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As global solar adoption grows, photovoltaic (PV) system underperformance and degradation remain key challenges, impacting energy yield and financial returns. Solar PV systems degrade over time due to factors related to manufacturing defects, environmental exposure and poor maintenance. While targeted interventions exist to mitigate specific degradation mechanisms, the primary challenge lies in accurate diagnosis. Traditional diagnostic methods, such as drone-based thermal imaging and on-site inspection, are often hardware-intensive and costly, limiting their scalability for large solar portfolios. To address these challenges, the technology owner has offered an AI-powered hardware-agnostic software platform that analyzes inverter data to identify degradation mechanisms and assess PV system health. Leveraging advanced machine-learning algorithms, the platform can evaluate degradation rate, system inefficiencies, and root causes of underperformance, providing solar asset owners with real-time insights and actionable recommendations to optimize system performance. The solution goes beyond simple diagnostics, it integrates financial modeling and power output forecasting to help users make data-driven decisions to maximize energy yield and their solar investment returns. The technology owners are actively seeking collaborations with solar operation & maintenance (O&M) providers aiming to enhance their maintenance packages with AI-driven PV health check and predictive diagnostics. No Additional Hardware Required: Utilizes existing inverter data, eliminating the need for extra hardware and associated costs AI-Driven Diagnosis: Proprietary machine-learning models analyze historical power output data to identify degradation mechanisms and root causes, ensuring timely and precise assessment Financial Modeling & Projections: In-depth economic assessments help users evaluate cost-effective remedial actions Automated Health Reports: Users can upload inverter data and receive comprehensive system report detailing system’s health, degradation rates and optimization opportunities Actionable Insights: Based on expert analysis, provides a list of tailored actions to rectify identified issues, facilitating effective system optimization Seamless O&M Integration: Solar O&M providers can incorporate the software into their service offerings to enhance customer engagement and operational efficiency Solar O&M Providers: Enhance maintenance packages by providing clients detailed system health reports, including degradation insights, power output analysis, and system optimization recommendations, enhancing customer engagement and their service differentiation Solar Asset Owners & Investors: Enables independent system assessment and data-driven decision-making to improve solar PV performance and maximize long-term returns Renewable Energy Consultants: Leverage the software for advanced solar PV performance audits and system health diagnostics Hardware-Agnostic: Extracts insights directly from existing inverter data, eliminating the need for costly hardware like drone imaging Cost-Effective & Scalable: Offers an affordable, scalable alternative for health assessments without high-cost diagnostics Proactive Maintenance & Optimization: Identifies early warning signs to minimize downtime and operational disruptions Data-Driven Decision Support: Provides actionable insights and financial projections to empower informed decision-making inverter data analysis, degradation causes, diagnostic software, solar system health, system performance, solar asset management Infocomm, Artificial Intelligence, Energy, Solar

Tradtional oil sludge treatment methods typically involve multi-stage processes, including dewatering, drying and incineration, which are energy intensive, costly and inefficient in recovering valuable hydrocarbons. These conventional methods struggle with high oil/ water content sludge, requiring excessive pre-treatment. High operational costs, and environmental concerns.  The multi-layer spiral thermal pyrolysis desorption system addresses these challenges by eliminating the need for pre-drying, efficiently processing sludge with varying compositions, and optimizing hydrocarbon recovery. The technology is particularly valuable to oil refineries, petrochemical plants, tank cleaning operators and palm oil processing industries, enabling them to enhance resource recovery, reduce waste disposal costs, and company with environmental regulations. The oil content upon pyrolysis is between 0.3% - 2%.  The technology owner is looking for collaborations with oil field customers, hazardous waste centers, and wastewater treatment plants for R&D collaboration, test bedding, licensing or IP acquisition.  The Multi-Layer Spiral Indirect Thermal Pyrolysis Desorption System is deisgned for efficient sludge treatment and hydrocarbon recovery, integrating multiple advanced components: Transfer Feeding Unit: Efficient material intake and handling  Pyro-Desorption Unit: Indirect gradient heating for thermal separatino of hydrocarbons  Pyrolysis Gas Treatment Unit: Separates and recovers valuable hydrocarbons while managing emissions  Thermal Energy Supply Unit: For precise heat control  Discharging & Cooling Unit: Minimizing secondary contamination  Circulating Water System: Enhances energy efficicency by recycling heat  Exhaust Flue Gas Treatment Unit: Incoporates filtration gas and gas neutralization to comly with environmental standard Additionally, it adapts widely to a range of material, posesses high processing capacity and efficiency with a fully sealed and safe deisgn  Oilfield Industry - Treatment of drilling mud, oil-based cuttings, and production sludge generated during exploration and extraction process  Refining & Petrochemical - Processing oil sludge from refineries, chemical plants, and petrochemical storage facilities  Storage Industry - Managing sludge accumulation in storage tanks, pipelines, and tank cleaning operations  Palm Oil Processing - Recovery of residual palm oil from palm oil mill effluent sludge Hzardous Waste Treatment Centers - Handling high-viscosity, high-liquids-content industrial sludge and contaminated solid waste The global sludge treatment market is growing due to stricter environmental regulations and sustainable waste management needs. The market for sludge treatment chemicals is projected to grow from $5.03B in 2022 to $8.02B by 2032 (CAGR 4.4%), while the oil sludge treatment equipment market is expected to rise from $795M in 2023 to $1.185B by 2030 (CAGR 5.8%). These trends present strong market opportunities for advanced technologies like the multi-layer spiral thermal pyrolysis desorption system to enhance efficiency, hydrocarbon recovery, and environmental compliance across industries. No Pre-Drying Required – The system directly processes high- liquid-content sludge, reducing energy consumption and operational complexity High Hydrocarbon Recovery – Optimized pyrolysis with indirect gradient heating ensures higher recovery rates of valuable oil, maximizing resource efficiency Wide Material Adaptability – Effectively handles high-viscosity, high-water-content, and toxic sludge, making it versatile for oil refineries, petrochemical plants, and hazardous waste centers Integrated, Cost- Effective Solution – Combines pyrolysis, gas treatment, quenching and emissions control into a single automated system, lowering processing costs and improving efficiency Eco-friendly & Compliant - Advanced exhaust gas treatment minimizes emissions, ensuring compliance Waste Management & Recycling, Industrial Waste Management, Sustainability, Low Carbon Economy

The global diabetes prevalence is estimated to be 9.3% in 2019 and is expected to rise to 10.9% by 2045 [1]. Although there is no cure for diabetes, regular blood glucose monitoring and appropriate medication can control the symptoms. Electrochemical glucose meters are accepted as being the most accurate and reliable glucose measurement devices. However, they are invasive and patients need to take three to six measurements daily. As a result, their nervous system may be damaged due to long-term usage. There are several proposed approaches for non-invasive glucose monitoring, mainly based on optical, transdermal and electrochemical techniques. Due to the nature of these technologies, the proposed approaches are not suitable for continuous monitoring. This technology is a wearable sensor that makes use of transmission line implemented using a microstrip working at microwave frequencies to measure blood glucose non-invasively and continuously. The technology owner is looking for licensees to commercialise this technology. [1] Saeedi, P., et al. (2019). Global and regional diabetes prevalence estimates for 2019 and projections for 2030 and 2045. Diabetes Research and Clinical Practice, 157, 107843. This technology is developed based on the fact that the change of the glucose level in blood alters the electrical properties (permittivity and conductivity) of the tissues at the target site. It is realised by having a microstrip line (MLIN) built around a finger with the finger serves as the substrate of the MLIN. Signal is input from the tip of the finger. The signal line is on one side of the finger, and the ground plane is on the other side. The return loss of the microstrip is then measured to determine the glucose concentrations. In this approach, the sensitivity is increased significantly by: the dense field between the transmission line and the ground plane for sensing; and the patterned transmission line and patterned ground plane. The sensor can be worn as a ring, finger stall or bracelet. Other similar products have low penetration depth, and their readings are affected by factors such as body temperature and hydration. The technology enables continuous, non-invasive monitoring of glucose levels in diabetic patients, offering a reliable, efficient, and patient friendly solution. The non-invasive glucose meter market, valued at USD 165.41 million in 2022, is projected to grow at a CAGR of 8.65%, reaching USD 321.22 million by 2030 [2]. This growth is fuelled by increasing demand for personalised and data-driven diabetes management solutions. Advancements in big data analytics and artificial intelligence are transforming the market, enabling real-time glucose monitoring and tailored hypoglycemic control based on individual lifestyle and health data. These innovations address a critical need for non-invasive, patient-friendly solutions that enhance diabetes management while reducing the discomfort and limitations of traditional methods. With the introduction of such cutting-edge technologies, there is a significant opportunity to capture market share by meeting the growing demand for efficient, AI-driven glucose monitoring devices that empower both patients and healthcare providers. [2] Data Bridge Market Research. Global Non-Invasive Glucose Meter Market. Retrieved from Data Bridge Market Research. This technology offers a non-invasive alternative method, which could be used to develop a continuous glucose monitoring sensor device with high sensitivity. Glucose monitoring, CGM, Non-invasive, Glucose meter, Microstrip line Healthcare, Medical Devices

The accelerated growth of electronic waste (e-waste) is s driven by the expanding demand for electrical and electronic equipment, fuelled by industrial revolution and digital transformation.  Current industrial practices for extracting gold from e-waste and mining ores heavily rely on highly toxic cyanide-based lixiviant or highly corrosive aqua regia. These hazardous substances pose fatal hazards to involved personnel and contribute significantly to environmental pollution. Additionally, these methods suffer from inefficiencies, such as low extraction yields and poor selectivity, which lead to the co-leaching of other toxic heavy metals, including copper, nickel, and tin. To address these challenges, the technology provider has developed and patented an innovative lixiviant that is facile, cost-effective, highly selective, safer, and efficient. This proprietary lixiviant offers exceptional gold extraction efficiency (up to 96%) and high output (≥3,000 ppm) while using less toxic alternatives to cyanide. With a low concentration of cyanide substitutes (<1,900 ppm), it operates optimally at 60°C in an alkaline environment. By generating less toxic waste and creating a healthier workplace, this technology enables companies to enhance their Corporate Social Responsibility (CSR) efforts and meet Environmental, Social, and Governance (ESG) goals by integrating social and environmental considerations into their operations. The technology has undergone extensive pilot-scale evaluations with multiple companies. Since April 2023, it has been adopted by nine industry partners, demonstrating its effectiveness and practicality. The technology provider is actively seeking industry partners to test-bed the lixiviant and is open to license the technology to interested partners. High gold extraction rate (up to 96%) with a saturation concentration of ≥3,000 ppm gold High gold selectivity (up to 97%) Low concentration of cyanide alternatives (<1,900 ppm) stabilized in alkaline environment of pH 13-14 Non-fuming and extracts optimally at 60°C Allows high purity gold to be recovered via chemical reduction upon saturation Electronic wastes, such as gold-coated printed circuit boards, connectors, CPUs, etc. Jewellery containing gold Precious metal recovery Gold-coated solid According to the United Nation (UN), each person will produce an average of 7.6 kg of e-waste in 2021, generating 57.4 million tonnes of e-waste worldwide (WEEE Forum, 2021), in which considerable amount of gold can be potentially recovered. In recent years, many countries have mandated environmental responsibilities to electronic manufacturers to establish producer recycling programs and ban e-waste disposal into landfills. With the growing amount of electronic waste around the world following digitization, there is a pressing need for effective technologies to extract and recover gold from gold-coated electronic waste safely and efficiently. This demand is driven by increasing global regulations that mandates the recycling of electronic waste, a significant source of secondary gold, to reduce the environmental impact of traditional gold mining. Safer and less hazardous lixiviant for gold extraction, thus improving workplace safety and health Lixiviant can be directly employed in existing operating line Extract ≥3,000 ppm gold with up to 96% extraction rate Cost effectiveness (≤ 2.23 USD/L) Less hazardous waste produced for easier downstream waste treatment Gold, e-waste, leaching, precious metal extraction, hydrometallurgy, recycling Chemicals, Organic, Waste Management & Recycling, Industrial Waste Management

In recent years, particularly after the pandemic, the demand for effective antibacterial and antiviral solutions has surged. These solutions are increasingly utilized in diverse settings, including residential spaces, educational institutions, public areas, and transportation systems. Thus, it is anticipated that the demand for antimicrobial and antiviral products will continue to grow. Despite their utility, traditional antimicrobial and antiviral technologies have notable limitations. Copper, for example, offers a strong immediate antimicrobial effect but suffers from reduced durability due to oxidation and is effective only within a limited range. Silver ions are more durable and applicable to a wider range of surfaces but lack the immediate efficacy of copper. Photocatalysts, while more durable than both copper and silver, are heavily dependent on the availability of a suitable light source. These challenges underscore the need for a technology that is fast-acting, durable, and versatile across various environments. To address these challenges, the technology owner has developed a hybrid photocatalytic film with enhanced antibacterial and antiviral properties. This solution combines the photocatalytic activity of copper suboxide and titanium dioxide with visible light responsiveness to effectively denature membrane proteins on virus surfaces, thereby reducing their infectivity.  Additionally, the technology incorporates a film-based manufacturing process, providing a more efficient alternative to traditional paint-based approaches. The technology owner is actively seeking R&D collaborations and licensing opportunities with industry partners interested in implementing this film in various applications. The technical features and specifications are listed as follows: Dual Antiviral Effects: Antibacterial effect by copper suboxide and photocatalytic effect by visible light of copper suboxide-supported carrier (titanium dioxide) Reduces Infectivity: Denatures membrane proteins on virus surfaces, significantly lowering their infectivity Visible Light Activation: Functions effectively under visible light (including ultraviolet rays), ensuring antiviral performance even indoors Superior Performance: Provides immediate antiviral effects and exceptional durability, outperforming traditional technologies Transparent Design: A thin film preserves the original appearance of the underlying material Shorter Construction Time: It eliminates the need for on-site formulation, curing, odor control, drying, and coating management of paints Versatile Application: Compatible with a wide range of substrates, enabling broad use across various settings This film is designed for a wide range of products and applications, particularly those requiring high hygiene requirements. Key applications include: Home Appliances: Lighting fixtures, ventilation fans, furniture, and other household equipment Public Spaces: Frequently touched surfaces such as elevator buttons, door handles, etc. Medical and Healthcare Facilities: Hospital trays, walkers, toilet handles, etc. Effective in Light and Darkness: Suppresses bacteria and viruses even in the absence of light Continuous Hygiene Maintenance: Keeps surfaces consistently hygienic, reducing the need for frequent cleaning with alcohol and other disinfectants Aesthetic Preservation: Retains the original appearance and design of the surface or space where it is applied antibacterial, antiviral, Film, photocatalyst, cuprous oxide, visible light Materials, Composites, Chemicals, Coatings & Paints, Environment, Clean Air & Water, Sanitisation, Green Building, Indoor Environment Quality

Fibre reinforced polymer (FRP) is widely used for blast protection and structural reinforcement of concrete elements in buildings and infrastructure. However, conventional FRP solutions have limitations due to labour-intensive applications such as on-site preparation and resin mixing, inconsistent quality, long curing time, and low productivity. The technology is a glass fibre reinforced polymer (GFRP) roll pre-saturated with a tacky resin system that can be easily applied to structural elements like “double-sided tape”. The resin-infused GFRP can fully cure in natural light within a few hours, strengthening the structure with only a marginal increase in wall thickness. A fire-retarding version of GFRP is also available. The GFRP solution is fast and efficient with minimal on-site tools and less dependent on workmanship skills. The technology is available for IP licensing and collaboration with industrial partners who are interested in adopting the fast-curing GFRP technology in their products and applications. The GFRP is a composite material made of glass fibres and a proprietary polymer resin that hardens only when exposed to light. The unique feature of polymer resin enables GFRP to be packed into a ready-to-use roll of sticky wrap. The technical features and specifications are listed as follows: GFRP can be easily applied like “double-sided tape” without additional equipment GFRP can fully cure in natural light within a few hours, forming a reinforcing shell of 1.2mm per layer Additional layers can be applied to meet the overall strength requirement Factory-controlled quality ensures consistent application compared to conventional methods GFRP has an ultimate tensile strength of 750MPa, a tensile modulus of 35GPa, and a pull-off strength of 5-5.8MPa This technology can be deployed in the building and construction industries. The potential applications are as follows:   Blast protection for critical infrastructure Roof reinforcement of ageing buildings Reinforcement of concrete columns and walls Strengthening of pre-cast members Repair of cracked concrete walls Repair of structures damaged by fire Repair of leaking pipes Fast curing system achieves full strength in 3 hours under suitable conditions Easy application without on-site mixing allows for a cleaner and tidier work site Up to 30% cost savings in time and manpower Factory-controlled quality ensures consistent application The technology is available for IP licensing and collaboration with industrial partners who are interested in adopting the fast-curing GFRP technology in their products and applications. Glass Fibre Reinforced Polymer, Structural Strengthening, Blast Protection, Advanced Materials Materials, Composites, Chemicals, Polymers, Sustainability, Sustainable Living

Glaucoma stands as the leading cause of irreversible blindness worldwide after cataract. It is expected to affect 111.8 million people by 2040 [1], exacerbates by the aging population globally. Despite its prevalence, 50% of people with glaucoma are undiagnosed. Current methods of imaging the iridocorneal angle for glaucoma diagnosis are severely limited by cost and utility, with traditional gonioscopy being the main method. Gonioscopy is a subjective procedure and the method causes discomfort in patients. This technology is a compact, handheld device specifically designed to enhance the accessibility of glaucoma diagnosis. With its portable and user-friendly design, it enables the evaluation and automated diagnosis of glaucoma angle, making it suitable for use by non-specialists. The device is complemented by advanced image processing and management software, which facilitates precise and automated angle evaluation, ensuring accurate and efficient diagnostics. The technology owner seeks collaboration with partners interested in development and licensing opportunities. Medical device manufacturers, technology firms, or individuals passionate about advancing innovative healthcare solutions are invited to collaborate or license the technology. Partnerships can focus on optimizing the design, scaling production, and facilitating successful market entry. [1] Tham, Y., Li, X., Wong, T. Y., Quigley, H. A., Aung, T., & Cheng, C. (2014). Global Prevalence of Glaucoma and Projections of Glaucoma Burden through 2040. Ophthalmology, 121(11), 2081–2090. https://doi.org/10.1016/j.ophtha.2014.05.013 The technology seeks to address critical challenges in glaucoma diagnostics. Device Design: Compact, lightweight handheld device, engineered for portability and ease of use. Patented Imaging Device: Eye imaging probe with a charge-coupled device camera. This allows the device to image the iridocorneal angle region inside the eyes which is normally obstructed from direct view. Automated Diagnosis: Software algorithm for automated diagnosis of glaucoma (development in progress). Primary care as a Screening Device: The technology can be integrated into primary care settings as a quick and reliable screening tool, enabling early detection of glaucoma at the community level. This makes it especially valuable for preventive care initiatives. Hospitals use by a Non-Specialist: Hospitals can deploy the device to expand their glaucoma screening capabilities. Its user-friendly design allows non-specialists, such as general practitioners or trained technicians, to conduct evaluations, increasing throughput and accessibility. Replacement for Traditional Gonioscopy During Surgery: The device has potential use in surgical settings, serving as a substitute for traditional gonioscopy. Its automated and precise imaging capabilities can streamline intraoperative assessments, enhancing efficiency and outcomes during eye surgeries. The technology addresses key limitations of traditional methods, significantly enhancing the accessibility of glaucoma diagnosis while reducing reliance on highly trained specialists. Conventional approaches, such as gonioscopy, require specialized expertise and costly equipment, making them impractical in resource-constrained settings. By enabling non-specialists and community health workers to perform accurate screenings, this portable and automated solution democratizes eye care, expanding access to underserved populations, including those in rural areas. Additionally, the technology increases productivity by scaling up screening efforts, facilitating broader early detection and diagnosis. These advancements collectively transform glaucoma diagnostics into a more inclusive and efficient process. Diagnostics, Glaucoma, Iridocorneal angle, Imaging, Gonioscopy Healthcare, Diagnostics, Medical Devices, Sustainability, Sustainable Living

In manufacturing, critical end-of-line inspections often remain manual due to the rigidity of traditional machine vision solutions. Although various inspection solutions have been developed over the years, widespread adoption has been hindered by implementation challenges, lengthy model training times, and high costs. For manufacturers dealing with rapidly evolving products, legacy purpose-built systems become harder to maintain. For them it is advantageous to invest in a manual process and team that can adapt and innovate throughout their product lifecycle. However, this approach is restrictive since manual quality checks performed have 15-20% undetected errors due to human error and oversight. The technology owner has leveraged on AI-powered workflows and advancement in process intelligence to develop a vision-based inspection technology solution for autonomous quality checks. This solution surpasses traditional solution rule-based system by being able to have the ability to learn features from surface and flag instances of deviation while allowing easy modification by non-expert personnel to accommodate any product changes. The AI capabilities enable faster training with fewer datasets to train models and detect errors effectively while enabling identification of individual products and prediction of component-specific errors. In addition, this technology solution provides multitasking and 3D inspection capabilities, allowing more than one type of concurrent inspection and catering for larger and complex geometry objects. The technology owner has previously conducted successful quality assurance pilot tests within the automobile, precision engineering, defence and FMCG industries. The owner is currently seeking collaboration partners to empower manufacturers to maintain high-quality standards while keeping pace with rapid product evolution, ultimately reducing costs and improving overall production outcomes. The vision-based inspection technology solution for autonomous quality checks harnesses the power of computer vision, artificial intelligence, and machine learning for the following specifications: 1. Proprietary Deep Learning AI Algorithms: The technology solution employs multimodal AI algorithms such as convolutional neural networks (CNNs) and other sophisticated deep learning models, in conjunction with natural language processing (NLP) and autonomous machine vision (AMV). These proprietary AI models are meticulously trained on extensive datasets and integrated seamlessly, providing increased accuracy, reliability and self-serving capabilities. 2. Advanced Synthetic Data Generation: Leveraging the power of state-of-the-art AI generative models, it enables the creation and utilisation of diverse and high-quality datasets that shortens the training process while maintaining its deployment efficiency. 3. Custom Software Solutions: The proprietary software enables segregation of capabilities (e.g. OCR, image processing, real-time data analysis) for customisation and integration to other systems, like MES and ERP, for value-added capabilities other than defect detection, ensuring seamless operation across diverse applications while delivering comprehensive and user-friendly experiences. 4. Microservice Architecture: The distributed microservices within the technology solution provides flexibility in scaling and adapting the software to multiple workflows and inspections. In addition to the above capabilities, the technology solution enables the following: Customisable and adaptable to product change and region of interest for quality assurance checks Ease of scalability catering to difference sizes of production and manufacturing line Hardware and product agnostic Fast deployment (up to 6 weeks) with shortened training downtime Enables non-expertise personnel to train and redeploy technology solution Build report dashboards and triggers for improving workflow process and overview Data driven insights for value-add operational performance The technology solution is designed to replace manual inspection processes by providing an efficient and accurate automated inspection capabilities across various applications, including: 1. Surface Inspection: Detecting cracks, dents, scratches, and other surface defects on components. 2. Presence/Absence of Features: Verifying the presence or absence and counting the number of features on a component. 3. Gauging: Measuring dimensions such as sides and angles with high precision. 4. Object Recognition / Pattern Detection: Identifying and indexing objects and its inconsistencies, design flaws, and discoloration respectively. 5. Pipe Inspection: Assessing weld quality and detecting cracks and dents inside pipes. 6. OCR/Scan Codes: Scanning and reading information etched on surfaces or encoded in barcodes and QR codes. 7. Efficiency and Quality Calculation: Evaluating quality of production batches while analysing shift and operator efficiency. 8. 3D Inspection: Leveraging on point cloud capabilities for inspecting large body such as in aerospace The global machine vision market was valued at $52B billion in 2021 and is expected to grow at a CAGR of 11.3% from 2022 to 2027. The autonomous machine vision platform is designed for defect detection by replacing manual inspection with AI-powered, hardware agnostic modules, enabling compatibility across various existing hardware setup. The technology solution offers versatile and customisable defect inspection capabilities for any dynamic inspection process. Leveraging on proprietary GenAI, minimal training data (30-50 images) is required for the solution to be deployed within six weeks, lowering implementation barriers while maintaining precision. The product agnostic capability enables seamless updates for product changes while enabling non-technical expertise to operate and manage, lowering operational cost. By leveraging on data driven insights generated, better and more informed production decisions can be made, improving production efficiency. Quality Assurance, Machine Vision, AI Powered Vision Inspection, Quality Inspection Automation, Autonomous Vision Inspection, End-of-line Inspections, Product Agnostic, Hardware Agnostic, Anomaly Detection Infocomm, Video/Image Analysis & Computer Vision, Video/Image Processing, Enterprise & Productivity, Robotics & Automation

Industries involved in dehydration processes often face significant challenges, including high energy consumption, excessive water usage, and limited capacity to recover waste heat efficiently. These inefficiencies lead to increased operational costs, wasted resources, and a substantial environmental footprint, including higher carbon emissions and water wastage.  This technology offers an innovative solution to these challenges by utilizing specially engineered membranes to condense water vapor from hot and humid air or gas streams. This process not only produces high-quality liquid water for reuse but also dehumidifies and cools the gas stream, which can be recirculated to absorb low-grade heat for further material dehydration. By integrating membrane condensers into industrial operations, companies can improve energy and water efficiency, recover valuable resources, reduce cooling water needs, and minimize emissions and environmental impact. With applications spanning HVAC, food drying, ingredient concentration, desalination, and wastewater treatment, this versatile technology enables industries to lower costs while achieving more sustainable and eco-friendly operations.  The tech owner seeks industrial partners for test-bedding and potential adoption of their proprietary technology, particularly in sectors like F&B, laundry, commercial buildings, petrochemical, pharmaceutical, energy, wastewater treatment, or any industries using water-cooling or air-drying processes.  The membrane condenser technology features a core component of hollow fiber gas separation membranes, housed within a large module. These membranes, made from polyvinylidene fluoride (PVDF), are semi-permeable and hydrophobic, offering long-lasting hydrophobicity, sustainable high flux, high mechanical strength, and the ability to operate across a wide temperature range. The system functions by integrating the membrane module with auxiliary equipment such as evaporators or dryers, heat exchangers, blowers or heat pumps, pipelines, and instrumentation control systems. This modular and versatile design allows for seamless integration into various industrial processes, particularly in sectors such as petrochemical, chemical, pharmaceutical, energy, food and beverage, and wastewater treatment. Waste Heat Recovery: Substitute or complement cooling systems in industries like petrochemical, pharmaceutical, food processing, semiconductors, power stations, and HVAC, enabling efficient heat recovery with heat exchangers. Drying and Dehydration: Enhance energy efficiency in drying processes, improve food quality by preserving flavor, nutrients, and hygiene with lower temperatures and a closed-loop system, and reduce oxidative damage. Water Recovery: Reclaim clean water for reuse in industrial processes, increasing sustainability. Sludge Drying: Prevent air pollution and odors with an enclosed system that eliminates air emission discharge. Wastewater Treatment: Enable cost-effective Zero Liquid Discharge (ZLD) or Minimum Liquid Discharge (MLD) by utilizing waste heat for high energy and water efficiency. Higher energy efficiency: Effectively recovers waste heat and reduces energy consumption, optimizing resource usage in industrial processes. Lower water consumption: Reclaims water from humid gas streams, minimizing reliance on fresh water and reducing overall water usage. Modularity for retrofitting: Its modular design allows seamless integration with existing systems, simplifying upgrades and enhancing process efficiency. Lower maintenance downtime: With fewer mechanical components, the system requires less frequent maintenance, ensuring uninterrupted operations. Reduced environmental impact: Decreases vapor and heat emissions, contributing to sustainability and lowering the carbon footprint. Lower operating costs: Achieves significant cost savings by combining energy efficiency and water reclamation to reduce operational expenses. Energy, Waste-to-Energy, Sustainability, Low Carbon Economy