TECH OFFERS

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

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

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

Buildings and photovoltaic (PV) systems face two major challenges: excessive heat gain and frequent surface soiling. In tropical climates, solar heat through glass façades can account for up to 40% of total cooling demand, while dust accumulation on PV panels can lower efficiency by 5–30% within months. These issues increase energy use, maintenance frequency, and operational costs. This technology introduces a multifunctional multilayer coating that integrates self-cleaning, infrared (IR) heat rejection, and high optical transparency in a single, durable formulation. Unlike conventional coatings that require multiple layers for different functions, this innovation achieves comparable or superior performance in an integrated multilayer design—simplifying application and lowering cost. The photocatalytic self-cleaning surface decomposes organic contaminants and enables natural washing by rain, reducing cleaning needs. Simultaneously, the IR-reflective layer rejects near-infrared heat while maintaining over ~80% visible light transmittance, cutting cooling energy use by ~10–15% without compromising daylight. Compact, scalable, and retrofit-friendly, this coating offers a cost-effective solution for building operators and solar installers aiming to enhance energy efficiency, reduce maintenance, and improve sustainability performance. The technology owner is seeking industry partners in solar panel manufacturing, green building projects, and glass applications for licensing Advanced Sputtering Process: Enables uniform multilayer deposition with high scratch resistance, strong adhesion, and optimized refractive index for superior optical clarity. High Transparency with Heat Rejection: Maintains ~80% visible light transmittance while blocking infrared radiation (700–2500 nm) to reduce solar heat gain. Thermal Regulation: Proven to lower surface and indoor temperatures in both PV applications and buildings respectively.  Multifunctional Design: Integrates self-cleaning, heat reflection, and high transparency into a single coating layer, simplifying fabrication and application. Self-Cleaning Surface: Photocatalytic-hydrophilic layer breaks down contaminants and allows natural rinsing by rain, reducing cleaning frequency. Cost-Competitive Solution: Offers multi-functional performance at comparable cost to conventional single-function coatings, suitable for solar panels, façades, and glass applications. Commercial and Residential Glazing Systems Solar Panel Installations Green Building and Retrofitting Projects Automotive Glass Applications Smart Windows and Energy-Efficient Architecture Single Multifunctional Coating: Integrates self-cleaning, heat reflection, and high transparency in an integrated multilayer design, eliminating the need for multiple single-function coatings. Energy Efficiency: Reduces building cooling energy consumption while maintaining high natural light transmission for occupant comfort and daylighting. Low Maintenance: Decreases cleaning frequency and maintenance costs through its self-cleaning, photocatalytic surface. Urban Heat Mitigation: Contributes to reducing the urban heat island effect by reflecting rather than absorbing solar radiation.  Energy Efficiency, Multifunctional Coatings, Self-cleaning Technology, Solar Panel Efficiency Chemicals, Coatings & Paints, Energy, Solar

The lithium-ion battery industry has long relied on cobalt-based cathode materials such as NCM (nickel–cobalt–manganese) and NCA (nickel–cobalt–aluminum) to achieve high energy density and stable performance. However, cobalt is expensive, environmentally unsustainable, and often associated with ethical issues in mining. As global demand for batteries continues to rise, there is an urgent need for cobalt-free alternatives that offer similar or better performance at lower cost. This technology introduces a new class of cobalt-free, high-nickel layered cathode materials designed for next-generation lithium-ion batteries. With a nickel content above 90%, it achieves both high energy density and long cycle life through improved control of material composition and surface stability during synthesis. The optimized process ensures high structural integrity, stable performance, and scalability for mass production—addressing key challenges in commercializing cobalt-free, nickel-rich cathodes. This innovation offers a sustainable, cost-effective, and high-performance solution that supports the battery industry’s shift toward cleaner and more responsible manufacturing. The technology owner is looking for R&D  and licensing collaborations with battery material manufacturers, EV battery producers, and energy storage system companies seeking cobalt-free and high-performance cathode solutions. Material composition: Li(Ni, Mn, M)O₂ (M = Ti, Nb, Ta, W, Mo etc.) Structure: Layered Co-free oxide with superlattice ordering (c/a > 1.6459) Grain morphology: Uniform 40–60 nm rod-type particles with surface-enriched layers Dopant control: Temperature-feedback DB ensures reproducible sintering between 700–900 °C for each dopant type Surface chemistry: Mn oxidation and diffusion suppressed via controlled precursor oxidation (Mn³⁺ → Mn⁴⁺) Electrochemical performance: Initial capacity > 200 mAh/g 80 % capacity retention after 500 cycles Enhanced interface stability (TOF-SIMS verified) Electric vehicles (EVs): High-energy, long-life batteries without cobalt dependency. Grid-scale energy storage: Stable, sustainable cathodes for long-cycle performance. Portable electronics: Lightweight, eco-friendly power sources with superior thermal stability. This Co-free high-nickel cathode platform can be adapted for both coin-cell and pouch-type battery systems, supporting scalability for mass production. Cobalt-free & sustainable: Eliminates cobalt without sacrificing stability or capacity. Reproducible process: Database-driven temperature calibration minimizes variation in large-scale synthesis. Superior interface stability: Mn diffusion control maintains gradient structure and prevents electrolyte decomposition. High crystallinity & lifetime: Optimized c/a ratio > 1.6459 ensures lattice stability even after long cycles. Scalable manufacturing: Simplified co-precipitation and solid-state lithiation processes support industrial adoption. Together, these advances enable high-energy, long-life, and eco-friendly batteries, ideal for both EV and stationary applications. Energy, Battery & SuperCapacitor

Maintaining stable blood glucose levels is central to achieving a healthier lifestyle and preventing metabolic disorders such as diabetes. Even for non-diabetic individuals, daily fluctuations in glucose can affect energy levels, focus, sleep quality, and long-term metabolic health. As awareness grows around personalized health tracking, consumers are increasingly seeking simple, non-invasive ways to understand how diet, exercise, and stress influence their glucose patterns. BGEM meets this need through a smartphone app that estimates blood glucose levels non-invasively using data from smartwatches, fitness trackers, and smart rings. By leveraging the photoplethysmography (PPG) sensors that users already wear, the app provides on-demand insights into glucose fluctuations without the need for finger pricks or patches. Powered by advanced algorithms in the cloud, the system translates wearable sensor data into personalized glucose trend information, allowing users to visualize how daily habits influence their metabolic responses. This empowers individuals to make informed lifestyle adjustments, supporting better nutrition choices, improved fitness outcomes, and early awareness of potential glucose irregularities. Unlike conventional continuous glucose monitors that rely on invasive sensors, this technology is completely non-invasive, affordable, and accessible, making proactive glucose monitoring possible for a broader health-conscious population. This solution is designed for consumers who want to take greater control of their wellness journey through meaningful, data-driven insights. The technology owner is seeking collaborations with hardware manufacturers for integration, wearable brands for product development, distributors and IHLs for expanding research.  The BGEM technology is an end-to-end managed AI platform that leverages Photoplethysmography (PPG) enabled wearable sensors to monitor various tissue biophotonic and hemodynamic features associated with blood glucose fluctuation. The solution comprises the following features: Optimised and validated AI algorithm Mobile Demo App Including UI/UX design guideline User-friendly visualisations SaaS Scalability Security API Integration The BGEM technology offers a cost-effective, non-invasive approach to estimating an individual's blood glucose levels. The applications include: Empowering Consumers with Personalised Insights: The technology leverages the high growth rate of smart wearables and hearables, presenting an opportunity to offer consumers a holistic view of one's wellbeing towards leading a healthier lifestyle. Relieving Diabetic Patients from Painful Monitoring: By enabling regular, cost-free estimation of blood glucose changes, the technology empowers individuals with Type II diabetes to monitor their glucose levels comfortably and painlessly — freeing them from the discomfort of frequent finger pricks. The Diabetes Burden (2024–2025) As of 2024, approximately 589 million adults (aged 20–79) worldwide are living with diabetes. Projections indicate this number could reach 853 million by 2050 if current trends continue (IDF). Over 80% of people with diabetes live in low- and middle-income countries (IDF). Diabetes-related healthcare costs reached USD 966 billion globally in 2021 — a 316% increase over 15 years. The Rise of Wearable Technology The wearable health devices market was valued at approximately USD 44.06 billion in 2024 and is projected to grow at around 11% CAGR, reaching USD 112 billion by 2033. The wearable diabetes devices segment is estimated at USD 12.1 billion in 2025, with forecasts of USD 19.5 billion by 2030 (CAGR >10%). The broader wearable technology market is valued at USD 84.2 billion in 2024, expected to reach USD 186.1 billion by 2030, growing at around 13.6% CAGR. Growing Use of CGMs Among Healthy Individuals Over 1 million healthy individuals now use CGMs to monitor glucose for lifestyle and performance insights. Adoption among athletes and health enthusiasts is rapidly increasing, with expanding interest from the general wellness market. Current blood glucose monitoring technologies typically rely on finger pricks for blood extraction or the insertion of sensors beneath the skin, causing discomfort and inconvenience from wearing adhesive patches for extended periods. Moreover, the high upfront and recurring consumable costs — including sensors, needles, and test strips — continue to limit widespread adoption. Blood Glucose Estimation and Monitoring (BGEM) technology offers a truly non-invasive alternative that can be seamlessly deployed on billions of existing wearable devices already owned by consumers. By eliminating the need for disposable equipment, needles, or test strips, BGEM makes glucose monitoring significantly more convenient, affordable, and accessible than traditional invasive solutions. UVP of BGEM: Market-Ready: A non-invasive, SaaS-based AI solution that leverages consumer-grade wearables to provide on-demand blood glucose estimation. High Performance: Demonstrates strong analytical precision and clinical accuracy. Cloud-Based: Built on a secure, scalable cloud platform for seamless data processing and integration. Third-Party Compatible: Easily integrates with a wide range of existing wearable devices and mobile applications. Sustainable: Reduces biomedical waste by eliminating the need for disposable needles, test strips, and sensor patches. User-Friendly: Completely non-invasive, convenient, and designed for frequent, comfortable monitoring. Non-invasive Glucose Estimation, Photoplethysmography (PPG), Smart Wearables, Software as a Medical Device (SaMD), Software as a Service (SaaS), Healthier Lifestyle Healthcare, Medical Devices, Telehealth, Medical Software & Imaging

Wound healing is a complex process and is associated with multi-stage cell/tissue transformations. The entire wound healing process is generally complete around 20 days after skin injuries. Unfortunately, impaired wound healing, which usually occurs as a result of infection or the pathological status of the patients, i.e., diabetes, obesity, cancer, and in particular, severe inflammation, leads to excess exudate production and tissue ulcers, causing prolonged health problems and economic burdens for patients. This technology introduces a sterilized nanoemulgels xanthones (XTs-NE-Gs) which are compounds from mangosteen peel dispersed in a gel base. The methodology involves using a high pressure homogenization technique without the addition of organic solvents in the formulation to produce sterilized XTs-nanoemulsion (NE) concentrate. After blending sterilized XTs-NE concentrate and the sterilized gel, a sterilized XTs-NE-G was obtained.   The concentrate has proven effective enhancement activities on the proliferation and migration rates of skin cells. It also promoted re-epithelialization, collagen deposition and inflammation suppression in mice models. Xanthones has proven strong anti-oxidant, anti-inflammatory and anti-bacterial properties. The nanoemulgel technology can overcome the typical problems from the addition of some solubilizers to enhance solubility of XTs in the products, in particular, alcohol that cause burn sensation on the open wounds.  Importantly, the obtained product from this technology could be sterilized and thus safe for wound healing purpose. The technology owner is seeking collaborations for clinical trials to obtain information for supporting product safety and efficacy and manufacturers for scale up.  The study developed and optimized xanthones-loaded nanoemulgels (XTs-NE-Gs) for wound healing applications, focusing on formulation, physicochemical properties, and sterilization. Xanthones, primarily α-mangostin and γ-mangostin, were incorporated into an oil-in-water nanoemulsion using caprylic/capric triglyceride, oleic acid, and surfactants (polysorbate 80, sorbitan oleate 80). Droplet sizes in the nanometer range of 113–123 nm with narrow distribution (PDI 0.20–0.37) and negative zeta potential ( –7 to –8 mV), ensuring stability. Entrapment efficiency of 93–94%, loading capacity of around 1.2%. To improve viscosity and retention on wounds, gels with sodium alginate (Alg) and Pluronic F127 (F127) were added. Suitable viscosity of 2300 mPa·s while enhancing fibroblast proliferation and migration. Sterilization was achieved by 0.22 μm membrane filtration of nanoemulsion and autoclaving the gel, later combined aseptically. Stability studies showed no significant physicochemical changes over 90 days at 27 °C. Transmission electron microscopy confirmed spherical oil droplets embedded in gel matrices. In vitro release studies revealed controlled, sustained drug release consistent with Higuchi’s model, while ex vivo skin permeation indicated slower release from the gel compared to nanoemulsion.  The system offers a portable, safe, affordable wound care, with key technical features including adjustable viscosity, controlled drug release, sterility, compatibility, stability, and ability to stimulate fibroblast growth factors (bFGF, KGF/FGF-7), accelerating wound healing. The sterilized xanthones-loaded nanoemulgel (XTs-NE-G) represents a versatile wound care innovation with broad clinical and consumer applications. Designed to enhance fibroblast proliferation, collagen deposition, and re-epithelialization, it offers significant potential in acute wound management including: Surgical incisions, traumatic injuries, and burn care. Chronic and hard-to-heal wounds, such as diabetic foot ulcers, venous leg ulcers, and pressure sores, where infection control and accelerated healing are critical. Outpatient and home healthcare, providing patients with an affordable, portable, and easy-to-use treatment option. Natural compound base and sterilized preparation aligns with growing demand for safe, clean-label therapeutic products. Commercial wound dressings, gels, sprays, or patches. The technology’s modular design—allowing viscosity adjustment and controlled release enables adaptation for cosmeceutical and dermatological applications, such as scar reduction creams, anti-aging formulations, or products targeting skin barrier repair. Additionally, its nanoemulsion delivery platform may be extended to other lipophilic bioactives, making it valuable for broader pharmaceutical and nutraceutical industries. Due to its small droplets based on nanotechnology, it has promising activities for wound healing.  It enhances wound healing rate via accelerating skin cells proliferation, reducing inflammation, absorbs secretions from wounds and inhibits the growth of bacteria. This technology reduces production costs by using agricultural and industrial waste materials.    Xanthones, Nanoemulsions, Nanoemulgel, Sterilization, Wound Healing Personal Care, Cosmetics & Hair, Healthcare, Medical Devices, Pharmaceuticals & Therapeutics

​The global silica market exceeds US$70 billion annually and grows over 7% each year, driven by demand from the semiconductor, tire, and green construction sectors. Despite this growth, conventional silica production relies on mined quartz, harsh chemicals, and energy-intensive processes, creating high costs and environmental burdens. There is an urgent need for sustainable, low-carbon alternatives that deliver industrial performance without a “green premium.” This patented technology converts agricultural residues such as rice husks into two high-value products: ultra-pure amorphous silica and biomass-derived carbon through a single, chemical-free process. It eliminates chemical waste, reduces CO₂ emissions, and can be implemented locally, turning waste into valuable materials. The technology provider is seeking rice producers, companies, and institutions globally interested in sustainable silica and carbon, as well as R&D organizations and universities advancing green materials and biomass utilization.  ​This technology employs a proprietary single-firing process to directly convert agricultural residues into two high-value products: ultra-pure silica (≈99.7%) and carbon. The process requires no harsh chemicals, making it safe, sustainable, and simple to operate. Compared with conventional alternatives, this process significantly reduces CO₂ emissions and maintains an exceptionally low environmental footprint. Designed for decentralized use at the source of agricultural waste, the system is well suited for small- to medium-scale facilities and can be seamlessly integrated into existing industrial processes. However, the performance of the carbon product has not yet been proven in actual operational environments and has only been demonstrated at the pilot level.  ​The technology can be applied across industries requiring high-purity silica or functional carbon materials, including:  ​Cosmetics: eco-friendly white silica for skincare and powder formulations  ​Tires: reinforcing filler for sustainable rubber compounds  ​Concrete and Construction: strength-enhancing additive with carbon credit benefits  ​Semiconductors and Glass: high-purity amorphous silica feedstock  ​Energy Storage: conductive carbon for lithium-ion and sodium-ion batteries  ​Achieves high purity and cost efficiency in a single clean process  ​Produces silica with an amorphous structure and ultra-white color, outperforming typical biomass-derived materials  ​Bridges industrial performance and sustainability, enabling partners to meet ESG goals while maintaining profitability  Rice Husk, Biomass Silica, Green Technology, Circular Economy, Carbon Materials, Sustainable Materials, Biomass Carbon Materials, Plastics & Elastomers, Chemicals, Inorganic, Waste Management & Recycling, Food & Agriculture Waste Management, Sustainability, Circular Economy, Low Carbon Economy

Lignin polymer composites represent a class of sustainable materials that combine eco-friendliness, cost-effectiveness, mechanical reinforcement, with intrinsic functional properties such as UV protection, antioxidant activity, barrier performance, and antimicrobial effects. While conventional production methods often rely on solvents or require separate lignin modification steps—leading to higher costs and loss of functionalities—this technology introduces a one-step process to efficiently produce lignin biopolymer composites by efficiently blending lignin and essential oils into a polymer. The technology works by directly dissolving lignin in essential oils and then feeding this solution, along with a biopolymer like PLA, PBS, PBAT, or PP, into a twin-screw extruder. This method ensures an even dispersion of the mixture throughout the material without the need for additional solvents or complex pre-processing. The resulting material has enhanced properties, including antimicrobial, UV-resistant, and antioxidant capabilities, as well as controlled release of active ingredients. The final materials can be manufactured into various products, including 3D printing filaments, films, or molded items. The technology owner is seeking collaborations with partners in Singapore, particularly those involved in medical materials (e.g., wound dressings), active food packaging, biodegradable agricultural films, and 3D printing materials, to co-develop innovative solutions that support a circular economy. The technology is a single-step process to efficiently produce lignin biopolymer composites by efficiently blending lignin and essential oils into a polymer. Key features of the lignin biopolymer include: Manufacturing One-step solvent-free process using a twin-screw extruder Direct dissolution of lignin in essential oils prior to compounding with biopolymers, eliminating the need for separate lignin preparation or additional solvents Compatible with standard industrial extrusion machinery, enabling continuous and scalable production. Suitable for blending with a range of biopolymers such as PLA, PBAT, or PBS Exhibits antimicrobial, UV-resistant, and antioxidant properties Preserves essential oil functionality for controlled prolonged effectiveness Can be manufactured into various products, including 3D printing filaments, films, or molded items Potential applications include (but not limited to): Bio-based food films or bags with antimicrobial properties to prevent contamination Medical materials or devices, such as antiseptic wound dressings 3D printing filaments for producing safe, functional components Biodegradable agricultural films, like mulch films that protect against soil pathogens One-step, solvent-free production process – eliminates the need for lignin pre-treatment or additional solvents, enabling cost-efficient, continuous manufacturing on existing industrial machinery. Enhanced functional performance – biocomposites retain lignin’s natural UV and antioxidant properties while integrating essential oils for antimicrobial activity and controlled release of active agents. Sustainable and versatile materials – transforms low-value lignin into high-performance biocomposites for various applications essential oils, biodegradable materials, UV-resistant, biocomposites, eco-friendly, antimicrobial, polymers, lignin, composites, 3D printing filaments, moulded, plastic Materials, Composites, Bio Materials, Manufacturing, Chemical Processes, Foods, Packaging & Storage