System offers a game-changing approach to renewable energy, outperforming conventional methods in both efficiency and sustainability: Cost-Effective & Energy Saving Captures up to 90% of kinetic energy and converts it into usable electricity. Reduces operational energy costs for municipalities and industries. Eco-Friendly & Sustainable Produces zero carbon emissions, supporting global net-zero targets. Utilizes existing infrastructure, eliminating the need for new dams or reservoirs. Adaptive & Scalable Technology Modular design allows easy integration into various pipeline sizes and networks. Adjustable nozzles enable efficient power output even under fluctuating water conditions. Proven Performance & Market Viability Successfully tested with a major water authority, demonstrating power generation of up to 60 kW. Ready for commercial adoption in municipal, industrial, and agricultural sectors. Low Maintenance & Long Lifespan Designed for durability with minimal operational costs. Significantly reducing maintenance cost by up to 40% compared to conventional hydropower systems. Self-Powered, Hydro-powered, Adaptable Flow Rate, Water Flow for Power Generation Environment, Clean Air & Water, Mechanical Systems, Sustainability, Low Carbon Economy

Coastal regions are increasingly vulnerable to shoreline erosion and infrastructure damage caused by rising sea levels, stronger waves, and frequent storm surges. Conventional concrete breakwater designs often struggle under such harsh marine conditions due to inadequate interlocking, limited adaptability to diverse coastal profiles, and high maintenance demands. This technology introduces geopolymer-based, geometrically optimized concrete armour units designed to enhance the stability, durability, and sustainability of coastal protection structures. By using fly ash–based geopolymer concrete, the technology not only reduces carbon emissions but also delivers superior interlocking performance and long-term resilience against dynamic wave forces, making it a sustainable solution for modern coastal defense. The technology owner is seeking R&D collaborations with coastal engineering firms, infrastructure developers, and government agencies to co-develop, testbed, and commercialise this geopolymer-based armour unit technology, accelerating its deployment in sustainable coastal protection projects The technology consists of geopolymer-based concrete armour units enhanced with fly ash to deliver superior stability, durability, and environmental performance for coastal protection applications. Key features include: Optimised geometric variants: three types of armour units are designed to perform effectively under varying wave conditions and structural requirements Modular and scalable design: compatible with multiple breakwater geometries and easily adaptable to different coastal profiles Sustainable material composition: incorporates fly ash as a binder, reducing carbon emissions and reliance on traditional cement High structural strength: engineered to withstand flexural and shear stresses from dynamic wave action, ensuring long-term resilience Enhanced interlocking mechanism: geometry improves inter-unit stability and minimizes displacement under turbulent sea conditions Coastal and harbour breakwater systems Shoreline and beach erosion mitigation projects Infrastructure in climate-vulnerable coastal zones Island and offshore structure protection Military or industrial marine infrastructure Oil & Gas Sector: Protection of offshore platforms, subsea pipelines, and LNG terminals from strong wave action Structural reinforcement for shore-based oil depots and jetty terminals Erosion and scour protection for underwater structures and coastal facilities Sustainable material use: incorporates fly ash-based geopolymer concrete, lowering carbon footprint Versatile geometry: adaptable to various wave conditions and structural configurations Durability and stability: superior resistance against wave loads reduces long-term maintenance geopolymer, concrete, coastal protection, infrastructure, sustainability, coastal resilience, fly-ash, geometric unit Materials, Composites, Sustainability, Low Carbon Economy

An Adsorption Heat Pump (AHP) is a thermally driven heating and cooling system that operates through the physical adsorption of a refrigerant onto a solid adsorbent material. Unlike conventional vapor-compression systems that rely on mechanical energy, AHPs are powered by low-grade thermal energy sources such as waste heat, solar thermal energy, or biomass, offering a highly energy-efficient and environmentally sustainable alternative. Using environmentally safe solid adsorbents such as silica gel, zeolite, or activated carbon, and natural refrigerants like water or ammonia, the system functions through a cyclic adsorption–desorption process. During adsorption, refrigerant vapor adheres to the solid adsorbent, releasing heat for heating purposes. In the desorption phase, heat is applied to the adsorbent, releasing the refrigerant vapor, which then condenses to produce cooling. By tapping into waste or renewable heat sources, AHPs significantly reduce electricity consumption and carbon emissions, making them ideal for decentralized and off-grid applications. They are particularly effective in settings where electricity is limited or costly, or where waste heat is abundantly available. Although AHPs typically exhibit lower coefficients of performance (COP) than conventional systems and may require more installation space, their energy efficiency, sustainability, safety, and long lifespan make them a compelling choice for green and circular energy systems. This technology is available for R&D collaboration and IP licensing with industrial partners including data centers, refrigeration equipment manufacturers, and energy solution providers. The system delivers impressive performance by effectively harnessing low-grade heat to produce cooling, while minimizing electricity consumption and reducing waste heat generation. key features includes: Heat-driven cycle: Operates primarily on thermal input, consuming negligible electricity Eco-friendly system: Composed solely of water, an adsorbent, and a feed pump, resulting in zero greenhouse gas emissions Low operational temperature: Capable of producing chilled water at 15°C from 55–60°C waste heat Safe and quiet: Contains no moving mechanical parts, operates at low pressure, and uses inherently safe, non-flammable, and non-toxic working components Durable and low maintenance: Offers a long operational lifespan with minimal servicing requirements Data Centers: Utilize waste heat from direct liquid cooling systems to generate 15°C chilled water for cooling applications Industrial Facilities: Recover and repurpose low-grade heat from manufacturing or waste incineration processes for air-conditioning or refrigeration District Cooling and Renewable Integration: Ideal for decentralized systems powered by biomass, solar thermal, or other renewable sources This heat-driven refrigeration system operates at a low driving temperature of 55°C, unlike conventional systems that typically require hot water above 70°C. Under suitable conditions, it can even function with heat sources as low as 50°C. In addition, the system delivers exceptional energy performance—producing up to 15 times more cooling capacity than the power consumed, which is approximately three times higher than that of conventional electrically driven refrigeration units. Materials, Composites, Energy, Waste-to-Energy, Chemicals, Polymers, Sustainability, Circular Economy