TECH OFFERS

The technology is an advanced Clinical Decision Support System (CDSS) designed to streamline and enhance the process of medication review, with a strong focus on safe deprescribing practices. Built on evidence-based guidelines and best clinical practices, the application provides healthcare professionals (doctors, pharmacists, and nurses) with reliable recommendations to optimize medication regimens, particularly for older adults who are at higher risk of polypharmacy and adverse drug events. This team-care deprescribing application can be seamlessly launched across various points of care: hospitals, clinics, nursing homes, or community health settings. This enables clinicians to work collaboratively in reducing medication burden while safeguarding patient safety. By integrating into existing workflows, it not only improves efficiency and decision-making but also supports higher standards of clinical care, leading to better health outcomes and quality of life for patients. App Features Highlights drugs that should be discontinued, supported by clear clinical explanations. Provides guideline-based recommendations on drugs requiring special monitoring. Identifies and alerts clinicians to potential harmful interactions across the patient’s medication list. Offers context-specific guidance, such as patient comorbidities, age-related risks, or monitoring needs. Optional Patient Management System module for managing individual patient profiles, history, and follow-up care. Optional Gen-AI Chatbot module for conversational assistant to support quick queries, medication guidance, and clinician education. System Capabilities: Cross-Platform Availability: Accessible as a secure web application and mobile apps on both Android and iOS, ensuring usability across care settings. Two-Factor Authentication (2FA): Provides robust data protection and compliance with healthcare security standards. API Integration: Enables seamless interoperability with existing EHRs, pharmacy systems, and clinical workflows. Advantages: Proven Accuracy and Efficiency: In pilot testing, the application doubled the accuracy to conventional manual lookup, while also significantly reducing decision-making time. Sustainable Healthcare Impact: By digitizing guidelines and optimizing workflows, the app reduces reliance on printed materials and manual processes, helping to lower carbon footprints in healthcare environments. Improved Clinical Care: Supports evidence-based, safer, and faster medication review, empowering healthcare teams to deliver higher-quality patient outcomes.   This technology has wide-ranging applications across multiple healthcare settings, particularly in addressing the challenges of polypharmacy and medication optimization for the growing ageing population. Potential use cases include: Healthcare Institutions, Hospitals & Clinics Seamlessly integrate the application with existing Electronic Health Records (EHR) or patient management systems via secure API connectivity. For organizations without a current platform, a fully compatible patient management add-on is available, enabling streamlined workflows and coordinated team-based care. Medical Information & Health IT Solution Provider Incorporate the deprescribing application into your existing digital health or clinical information platforms to strengthen your product portfolio and deliver added value to healthcare professionals. Extended Clinical Applications Beyond deprescribing, the application can be adapted to support other evidence-based clinical guidelines (e.g., chronic disease management, geriatric care pathways) and extended to long-term care facilities, community healthcare providers, and telemedicine platforms. This pioneering deprescribing application is one of the most comprehensive digital solutions designed to support healthcare professionals in reducing inappropriate medications for older patients. Available as a web app and on both Android and iOS platforms, it offers greater flexibility and accessibility compared to many existing tools. Built on the latest evidence-based clinical guidelines, the solution delivers accurate, guideline-driven recommendations that enable doctors, pharmacists, and nurses to make better-informed decisions. By streamlining medication reviews and supporting safe deprescribing, it empowers healthcare providers to reduce medication burden and enhance patient safety and outcomes. Health, Medical, Clinical, Informatics Healthcare, Telehealth, Medical Software & Imaging

There is a growing global demand for complex-shaped transparent ceramics such as spinel in specialised lenses, optoelectronics, electronic, semiconductor and biomedical applications. However, large-scale commercial production of ceramics parts of high transparency and complex geometries has not been fully established. At present, most transparent ceramics are commercially fabricated in simple geometries using conventional methods such as injection molding or hot-pressing. 3D-printing techniques such as direct ink-writing, digital light processing and stereolithography has enabled the fabrication of ceramic parts of higher complexities, but the optical transparency of such ceramic parts remains limited. This technology is among the first to provide high-transparency 3D-printed spinel ceramics with highly complex design. It integrates proprietary spinel ceramic paste, 3D printing process, and specialized heat treatment process. The resulting 3D-printed ceramics possesses a high relative density, exceptional mechanical strength, good optical transparency and wide design flexibility. Together, these advantages position the material as a strong alternative to current options such as 3D-printed silica glass, yttrium aluminum garnet (YAG), and sapphire. Moreover, compared to conventional manufacturing methods, 3D-printed spinel ceramics significantly reduce material waste while shortening the prototyping to production timeline. This appeals to both industry application and sustainability. This technology supports a wide range of design complexities, resolutions, and application needs. The technology owner is currently looking for more industry collaborators that are interested in exploring and pushing the boundaries for 3D-printed transparent ceramics. They are able to offer flexible co-development modes for specific use cases for partners with or without existing in-house 3D printing capabilities. This technology consists of the entire production process for producing 3D-printed transparent spinel ceramics. This includes:  Expertise and know-how in 3D print paste formulation  3D print process parameters  Post printing heat treatment process  Through our production process and expertise, the 3D-printed spinel products would have the following properties:  >80% Transmittance at λ = 500-700 nm   Hardness = 11.0 to 13.5 GPa  Printing resolution = ~200 µm  Product size = 4cm^2 to 35cm^2 High complexity design Some potential applications can be (but not limited to):  Seminoductor industry e.g. equipments requiring transparency in harsh plasma or high-temperature environments Defense industry e.g. shrapnel-resistant transparent surfaces  Medical industry e.g. surgical jigs and guides  Dental industry e.g. transparent or translucent dental brackets  Optical industry e.g. specialised lenses Other industries: applications requiring transparent & strong parts with intricate designs, applications requiring photocatalyst support, fashion This technology is one of the first to enable the production of high-transparency 3D-printed spinel ceramics: High relative density, mechanical strength and optical transparency compared to other readily available 3D print ceramic technology. Compared to conventional manufacturing methods, 3D-printed transparent ceramics have the potential for rapid-prototyping, intricate and wide design flexibility, while improving in production sustainability and minimizing wastage. Materials, manufacturing, Healthcare, Space, Nuclear Science Materials, Ceramics & Glass, Manufacturing, Additive Manufacturing

Marine and river pollution, particularly during coastal disasters, threatens the biodiversity of affected areas due to the inflow of hazardous contaminants. In addition, with the increasing use of plastics, microplastic pollution in water bodies is also on the rise. To address such marine pollution, cleanup operations must be carried out promptly to reduce the negative impact on the environment. However, these operations are typically costly, require extensive coordination, and are cumbersome. A Korean startup has designed and developed an autonomous floating robot capable of accurately detecting and collecting marine debris in real time during coastal disasters. This compact robot is built to remain durable and reliable even under harsh weather conditions. Equipped with proprietary AI algorithms as well as LiDAR and vision sensors, it enables intelligent perception and decision-making, adapting to changing marine environments such as obstacles, waves, and currents. With its on-device AI functionality, it can operate independently without relying on external communication networks. This provides a practical solution for faster and more cost-effective maritime emergency response, while delivering measurable ESG improvements. The technology owner is seeking marine environment service providers and government agencies that are open to conduct pilot trials, as well as partners to jointly develop complementary technologies to further enhance the robot’s capabilities. This compact modular autonomous surface drone, powered by on-device AI capabilities, can collect floating debris and oil spills while providing continuous service even in challenging coastal and marine environments—particularly during emergencies or in areas with limited connectivity—through smart navigation and stable operation. The robot includes the following features and specifications: Pollutant collection system capable of efficiently recovering a wide range of complex marine pollutants, including high-viscosity low-sulfur fuel oil (LSFO), low-viscosity heavy fuel oil (HFO), diesel, and surface microplastics ranging from 0.001 mm to 5 mm Neural Processing Unit (NPU)-AI autonomous collection and navigation together with proprietary AI algorithms, enabling real-time pollutant recognition without reliance on cloud infrastructure Smart navigation and obstacle avoidance for dynamic marine environments Camera-sensor fusion technology for low-latency video streaming and 5G transmission IP-rated shock-resistant polyethylene chassis equipped with dual propulsion motors, ensuring stable performance even in rough seas and harsh weather conditions Swarm control and management platform enabling large-scale deployment and coordinated mission execution This autonomous marine robot is designed and developed for efficient recovery of floating pollutants across a wide range of aquatic environments, including rivers, streams, reservoirs, ports, and open oceans. Due to this, there are a range of potential applications in which this solution can be deployed, such as: Remote environmental monitoring and cleanup for preservation of marine biodiversity Emergency response, such as oil spill containment, for immediate deployment especially in hard-to-reach marine zones with limited infrastructure or unstable communications Autonomous routine coastal clean-up campaigns, under ESG and smart city initiatives, for autonomous ocean conservancy and more resilient marine infrastructure The robot solution offers the capability to collect and recover a variety of marine pollutants, such as oil spills and microplastics, while being robust and compact. The on-device AI capabilities ensure the solution is suitable for deployments in limited network coverage while providing remote, real-time autonomous operation for reliable detection and navigation in changing marine environment, such as waves, current and low visibility. The solution is modular and have multi-unit control feature to deliver cost-effectiveness and scalability for large-scale cleanup missions. With such benefits, it results in a nimble and less labour-intensive response to any marine operation while increasing productivity for a quicker and effective operational success. Marine Autonomous Robot, Marine Pollution Cleanup, Water Surface Cleaning, Oil Spill Detection, On-Device AI, Edge AI, Coastal Disaster Infocomm, Artificial Intelligence, Environment, Clean Air & Water, Mechanical Systems

With the growing demand for telecommunication networks (5G networks), global navigation satellite system, GNSS, (autonomous vehicles) and geoscience (disaster monitoring), precise timekeeping is a critical piece that ensures these functions work seamlessly and efficiently. Without this vital function, these capabilities will become inaccurate, unreliable and vulnerable to attacks and tampering. Currently, this timekeeping function uses conventional caesium atomic clocks which are reaching its inherent limits in terms of synchronisation and to accommodate for a more digitalised world.  The technology owner has leveraged on their technical expertise to develop a commercialised strontium optical lattice clock as the next generation of precise timekeeping to address the existing inherent limitations. With the frequency output light stablished to the resonant frequency of strontium atoms, it provides about 1000 times higher precision compared to existing commercialised caesium atomic clocks while having a relatively compact formfactor. The system also enables a lower systematic uncertainty level, hence a higher accuracy and precise time and frequency measurement. The system is designed and engineered for being user friendly with an automatic operation and east of start-up and maintenance. The technology solution in a form of a commercialised strontium optical lattice clock for ultra-precise timing have a few notable functionalities, including: Robust system which enables long-term operation Compact (W1140mm × H1093mm × D650mm) and transportable system for various locations Higher precision compared to state-of-the-art caesium fountain clocks/ hydrogen masers and commercialised caesium atomic clock by 2 and 3orders of magnitude respectively Laboratory grade accuracy, due to a sharper resonance, and systematic uncertainty level of < 1×10-17 Built-in optical reference cavity with stability of < 2×10-15 Less user technical expertise required for automatic operation User friendliness with easy start-up and maintenance of system Given the technology solutions have the capabilities beyond the inherent timekeeping limit of existing conventional caesium atomic clocks for potential applications such as: Telecommunications: Next-generation synchronisation of global data networks with increased security and resilience to tampering. Geoscience/Metrology Monitoring: Relativistic geodesy, detection of gravitational potential differences (at cm-scale altitude changes) Navigation Systems: GNSS, optical clocks for increased positioning accuracy and resilience Finance: Supporting secure and reliable time-stamping for recordkeeping for high-frequency, high-volume trading Research Development: Testing and advancement of variations of fundamental physics constants Space Operation and Deployment: Space and satellite mission requiring precise timekeeping capabilities The technology owner has leveraged on their in-depth technical expertise to develop a commercialised strontium optical lattice clock as the next generation of precise timekeeping to address the existing inherent limitations from existing caesium atomic clocks. This leap not only redefines the fundamental standard of time but also opens new applied domains. The solution bridges laboratory-grade accuracy with emerging portable implementations, allowing both fundamental research and industrial applications on-site. Unlike existing atomic clocks, the system operates at much higher frequencies, leading to sharper resonance, resulting in a higher precision and accuracy. Atomic Clock, Optical Frequency Standard, Geopotential Measurement, Optical Lattice Clock, Caesium Atomic Clock, Strontium Optical Lattice Clock Electronics, Lasers, Optics & Photonics, Infocomm, Geoinformatics & Location-based Services

Concrete deterioration caused by cracking, carbonation, and rebar corrosion represents a multi-billion-dollar global challenge. The global concrete repair market is valued at approximately USD 20 billion. Current methods are often labour-intensive, disruptive, or temporary, creating a strong demand for durable, cost-effective, and sustainable repair solutions. This innovation addresses these needs with a two-part treatment system that restores durability and prevents further structural damage: Water-based Concrete Sealer: Applied directly to concrete and steel surfaces, it prevents the ingress of water and corrosive agents (e.g., chlorides). This reduces the rate of concrete carbonation and rebar corrosion, while also functioning as an anti-corrosion coating for steel reinforcement. Micro-cementitious Crack Injection Sealant: A flowable, non-shrink material designed for sealing narrow concrete cracks (≥1.0 mm). When injected into damaged concrete, it consolidates the structure, re-alkalises adjacent carbonated concrete, and protects embedded steel rebars. By reinstating the passivating layer around embedded bars, it slows corrosion and reduces the likelihood of further cracking. Unlike traditional polyurethane injections, it provides durable, long-lasting repair without shrinkage. Both the water-based sealer and micro-cementitious sealant can be used independently or in combination, depending on the protection and repair requirements. This technology is available for R&D collaboration, IP licensing, and test-bedding with industrial partners in the construction and infrastructure sectors. The key technical advantages of this solution include: Two-part solution for crack sealing and concrete carbonation treatment Durable & long-lasting repair: Flowable, non-shrink cementitious sealant for injection grouting High penetration: Effectively seals cracks ≥1 mm  in concrete and mortar Re-alkalisation: Restores the passivating layer around rebars to prevent corrosion Protective barrier: Sealer reduces ingress of water and corrosive chemicals Strong adhesion: Bonds directly to cement, penetrates pores, and will not crack, peel, or delaminate Environmentally friendly: Low odour, VOC-free, water-based formulation This solution can be applied across the construction, building restoration, and conservation industries. Key applications include: Repair of cracking and spalling concrete caused by carbonation Restores the protective alkaline layer around steel reinforcement Mitigates further corrosion and expansion of rebars, preventing progressive cracking of concrete Preventive treatment for newly placed concrete in aggressive environments Provides protection for structures in high-risk areas such as coastal regions, where exposure to moisture, chlorides, and carbonation accelerates deterioration Conventional repair methods for reinforced concrete structures, such as removing damaged concrete or applying polyurethane injections, are often costly, disruptive, and temporary. In contrast, this solution: Preserves existing concrete by restoring alkalinity in-place without removal Reduces rebar corrosion risk, extending the service life of structures Delivers a long-lasting, non-shrink repair that aligns with sustainability goals Anti-carbonation, Penetrating sealer, Concrete water repellent, Concrete hardener, Non-shrink grout, Crack sealant Materials, Composites, Chemicals, Coatings & Paints, Polymers

Heat management has become a critical bottleneck in advanced industries such as electric vehicles, aerospace, data centers, and next-generation electronics. Traditional design processes rely heavily on expert intuition and repetitive simulation, requiring weeks to explore only a narrow design space. This results in high costs, limited performance improvements, and significant delays in bringing products to market.  The presented technology introduces a thermal-fluid topology optimization engine that autonomously generates optimal structures for cooling and fluid management. Unlike conventional parameter studies, this approach explores the entire design space and discovers novel, high-performance solutions beyond human intuition. By integrating multi-fidelity modeling and high-accuracy simulations with lightweight surrogate models, the technology reduces design time from 20-30 days to just 3-5 days, while improving cooling efficiency by more than 30%.  By combining breakthrough computational science with industrial applicability, this technology provides a next-generation design foundation for sectors where thermal performance is a decisive factor for competitiveness. Potential adoptors of this technology includes manufacturers facing urgent thermal challenges: automotive OEMs, aerospace suppliers, electronics and semiconductor companies, and data center operators. These industries demand shorter design cycles, reduced CO₂ emissions, and higher product reliability.  The technology owner is seeking to collaborate with design and manufacturing companies from different industries looking to optimise heat transfer in thermal-fluid systems. The technology owner is also open to partnerships with Computer-Aided Engineering software providers who are interested to intergrate this technology into a platform.  The technology consists of a cloud-based topology optimization engine specialized for thermal-fluid systems. At its core is a proprietary multifidelity algorithm that dynamically integrates high-precision computational fluid dynamics (CFD) models with low-cost physics-based surrogate models. This hybrid approach achieves a dramatic reduction in computation time while maintaining design accuracy. By enabling radical improvements in performance, manufacturability, and energy efficiency, this technology provides a foundation for disruptive products across multiple global markets. Key features include:  Rapid design generation and optimisation: Reduces thermal-fluid design cycles from 20–30 days to 3–5 days.  High-performance solutions: Demonstrated >30% improvement in cooling efficiency compared to conventional designs.  Design for manufacturing: System is designed to incorporate manufacturing constraints directly into the optimization process. Munufacturing methods include additive manufacturing, injection molding, and machining processes.  CAD/CAE integration: Seamless export of optimized geometries into standard CAD models, ensuring manufacturability.  Scalable computing: Built for cloud deployment, supporting parallel processing and multi-user environments.  This technology has broad applicability across industries where thermal management and fluid design are critical performance bottlenecks. Ideal collaboration partners span multiple points in the industrial value chain. Automotive & Mobility: Electric vehicles require highly efficient battery cooling and powertrain thermal management. By reducing thermal resistance and enabling compact, lightweight cooling systems, this technology directly enhances driving range, charging speed, and safety. Aerospace & Aviation: Lightweight structures and high heat resistance are essential for aircraft and spacecraft. Optimized cooling channels and thermal-fluid systems improve reliability while reducing weight and fuel consumption.  Electronics & Semiconductors: As devices become smaller and more powerful, overheating is a major risk. This technology can be applied to smartphones, laptops and high-density servers, enabling higher performance with lower energy loss. Data Centers: With data demand exploding, cooling efficiency is the key cost driver. Optimized liquid-cooling solutions derived from this platform can reduce energy consumption and CO2 emissions while improving reliability.  Industrial Equipment & Energy Systems: From robotics and heat exchangers to renewable energy storage, the technology enables more durable, efficient, and sustainable designs.  Software vendors and CAE providers: are potential partners for integration into broader engineering toolchains.  Others: Products that can be marketed based on this technology include high-efficiency heat sinks, advanced cooling plates for EV batteries, liquid-cooled data center modules, aerospace thermal management components, and next-generation industrial heat exchangers.  The market potential for advanced thermal-fluid design technologies is vast and rapidly expanding. The global CFD (Computational Fluid Dynamics) software market is projected to grow from USD 2.6 billion in 2023 to USD 5.3 billion by 2033, with a CAGR of 7.2%. Within this, thermal management for electric vehicle batteries alone is estimated at USD 3.7 billion in 2024, expected to grow at 12.6% CAGR through 2034. Similarly, aerospace, electronics, and data center industries are facing exponential demand for high-performance cooling solutions, driven by electrification, miniaturization, and rising energy costs.  Existing technologies struggle with speed, scalability, and design freedom. By overcoming these barriers, this technology positions itself as a game-changing design platform. Its value lies not only in potential cost reduction and improved energy efficiency but also in enabling new categories of products from ultra-fast EV charging systems to liquid-cooled high-density data centers.  It reduces reliance on expert intuition and empowers manufacturers to achieve breakthrough performance, shorter time-to-market, and lower carbon footprints.  Design Freedom: The ability to explore entire design spaces and generate non-intuitive, high-performance solutions.  Improved Heat Exchange Efficiency: Can potentially achieve >30% improvement in cooling performance compared to conventional design methods.  Speed: By leveraging multi-fidelity topology optimization, it combines high-accuracy models with lightweight surrogate simulations. This enables unparalleled turnaround time for industrial-scale thermal-fluid optimization by speeding up design cycles by >90%. Manufacturability: Optimised designs can be directly fabricated using standard industrial and manufacturing processes with the option of direct export to CAD/CAE. Energy, Thermal Power System, Infocomm, Computer Simulation & Modeling

This technology introduces a closed-loop wearable human–machine interface (HMI) that enables natural robotic control with real-time sensory feedback. At its core are ultrasensitive, flexible on-skin electromyography (EMG) sensing arrays that capture comprehensive muscle activity with high fidelity and stability. Unlike conventional EMG systems that rely on a few electrodes and often miss weak signals or suffer from noise, this platform delivers exceptional responsiveness for intuitive and precise robotic hand movement. The robotic hand is further equipped with high-density tactile sensors, providing force and texture feedback to the user. This bidirectional interface not only enables seamless control of robotic limbs but also creates a more immersive connection with the physical environment. In parallel, an EEG module with preparation-free gel materials is under development to integrate brain–computer interface (BCI) functions, further extending the system’s capabilities. Designed for next-generation prosthetics, rehabilitation robotics, assistive exoskeletons, and advanced HMIs, this technology offers a comprehensive platform for restoring and enhancing motor function. The team is actively seeking collaboration with medical device manufacturers (prosthetics, rehabilitation robotics, wearable sensors), rehabilitation centers and hospitals (for clinical test-bedding), deep-tech companies specializing in AI, data analytics, or biosignal processing, as well as robotics firms to co-develop and deploy this innovation in real-world applications. This system combines materials science, electrophysiology, and robotics innovations to create a robust, skin-integrated platform: Ultrasensitive EMG Sensing Conductive gel with ultra-low skin-electrode impedance Detects EMG signals as low as 1.5% Maximum Voluntary Contraction (MVC) 32–64 channel high-density sensor arrays Stretchable, conformable design with excellent motion artifact resistance Robotic Tactile Sensor Arrays > 1000 distributed sensors across the robotic hand Sensitivity: 0.01 N, with shear force detection Proven durability: >100,000 cycles EEG Module (in development) Preparation-free electrode system Thermally responsive phase-change materials Delivers high-quality, stable EEG signals for brain–computer interface integration Together, these features deliver a closed-loop system that supports multi-channel EMG-driven control with robotic tactile feedback, enabling real-time, natural, and immersive human–robot interaction. This technology can be applied across prosthetics, rehabilitation robotics, assistive exoskeletons, and advanced human–machine interfaces (HMIs). It enables the commercialization of: EMG-Controlled Prosthetic Limbs Delivering intuitive, high-resolution muscle signal decoding for natural prosthetic control. Robotic Rehabilitation Devices Adapting therapy in real time through continuous monitoring of muscle activity. Assistive Exoskeletons Supporting mobility with muscle-driven, responsive control for users with motor impairments. Robotic Hands with Tactile Feedback Providing force and texture sensing to enhance dexterity and object interaction. Multimodal HMIs Combining EMG and EEG inputs for gesture-based and brain–computer interface applications. Wearable Biosignal Platforms Extending use to clinical diagnostics, tele-rehabilitation, and immersive VR/AR systems. This solution is a closed-loop wearable interface that integrates ultrasensitive on-skin EMG sensing with robotic tactile feedback for truly intuitive human–machine interaction. Unlike conventional systems that rely on a few electrodes with poor signal fidelity, it delivers high-density, high-stability EMG acquisition capable of detecting even subtle muscle activations. The robotic hand further provides force and texture feedback, creating a responsive two-way interface. Engineered with advanced conductive gels, stretchable materials, and clinical-grade stability, this technology sets a new standard for intelligent prosthetics, rehabilitation robotics, and next-generation HMI. Flexible Electronics, On-Skin Sensing, Haptic Feedback, Human-Machine-Interface (HMI), Robotic Sensing, Electrophysiology Electronics, Printed Electronics, Sensors & Instrumentation, Healthcare, Medical Devices

Timber has long been a primary construction material for its versatile properties, such as strength and durability. However, it grows slowly and cannot match the performance of concrete or steel. Bamboo, with its high strength-to-weight ratio and rapid renewability, offers a sustainable alternative for structural applications in the construction industry. The technology on offer, Bamboo Veneer Lumber (BVL), is a next-generation high-performance bio-composite developed through a patented process in Switzerland and Singapore. BVL combines natural bamboo fibres with a specially formulated bio-based binder under high heat and pressure, ensuring superior strength and stability. This makes BVL suited for applications in construction, manufacturing, and furniture, positioning it as a sustainable alternative to conventional materials like timber and concrete. With strong green credentials—including bamboo’s rapid renewability, up to 40% lower carbon footprint compared to conventional materials, and FSC-certified sourcing—BVL represents a cutting-edge, eco-conscious option for both structural and design-driven applications. Furthermore, BVL complies with the 4 SEED characteristics: Strength, Environmental Friendliness, Economic Feasibility, and Durability—a combination crucial to the future of the built environment. The technology owner is seeking collaboration with manufacturing and fabrication partners, as well as companies in construction, interior design, and furniture, that are looking for more sustainable and higher-performance alternatives to wood. Sustainable Composition & Process Engineered from sustainably harvested, FSC-certified bamboo fibres fused with a custom binder matrix Produced through a patented lamination process, aligning bamboo veneers under heat and pressure to enhance natural strength of bamboo Key Performance Benefits High strength-to-weight ratio — up to 3× stronger yet 20% lighter than traditional hardwoods and engineered wood Durable and stable — resistant to decay, rot, and moisture, with excellent dimensional stability. Offers a veneer-quality surface finish, uniformity, and compatibility with standard adhesives and coatings Scalable Supply Chain Currently manufactured in one location with one bamboo species, with global expansion across the equatorial belt to leverage bamboo diversity and ensure steady supply A controlled value chain ensures consistent mechanical properties, outperforming conventional engineered bamboo in strength, durability, stability, and aesthetics Construction: as structural or non-structural components including beam, column, wall cladding, door and window frame as well as flooring Furniture: for medium to high-end furniture products where sustainability and high quality and performance matter Industrial Manufacturing: sporting goods, vehicle interiors or cabinetry delivering high-performance veneer and compatibility with a variety of other materials and adhesives The market for green building materials and furniture products is projected to exceed USD 1.3 trillion by 2030, driven by rapid urbanisation and resource depletion. In this context, bamboo stands out as a sustainable, renewable, and readily available alternative, offering significant advantages over timber and other fibres commonly used in composite manufacturing. Its natural, carbon-neutral properties align with the growing demand for eco-friendly building materials. Through uniquely patented processing and production techniques, bamboo is enhanced with the strength and durability required for high-performance applications—a critical advantage as global standards and demand for bio-based construction continue to rise. BVL distinguishes itself in the market by addressing key limitations of conventional wood and bamboo-based products. Sustainable Engineering: Made from full-length bamboo veneers bonded with a proprietary low-emission binder Patented Process: Unique lamination ensures structural continuity, enhancing load-bearing capacity, dimensional stability, and long-term durability Superior Performance: Up to 3× stronger than hardwood and most engineered woods, while approximately 20% lighter Low Environmental Impact: Combines high performance with reduced emissions and sustainably sourced materials Versatile Applications: Offers precision form, high surface quality, and adaptability for both structural and aesthetic uses Structural Applications, Sustainable Construction Material, Fibre Composite, Bamboo, , Bio-Based Material Materials, Composites, Bio Materials, Sustainability, Circular Economy

The mobility and construction sectors face increasing pressure to reduce carbon emissions, meet stricter recycling regulations, and achieve lightweighting without compromising performance. Conventional fiber-reinforced plastics (FRPs) provide strength and stiffness but introduce significant end-of-life challenges, as their multi-material composition makes separation and recycling costly and often impractical. This results in large volumes of waste, higher lifecycle costs, and growing regulatory risks for manufacturers. This technology introduces a recyclable, self-reinforced PET (srPET) composite, delivering high-performance mechanical properties in a truly circular, mono-material system. Unlike FRPs that rely on different polymers or fiber reinforcements, srPET uses PET for both the matrix and the reinforcement, eliminating material incompatibility at end-of-life. The composite is produced from 100% post-consumer recycled PET (PCR-PET), ensuring alignment with global carbon-reduction and circular economy goals. By combining excellent strength, formability, and thermal performance with compatibility for standard thermoplastic processing methods (such as press molding and lamination), this material bridges sustainability with industrial scalability. It provides a lightweight, durable, and recyclable alternative to traditional plastics, metals, and non-recyclable composites. The technology is ideally suited for automotive, aerospace, defense, and construction industries, where manufacturers seek to balance regulatory compliance, sustainability, and performance. The technology owner is seeking R&D collaborations, licensing partnerships, and test-bedding opportunities with OEMs committed to sustainable material adoption. Self-reinforced composite made entirely from PET (mono-material design). Superior mechanical performance compared to traditional unfilled thermoplastics.  High impact resistance, structural rigidity, and dimensional stability.  Low shrinkage with excellent formability.  Compatible with standard thermoplastic processing methods, including: Extrusion Lamination Thermoforming Hot-press molding Extendable functionalities  Flame-retardant formulations Sandwich panel structures for mobility and construction sectors Thermal insulation properties This technology is suitable for a wide range of industries where lightweighting, recyclability, and high performance are critical: Automotive: door trims, underbody shields, NVH (noise, vibration, harshness) components. Aerospace: interior panels and non-structural lightweight parts. Defence: anti-stab panels and impact-resistant protective structures. Marine: lightweight structural covers and panels. Construction: interior/exterior wall panels, insulation boards, and sandwich panels. The material is especially suited for sectors demanding recyclability, high strength-to-weight ratios, thermal insulation, and compliance with evolving regulatory standards. The global lightweight materials market is expected to exceed USD 250 billion by 2030. Demand is rising across EVs, aerospace, and defense sectors, while increasing sustainability regulations such as EU ELV and U.S. EPR are accelerating the adoption of circular materials like srPET composites. In the building sector, demand is also growing for carbon-neutral and sustainable construction materials. This technology leverages 100% recycled PET to deliver superior thermal stability, processing compatibility, and recyclability. Its mono-material structure enables true closed-loop recycling without the need for material separation, directly supporting ESG commitments and circular economy goals. In addition to mechanical durability and excellent formability, the material offers inherent insulation performance, creating a strong advantage for cost-sensitive, regulation-driven markets such as green construction, lightweight mobility, and consumer products. Chemicals, Polymers