TECH OFFERS

Ready-mix concrete suppliers, precasters, and cement manufacturers are increasingly seeking sustainable alternatives to traditional cement due to the material’s significant carbon footprint. Cement alone contributes to approximately 8% of global CO2 emission. This innovation focuses on developing a low-carbon, cost-effective concrete by incorporating spent graphite, GGBS (Ground Granulated Blast-furnace Slag), and manufactured sand (M-sand)—all of which are by-products or waste materials. Spent graphite (supplied from used electric vehicle (EV) batteries) Ground Granulated Blast-furnace (GGBS - supplied from iron and steel production) Manufactured Sand (supplied by crushed granite, which is a more sustainable alternative to natural river sand) This innovation delivers an optimal concrete mix that achieves the ideal balance of performance, cost efficiency, and environmental sustainability. Rigorously tested to meet Singapore’s building standards the formulation is specifically engineered for the nation’s climate, durability demands, and construction norms—ensuring reliable performance while advancing sustainable building practices. The technology owner is seeking collaboration with ready-mix concrete suppliers, precast manufacturers, and cement producers for R&D collaboration and test-bedding. The technical advantages over similar existing methods are: Cost-efficient performance upgrade – Achieves cost reduction for Grade 30 concrete while improving key material properties such as strength and durability. Low-carbon formulation – Incorporates spent graphite, GGBS, and manufactured sand to significantly lower embodied carbon while enhancing mechanical and durability characteristics. Optimised for demanding applications – Mixes can be tailored for large pours, delivering enhanced long-term strength and durability through GGBS integration. Customisable to project needs – Concrete mix designs can be adjusted to meet specific workability ranges, cost targets, carbon reduction goals, and performance requirements across various use cases. Cement industry as a cementitious replacement material to reduce the product carbon footprint Concrete industry for cement replacement Precast construction industry Contractors using site mortar mix for precast and concrete joint applications Significant CO₂ reduction – Lowers A1–A3 (cradle-to-gate) CO₂ emissions by up to 55%, supporting decarbonisation goals. High cost savings – Achieves up to 66% cost reduction compared to conventional concrete. Use of alternative materials – Incorporates three sustainable by-products: Spent graphite from used EV batteries GGBS from steel production Manufactured sand from crushed granite Versatile formulation – Materials can be used individually or together to customise mixes for different performance, cost, and sustainability targets. Sustainable materials, green concrete, construction technology, low carbon, waste recycling Waste Management & Recycling, Industrial Waste Management

A next-generation, fully synthetic keratoprosthesis (KPro) has been developed to address severe corneal blindness in patients unsuitable for conventional corneal transplantation or existing KPros. Traditional osteo-odonto-keratoprosthesis (OOKP, “tooth-in-eye”) remains effective but is surgically complex, costly, and requires removal of a healthy tooth. This innovation replaces autologous tissue with a 3D-printed Ti6Al4V titanium lattice skirt engineered for optimal biointegration, paired with a polymethylmethacrylate (PMMA) optical cylinder secured by a proprietary mechanical locking system. The device is off-the-shelf, sterilised, and designed for single-stage implantation beneath a buccal mucosa graft, significantly reducing patient burden and simplifying logistics. Preclinical rabbit studies demonstrated excellent biocompatibility and stable tissue integration. The procedure eliminates the need for dental/maxillofacial surgeons and long waiting periods, making it particularly valuable in low-resource settings. The ideal partners for this technology include medical device companies specialising in ophthalmology or surgical implants, contract manufacturers with ISO 13485 certification, and 3D printing companies experienced in producing medical-grade titanium components. Collaboration with such partners will support further development, regulatory approval, and commercial scaling of this next-generation keratoprosthesis for global deployment. 3D-Printed Ti6Al4V Titanium Skirt Porous lattice design for fibrovascular ingrowth and secure ocular fixation. PMMA Optical Cylinder High-clarity visual channel with a proprietary locking mechanism—no adhesives required. Surgical Advantages One-stage procedure, no tooth harvesting, reduced operative time, and improved reproducibility. Manufacturing & Deployment Additive manufacturing enables consistent quality and scalability. Supplied sterilised and ready for implantation. Primary Use: Treatment of severe corneal blindness due to multiple graft failures, trachoma, chemical burns, cicatricial conjunctivitis, and ocular graft-versus-host disease Replacement For: OOKP, Boston KPro Type II, and MICOF devices in patients with poor dental health or limited donor cornea availability. Cross-Disciplinary Potential: Platform technology for other 3D-printed implants in orthopaedics and craniofacial reconstruction. First fully synthetic KPro designed to replace OOKP. Eliminates need for donor or autologous tissue, avoiding tooth resorption and immune rejection risks. Single-stage surgery reduces patient morbidity, cost, and recovery time. High reproducibility and global accessibility through additive manufacturing. Off-the-shelf availability supports rapid deployment, including in resource-limited settings. This innovation offers a synthetic, cost-effective, accessible alternative optimised for extreme ocular surface disease. Medical device, End-stage corneal blindness, Keratoprosthesis, 3D Printing, Titanium alloy, OOKP Healthcare, Medical Devices

Effective tracking and management of Work-In-Progress (WIP) and inventory across a manufacturing facility are key to maintaining productivity and operational efficiency. Despite this, misplaced inventory and inefficient tracking remain common problems within the sector, leading to time wasted on locating items, losses due to unaccounted inventory, and ultimately, a reduction in productivity.  To tackle these challenges, an innovative solution has been developed that integrates advanced technologies, sophisticated hardware, and robust software features to optimize manufacturing operations. This solution provides real-time traceability of WIP and inventory throughout a factory, thereby reducing time wasted in locating items and preventing losses due to unaccounted inventory.  The solution seamlessly integrates with various systems including Manufacturing Execution Systems (MES), Preventive Maintenance (PM) systems, and Enterprise Resource Planning (ERP) systems. This integration capability allows it to trigger alerts, visualize processes, and reduce waste, thereby streamlining operations and minimizing inefficiencies.  The track and trace solution are an amalgamation of sophisticated state of the art hardware and software components – Hardware: Custom made racks and retrofits. LF/HF/UHF RFID for tagging and tracking. Barcode scanners for identification. Pick-to-Light systems for order picking. Weight sensors for inventory measurement. AI driven video analysis for surveillance and tracking. Software: Work in progress (WIP) tracking. Inventory management. Preventive maintenance (PM) material tracking. In line material ordering. Data analytics. The ideal collaboration partners for this solution would be manufacturing firms looking to optimize their operations, manufacturing execution system (MES) providers for system integration, hardware manufacturers for creating customized racks and hardware components, and technology companies focusing on RFID, AI, and data analytics. These partners would collectively contribute to the development, implementation, and continual enhancement of the track and trace solution. The track and trace solution has wide applicability across a multitude of manufacturing industries where tracking and managing of tools, parts, and Work-In-Progress (WIP) items is crucial. Key industries include semiconductor manufacturing, automotive production, aerospace manufacturing, and other large-scale industrial setups. In semiconductor manufacturing, it can be used to monitor the movement of sensitive materials like wafers and reticle masks. For the automotive and aerospace industries, it could be used to track the assembly of complex components, ensuring that all parts are accounted for and in the correct location. The system's flexibility allows it to be applied on both large and small scales, catering to a vast range of operational needs. Its potential applications aren't limited to the tracking of physical items; the data it gathers can also be used for predictive analytics, proactive replenishment of inventory, and enhanced forecasting, among others. Consequently, products that can be marketed based on this technology range from inventory management systems and predictive maintenance solutions to data analytics software. The complexity of manufacturing processes continues to rise, fuelling the need for innovative and advanced tracking and traceability solutions. The increasing emphasis on lean manufacturing, cost-cutting, and waste reduction are some of the driving forces behind this demand. Given these factors, the global market for such solutions is on an upward trajectory. As industries become more technologically reliant and digitized, the emphasis on precise, real-time tracking and traceability will only amplify. The market size, already sizable, is projected to witness substantial growth in the coming decade. This technology is particularly attractive to the market due to its multi-faceted benefits - it does not merely track and trace, but also integrates with existing systems, enhances forecasting, and significantly improves operational efficiency. It's robust set of features and the capability to address multiple pain points make it an appealing choice for businesses across the manufacturing sector. The track and trace solution provides a significant advancement over the current "State-of-the-Art". While traditional systems offer tracking and traceability, they often fall short when it comes to real-time data, seamless integration with existing systems, and the use of advanced technologies. This solution addresses these gaps by providing real-time tracking and traceability across the entire manufacturing process. This significantly reduces waste, enhances productivity, and improves operational efficiency.  In addition to superior tracking, this solution incorporates technologies like RFID and AI-based Video Analytics, providing unprecedented levels of precision and data insights. This also facilitates enhanced forecasting and inventory management capabilities, enabling businesses to better predict and meet their needs. The solution seamlessly integrates with existing Manufacturing Execution Systems (MES), Preventive Maintenance (PM) systems, and Enterprise Resource Planning (ERP) systems. This feature ensures that businesses can implement the solution without significant disruption and harness their current platforms to achieve better efficiency. Equipment, WIP, Material Control Infocomm, Video/Image Analysis & Computer Vision, Manufacturing, Assembly, Automation & Robotics, Robotics & Automation, Logistics, Inventory Management

Conventional computing environments often struggle with solving complex, computationally intensive problems, particularly in the realm of combinatorial optimisation. Quantum computing was developed to address these challenges by enabling the simultaneous exploration of multiple solution paths. However, full-scale quantum computing remains prohibitively expensive and technically challenging to implement. This technology presents a quantum-inspired alternative that leverages high-speed computing based on FPGA (Field-Programmable Gate Array) architecture. It enables parallel exploration of multiple potential solutions—without relying on the principles of quantum mechanics. By integrating an FPGA board preloaded with a custom optimisation algorithm (implemented in firmware and/or software) into a standard desktop PC, users can efficiently tackle complex optimisation problems using conventional IT infrastructure. Combinatorial optimisation involves identifying the optimal combination of variables that maximises or minimises a particular objective function under a set of constraints. This platform enables practical and scalable solutions across a wide range of applications, offering quantum-like performance without the operational burdens of quantum computing. The technology provider’s ideal collaboration partners include systems integrators to co-develop solutions and Institutes of Higher Learning (IHLs) to advance research in key application areas such as logistics and shipping, transportation operations, smart city initiatives, and industrial automation and operations research. The technology combined hardware (FPGA board) with embedded firmware and host software—that implements quantum inspired optimisation using classical algorithms. It occupies a niche between specialised hardware and middleware/software, enabling fast combinatorial optimisation without requiring full-scale quantum computers. The technology offers several key advantages: Operates on general-purpose desktop PCs—eliminating the need for specialized environments or significant capital investment. Performs all computations/ calculations locally, without requiring a network connection—removing concerns about network load, latency, or data privacy. Utilises the QUBO (Quadratic Unconstrained Binary Optimization) format, allowing reuse of existing design assets and optimization models Achieves high-speed performance comparable to quantum-like solution searches, enabled by FPGA-based hardware acceleration. The platform is ideal for solving combinatorial optimization problems, where the number of potential combinations grows exponentially and quickly becomes intractable for traditional algorithms. Real-world applications include: Traffic Congestion Management (Vehicle Routing Problem – VRP) Optimizes delivery routes and scheduling for logistics operations—reducing travel time and operational costs while meeting maintenance, labor, and routing constraints. Optimized Cargo Loading and Sequencing (Logistic): Determines the most efficient method to load goods of varying sizes, weights, and destinations—maximizing vehicle utilization and minimizing fleet requirements. Optimized Visiting Order for Time and Cost Savings (Travelling): Finds the shortest route to visit multiple locations and return to the starting point—reducing travel distance, time, and fuel consumption. Personnel Assignment Optimization (Shift Scheduling): Optimizes staff schedules in sectors such as retail and healthcare—ensuring adequate staffing while accommodating employee preferences and complying with labor regulations. Aircraft or Crew Scheduling (Airlines and Transport): Determines optimal aircraft or crew assignments while adhering to constraints such as maintenance windows, labor regulations, and flight coverage—reducing costs and improving operational reliability.                                                                                                                                                           Operating Room and Equipment Scheduling (Healthcare): Coordinates operating room use, equipment, and personnel to maximize efficiency, reduce patient wait times, and avoid scheduling conflicts. Other applications span telecom and IT, energy and smart grids, port logistics, car sharing, and more—enhancing operational efficiency and productivity. In the current landscape, while gate-model quantum computers remain focused on achieving technological breakthroughs for fundamental research and large-scale problem-solving, this high-speed combinatorial optimisation platform offers a significant advantage as a realistic and practical solution—efficiently and reliably addressing specific optimisation problems using classical computing infrastructure.   Quantum Annealing, FPGA (Field-Programmable Gate Array) Infocomm, High Performance Computing, Quantum Computing

Global plastic production now exceeds 350 million tonnes per year, yet less than 15% is recycled. At the same time, regulators and end-users across automotive, electronics, packaging and infrastructure sectors are demanding higher-quality recycled materials and longer service time for plastic-based products. Traditional evaluation methods—relying on elapsed time or destructive testing—cannot accurately capture the complex, use-dependent degradation patterns of plastic materials caused by varying usage environments and environmental stresses. To bridge this gap, the technology owner has developed a novel non-destructive diagnostic platform that combines wide-band optical spectroscopy with a proprietary AI deterioration-diagnosis engine, which is trained on accelerated-aging protocols and real-world usage histories. In just minutes, and without damaging samples or interrupting production, the system delivers high-precision assessment of plastic degradation levels, remaining-life prediction, and key material property characterization. This rapid, on-site solution provides critical insights for recycling, refurbishment and preventive maintenance—driving down costs through extended, reliable plastic use and contributes meaningfully to sustainability goals and circular economy initiatives. The technology owner is seeking industrial & business partners in plastic recycling, consumer electronics refurbishment, recycled-plastic manufacturing, and infrastructure maintenance to pilot and co-develop real-world applications. Accelerated-Testing Know-How for AI Training Proprietary protocols reproduce a wide range of plastics & deterioration states Generates high-fidelity spectral and physical-property datasets for AI model training Advanced Lifetime-Prediction Models Integrates actual plastic usage data (thermal, fatigue, creep) into theoretical formular for lifespan prediction Achieve high accuracy in predicting remaining plastic lifetime under real-life conditions AI-Based Model Selection Algorithm Extracts plastic type, degradation stress and environmental conditions directly from optical spectra data Dynamically assigns the optimal AI model to accurate lifetime prediction Hyperspectral Imaging Platform Wide-band camera captures molecular-scale structural changes Produces quantitative “health maps” that visualize the distribution of degradation This diagnostic solution can be deployed across various industries and use-cases: Recycling: Sorting and grading of post-consumer and industrial plastic waste to improve recycled-plastic quality Refurbishment: Inspecting and qualifying plastic components during repair or reuse processes Infrastructure Preventive Maintenance: Condition assessment of plastic-based assets such as enclosures, tanks, and pipings Manufacturing Quality Control: In-line or post-production quality assurance of plastic components Customer can reduce inspection time, minimize unnecessary part replacements, and extend service life. It leads to maintaining global competitiveness and creating environmental value. Rapid, Non-Destructive Diagnostics: On-site and damage-free evaluation within minutes—no sampling, no downtime Scalable to Multiple Materials: Designed for plastics today, with planned extensions to metals and wood in future Quantitative Degradation Mapping: Visual health maps pinpoint both overall and localised deterioration Actionable Lifetime Predictions: Outputs include strength and color‐change metrics as well as residual life estimates Resin, Lifetime, Material Properties, Deterioration, Long-term use of products, Recycled resin, AI model, Optical spectrum, Deterioration diagnosis, Non-destructive testing, Prediction, Refurbishment, Maintenance, Diagnosis Materials, Plastics & Elastomers, Infocomm, Artificial Intelligence, Chemicals, Polymers, Waste Management & Recycling, Industrial Waste Management, Sustainability, Circular Economy

This flexible sensor technology enables precise detection of angular displacement and bending within a lightweight, thin, and conformable form factor. Available in both one-axis and two-axis versions to suit different motion sensing needs, the sensors operate on differential capacitive measurement, delivering zero-drift performance for high stability and long-term reliability. Engineered using advanced material technologies, this sensor platform features a thin, low-profile construction with skin- and fabric-compatible adhesion, making it ideal for seamless integration into wearables, human-machine interfaces, and motion tracking systems. Its high durability supports repeated bending cycles, while customizable geometries allow tailored solutions for diverse application needs, enabling real-time motion insights. This technology is well-suited for collaboration with a wide range of partners, including medical and rehabilitation centers, sports and fitness companies, robotics and exoskeleton developers, AR/VR interface designers, infrastructure solution providers, and research institutions. The preferred mode of engagement is R&D collaboration, aimed at co-developing and adapting the sensor platform to meet specific industry or application needs. This advanced flexible sensor technology is built with highly flexible, soft silicone elastomer that allows unrestricted bending while maintaining resistance to water and extreme temperatures. Custom designs are available to meet the specific needs of advanced sensing applications. The one-axis sensor can simultaneously measure bending and stretch by measuring capacitance changes due to sensor deformation. Built with layered insulating and capacitive materials, it ensures consistent and repeatable outputs even under dynamic conditions. The two-axis sensor captures bending in two directions using a similar capacitance-based approach. It enables high-resolution angle tracking across flexible axes, supporting use cases such as joint monitoring, gesture recognition, and movement analysis. The device is designed to measure angular displacement with a high degree of precision, offering a repeatability of 0.18°. It operates with very low power consumption, requiring approximately 1 milliwatt. In terms of durability, the device is capable of withstanding over 10,000 bending cycles, ensuring long-term performance. It features a slim profile with a thickness of just 1.3 millimeters and supports a bending range from 0° to 180°, making it suitable for applications requiring flexible motion detection. The wearable sensor market is expected to exceed USD 3 billion by 2028, driven by rising demand for advanced motion sensing across industries. With its thin profile, flexibility, durability, and real-time responsiveness, this technology offers scalable, customizable solutions that outperform rigid sensors. Beyond wearables, its adaptability supports a wide range of modern, connected applications. Key use cases across multiple sectors are outlined below. Healthcare/Rehabilitation The sensors enable real-time joint angle and posture monitoring, supporting applications such as smart rehabilitation braces, posture-correcting wearables, and gait-tracking insoles. They also power fall-detection patches for elderly care, providing accurate, continuous motion data for rehabilitation and patient safety. Sports and Fitness The sensors enable precise motion tracking to optimize performance and reduce injury risk. Their flexibility and low-profile design make them ideal for seamless integration into wearable athletic gear and smart textiles. AR/VR The sensors enable gesture recognition and motion-based control for intuitive human–machine interaction, including finger movement detection in VR gloves and gesture-responsive control in AR/VR interfaces. Robotics The sensors monitor joint articulation in exoskeletons and soft robotics, enabling precise motion tracking and embedded control. They also support movement monitoring and anomaly detection in industrial robots. Infrastructure The sensors detect structural deformation in bridges, buildings, tunnels, and other infrastructure. This technology delivers an ideal balance of comfort, precision, and durability, outperforming conventional systems for wearable and real-time sensing applications. Unlike traditional flex sensors, this sensor technology produces repeatable and precise angular output regardless of path, bending radius, or strain. Due to its flexibility, thinness, and compact size, the sensor is suitable for measuring both small and large deformations across various objects and surfaces. Its compact form enables unobtrusive integration without restricting the natural movement or deformation of objects. Capable of instantly capturing complex motion and deformation for real-time display and rapid data access. Even when implemented on a moving object, the sensors can accurately measure without speed dependency. Constructed with silicone elastomer for adaptability in a wide range of environmental conditions. Capable of monitoring targets in environments where optical systems like cameras are ineffective. Flexible Sensor Technology, Real-Time Motion Tracking, Angular Displacement, Bending, Wearable, Health Monitoring, Rehabilitation, Sports Performance, Robotics, AR/VR, Infrastructure Electronics, Sensors & Instrumentation, Infocomm, Augmented Reality, Virtual Reality & Computer-Simulated Environments, Healthcare, Medical Devices, Robotics & Automation, Wearable Technology

This technology offers an AI-powered healthcare platform that integrates pet personal health records (PHR) with microbial next-generation sequencing (NGS) data to assess disease risk and deliver tailored nutritional solutions. Unlike conventional pet health solutions that rely on visual symptoms or generic diets, this system utilizes multimodal deep learning to analyse microbial, clinical, and behavioural data, enabling early detection of chronic conditions. The system then prescribes custom-formulated, human-grade fresh pet meals based on diagnostic results. The entire process—from sampling and diagnostics to dietary formulation and subscription delivery—is fully automated. With over 1 million cases processed and multiple patents and publications, this solution aims to improve pet health, reduce veterinary costs, and enable personalized disease prevention at scale. The technology is first targeted at dogs and the company is collecting additional data to expand to other domestic animals. The company would like to work with veterinary professionals/research institutes to discover biomarkers in other pets to improve in prediction of disease risks. The technology is based on an AI-powered diagnostic engine that integrates gut microbiome next-generation sequencing (NGS) data with pet personal health records (PHR), including age, weight, clinical data, breed, and behavioural observations. It utilises a proprietary multimodal deep learning algorithm trained on over 5,000 microbial datasets, enabling the prediction of disease risks such as digestive disorders, kidney dysfunction, obesity, and metabolic imbalance. The core service includes: Home sampling kit for microbiome extraction and logistics. AI diagnosis platform for analysing microbiome and PHR via cloud-based processing. Dynamic diet generator, which translates diagnostic results into personalized meal plans. Real-time subscription system that automatically updates food formulation based on health status changes. The system is fully automated—from data collection and analysis to food production and delivery—offering seamless user experience without requiring veterinary intervention at each stage. Differentiation lies in its standardized diagnostic algorithm, self-learning AI model, and closed-loop nutritional intervention, which are not offered by conventional pet food subscription services or diagnostic kits. The solution is modular and can integrate with external systems such as veterinary electronic medical records (EMRs), wearable pet devices, and digital health platforms. It is optimised for deployment across web and mobile environments and is compatible with B2C and B2B (e.g., veterinary clinic) models. Its scalable architecture enables regional customisation of dietary recommendations based on ingredient availability and local veterinary standards. This technology can be deployed in the pet healthcare, pet food, and veterinary services industries. It enables the commercialisation of: AI-powered health diagnostics tools for companion animals Customised pet nutrition products based on diagnostics Veterinary clinic-integrated digital diagnostic interfaces Longitudinal PHR-based pet disease prediction services The global pet care market is projected to exceed USD 350 billion by 2030, with health and nutrition as key drivers. Demand for preventive, data-driven solutions is growing, particularly in aging pet populations. This technology uniquely captures the convergence of pet biotech, personalised health, and AI diagnostics. This solution is the first to offer an end-to-end system that diagnoses pet health through microbial data and PHR and directly translates the results into customised meal prescriptions and delivery. Unlike existing products that generalise feeding or only track basic health metrics, this system integrates clinical, behavioural, and microbial information using AI for early-stage detection of obesity, digestive issues, kidney risks, and more. It is backed by multiple patents, peer-reviewed studies, and international collaborations, setting a new standard for personalised, preventive pet care. Petcare, Healthcare, pet health, disease prediction, AI pet health, pet microbiome, pet nutrition, veterinary, pet food formulation, big data, gut microbiome next-generation sequencing data Infocomm, Big Data, Data Analytics, Data Mining & Data Visualisation, Artificial Intelligence, Healthcare, Diagnostics, Telehealth, Medical Software & Imaging, Foods, Ingredients

As infrastructure all around the world continues to age, asset owners face increasing challenges related to corrosion, rust, and material degradation. Simultaneously, rising environmental regulations and the global shift toward sustainable practices have created strong demand for long-lasting, eco-friendly asset protection solutions. The market of corrosion protection coating is expected to grow significantly, particularly in the Asia-Pacific region, driven by the demand for energy-efficient, low-maintenance alternatives. In response to these challenges, the technology owner has developed a revolutionary nano-coating solution based on a proprietary nanoparticle formulation. This advanced coating directly addresses three critical industrial concerns: corrosion, surface deterioration and thermal inefficiency across a wide range of operating environments. Unlike conventional coatings that often degrade quickly under harsh conditions, such as UV radiation, high humidity, and marine environments, this single-layer nano-coating delivers exceptional corrosion resistance and enhanced reliability. By effectively reducing surface temperatures, the coating helps protect the underlying substrate while decreasing energy demands for indoor cooling, resulting in tangible operational savings. Its VOC-compliant formulation also ensures environmental sustainability and enhances workplace safety. It extends the lifespan of critical infrastructure components with fewer maintenance cycles while also reflecting infrared and UV radiation to support energy efficiency goals. The technology owner is actively seeking test-bedding opportunities with industrial partners in sectors such as oil & gas, marine & shipyard, infrastructure, and heavy manufacturing, particularly valuable for high-value or difficult-to-access assets, where reducing maintenance frequency and minimizing operational downtime are essential. The core innovation lies in the use of nano-particles capable of penetrating micro-craters and crevices in metallic and other substrates. These nanoparticles displace moisture and air, forming a strong, impermeable barrier that resists corrosion and environmental damage. Key features include: Long-lasting corrosion resistance Water-repellent and anti-condensation properties Water-based and VOC-compliant (low-VOC solvent formulation) UV-blocking and weather resistant Applicable to substrates with temperature between -5°C and 50°C Key Performance Advantages: Single-Layer Coating System Combines the functions of primer and topcoat in a single layer Eliminates the need for multiple intermediate coats Reduces application time, labor costs, and asset downtime Minimal Surface Preparation Requires only basic SSPC SP2/SP3 manual surface preparation (e.g., wire brushing) Eliminates the need for sandblasting Ideal for hazardous zones where hot work is restricted Proven Excellent Durability Maintains coating integrity and performance up to 150°C Successfully passed a 6,000-hour saltwater spray test Demonstrates long-term corrosion resistance in harsh coastal and offshore environments Superior Structural Reinforcement Increases the compressive strength of coated concrete by up to 4x Enhances the flexural strength of coated concrete by up to 20x A 5mm coating on 1mm SS400 steel achieves a tensile strength of 80MPa This versatile coating technology is well-suited for a wide range of sectors requiring robust protection and thermal regulation: Oil & Gas: Pipelines, storage tanks, offshore platforms, etc. Manufacturing: industrial machinery, processing lines, etc. Building & Infrastructure: Roofs, façades, supporting structures, etc. Marine: Ships, vessels, dock infrastructure, coastal installations, etc. It can also be positioned as a green building material or integrated into sustainable facility upgrade project. This nano-coating solution offers a powerful combination of performance, ease of use, and sustainability, making it an ideal choice for demanding industrial applications. Key unique values include: Application Versatility: Can be applied directly & immediately on wet condense surfaces after wiping by a cloth Excellent Compatibility: Adheres well to a wide range of metallic and non-metallic substrates Non-Welding Repairs: Enables patching of leaks or holes without hot work Reduced Downtime: Minimizes operational disruption, especially valuable for offshore and coastal assets In addition, this water-based, VOC-compliant formulation meets environmental and worker safety standards. Proven effective in harsh conditions, it enhances operational reliability and supports broader ESG goals. Nano-technology, Corrosion Protection, Thermal Insulation, Asset Maintenance, Reinforcement Coating Materials, Nano Materials, Chemicals, Coatings & Paints, Sustainability, Sustainable Living

As climate change accelerates, rising temperatures and extreme heat events are becoming more frequent and severe. Heat stress has become a critical health and safety concern worldwide—particularly for outdoor workers in sectors like construction and landscaping, as well as for athletes and individuals in high-exertion environments. In recent years, cases of heat stroke, dehydration, and other heat-related illnesses have been on the rise, highlighting the need for a more proactive and automated approach to heat monitoring. Traditional manual monitoring often relies on general weather forecasts, which are insufficient—especially in high-heat environments. Without early warning systems, heat stress can go undetected and lead to serious health risks. This automated WGBT (Wet-Bulb Globe Temperature) system provides hourly readings and triggers real-time alerts when conditions exceed safe thresholds. This helps prevent heat strokes before they become life-threatening. The system enables organizations and sports clubs to respond promptly, encouraging individuals to rest and hydrate as conditions change. Data is accessible via mobile devices or web dashboards, with support for multiple deployment sites. Each location is color-coded by temperature levels for easy recognition and rapid decision-making. This all-in-one Wet-Bulb Globe Temperature (WBGT) monitoring system is pre-configured and deployment-ready, delivering real-time heat stress analysis across diverse environments. It features a factory-calibrated WBGT sensor, solar panels, an edge gateway with 4G/Wi-Fi connectivity, and a built-in battery—ensuring uninterrupted operation, even in off-grid locations. Equipped with automated alerts and notifications, the system instantly notifies users when heat conditions exceed safe thresholds, enabling timely and proactive interventions. A centralized dashboard supports multiple deployment sites and includes color-coded indicators for quick recognition and decision-making. All data is securely hosted on AWS or Google Cloud, allowing organizations to track trends and enhance safety protocols. Ideal Collaborators This solution is well-suited for companies and organizations operating in heat-intensive or outdoor, labor-intensive environments that require hourly or daily heat stress alerts to safeguard worker health and maintain operational safety. Smart Cities & IoT Integrators – Integrating WBGT data into broader environmental sensing networks Construction & Landscaping – Protecting outdoor workers from extreme heat Sports & Athletics – Helping athletes and coaches manage workloads in real time Industrial & Manufacturing – Enhancing safety in high-heat environments (e.g., foundries, food processing) Emergency & Military Operations – Supporting personnel safety in extreme or mission-critical conditions Besides the above, the solution can be extended beyond WBGT monitoring to support additional environmental measurements, such as: Weather conditions, humidity, noise levels, and gas concentrations (measured in parts per million, PPM) Water turbidity and water levels It can also be equipped with batteries and configured for automation based on trigger events. For example: If temperatures exceed safe thresholds, an alarm can be activated to prompt workers to stop operations. In areas prone to forest fires, an automated sprinkler system can be connected to a nearby water source and programmed to activate or deactivate at defined intervals. Traditionally, WBGT monitoring has been conducted manually, requiring personnel to take measurements for 15 minutes every hour and then manually notify teams at various locations to rest and hydrate. This process is not only labor-intensive but also inefficient, with potential delays in response times. Now, with an automated, unified platform, supervisors and company leaders can remotely monitor all deployments and weather conditions in real-time. This ensures instant alerts when heat thresholds are exceeded, reducing the risk of heat-related illnesses. Additionally, all collected data is securely stored, allowing organizations to track trends, analyse historical records in the event of heat stroke incidents, and refine workplace safety policies based on location-specific risks. A key Unique Value Proposition (UVP) of this system is its ability to integrate with various devices, as long as their communication protocols are compatible, giving clients greater visibility and customization over their monitoring needs. For example, organizations can: Add alarms that sound when temperatures become dangerously high Integrate CCTVs to monitor worker conditions in high-risk areas Expand data collection to include additional environmental factors Integrate heat stroke sensors to assess heat risk in selected regions or areas This scalable and adaptable solution not only enhances workplace safety but also helps organizations improve efficiency, ensure compliance, and manage risks—while minimizing manual labor costs. Health & Safety Compliance, Wet-Bulb Globe Temperature, Heat Stress Monitoring, Risk & Cost Management Electronics, Sensors & Instrumentation, Personal Care, Wellness & Spa, Infocomm, Internet of Things