TECH OFFERS

Thin film composite (TFC) membranes are the main membrane types for reverse osmosis (RO) and nanofiltration (NF) membranes. RO membranes can be used for desalination, utility water treatment, wastewater treatment and reuse as well as process water treatment. NF membranes can allow monovalent ions, such as sodium chloride, to pass through the membrane, while rejecting divalent and multivalent ions, such as sodium sulfate. It has applications in the diary, food, dye, biotech, pharmaceutical and industrial processes for concentrating targeted streams. Boosting membrane permeability without a decrease in their rejection to target ions has been the objective of many membrane producers. Many methods have been proposed in literature to achieve the target, such as incorporating nanoparticles or surfactants. However, the synthesis of uniform nanoparticles in large scale is a problem and the long-term stability of nanoparticles in the polyamide layer is of concern. The process of adding surfactants is also not controllable, leading to a potential concern for quality control in the final membrane product. This invention relates to a simple method to increase the water permeability of thin film composite membranes for nanofiltration and reverse osmosis by 2 to 5 times. The chemicals involved are readily commercially available and the method is simple without the need to change the existing production line. In this technology, the researchers have identified additives that are thermodynamically stable and can be synthesised with a narrow size distribution. Compared to surfactants, the additives have controllable size, which can help fabricate nanofiltration membrane with precise rejection to target ions. These features can facilitate future large scale production of the improved TFC membrane. This invention can be applied to all types of TFC membranes, including NF and RO membranes, which can be used for desalination, utility water treatment, wastewater treatment, etc.  According to MarketsandMarkets, the global membranes market is projected to reach USD10.1 billion by 2027. NF membranes are expected to grow the fastest with multiple end users. The water and wastewater treatment segment is the main driver for the RO membrane market. The global RO membrane market size is expected to reach about USD5 billion by 2026.  Water permeability can be increased by 2-5 times with minimal trade-off of salt rejection of the membrane Does not require changes to the existing production line Works on support with different chemistries (e.g. PES, PSF) Works on both flat sheet and hollow fiber supports   Nanofiltration, reverse osmosis, Thin film composite (TFC) membranes, nanofiltration (NF) membranes Materials, Composites, Environment, Clean Air & Water, Filter Membrane & Absorption Material

One-fifth of all local and imported food in Singapore and about 15% of all food globally is spoiled during the supply chain due to inadequate food transport facilities. To overcome this, the startup offers a patented technology in the form of a hardware device that emits a magnetic interference field. It can be used throughout the supply chain starting immediately after harvest and all the way to storage and display. In particular, this technology has great potential to be applied during the food transportation when the chance of spoilage is highest due to reasons such as overripening caused by supply chain delays. The startup is looking to collaborate with food logistics and storage companies, as well as retailers, to integrate their solution. This technology locks the water inside fresh food, minimises bacteria and mold growth, thus extending the food shelf life by at least 30%. Each small semi-circular device can cover a region of 24 inches in diameter and 15 inches in height. The device is completely passive and requires no energy or maintenance. The useful life of the device is 3 years and the energy field emission conforms to WHO safety guidelines. This technology can be applied to slow down food spoilage in: Cold chain containers Non-cold chain containers Food transport trucks Food storage baskets Refrigerators (Domestic and Commercial) Supermarket shelves It may also be applied during farming process to enhance plant growth and reduce water requirements.  The unique value proposition of this technology lies in the following areas: Extends food shelf life in fluctuating ambient conditions No energy or maintenance required  Effective and economical in reducing food waste by up to 40% food preservation, supply chain, food storage, fresh food Materials, Nano Materials, Foods, Packaging & Storage

Lipid nanoparticles have undergone significant advancements in biomedicine, evolving into a sophisticated platform for delivering therapeutic agents and imaging agents. Their biocompatibility, tuneable properties, and successful translation into clinical applications signify their maturity as a versatile and effective technology. This technology is a patented lipid nanoparticle technology platform, designed to harness unique synergies from a combination of: (1) novel core fluorescence materials with tuneable wavelengths; (2) biocompatible lipid encapsulation matrix, delivering challenging materials in water-based environment; (3) surface functionalisation on nanoparticles, allowing for tailored targeting functionalities. The technology is a key enabling solution for advanced fluorescence imaging and detection, with characteristics of high brightness, sensitivity, and biocompatibility. The high sensitivity and specificity of the technology allow researchers to obtain accurate and conclusive experimental data, whereas outstanding photostability eliminates concerns of signal loss, enabling precise visualization and long-term monitoring of cellular processes for both in-vitro and in-vivo studies. The introduction of this technology opens new possibilities in accelerating biomedical breakthroughs, empowering studies in long-term in-vivo cell fate determination, drug development utilizing advanced 3D organoids, monitoring stem cell differentiation, transplantation, and potential for precision medicine and early diagnostic platforms, driving personalized therapeutic approaches, and leading to significant advancements in biomedicine and other similar applications. The technology owner is seeking partners for research and application development projects, with the goal of integrating this technology into existing workflows and protocol for biotech companies and contract research organisations. This technology is a patented water-soluble fluorescence lipid nanoparticles that exhibits the following characteristics: Strong brightness – 10 times higher than quantum dots of similar size Increased sensitivity with lower limit of detection (LOD) of targeted biomarkers Biocompatible and photostable platform with minimal cell toxicity and exceptional signal retention >95% cell viability after 48 hours Compatible with cancer cells, bone marrow stem cells, induced-pluripotent stem cells etc Choice of novel core fluorescence materials with emission signal from visible to NIR-I/II spectral range Visible range: 540 nm, 670 nm or others NIR range: 800 nm, 1000 nm or others Configurable surface functionalisation with different conjugation chemistry Thiol and maleimide Amine and NHS ester Streptavidin and biotin Click chemistry This technology can be used in biomedical applications that require high biocompatibility and high flexibility for customisation to meet the different end users’ unmet requirements. Potential biomedical applications include (but are not limited to): Conjugation services Translational research Stem cell studies Immune-oncology development Drug development utilizing advanced 3D organoids Cell and gene therapies Personalised medicine Early disease detection and point-of-care diagnostics The presented technology is designed for easy integration into the above applications, accelerating breakthroughs in biomedical development by allowing end users to collect higher quality experimental data and information, through the benefits of highly compatibility and efficient materials with enhanced brightness, monitoring duration, sensitivity and specificity of detection. The market for advanced fluorescence imaging and detection is witnessing significant growth the demand for innovative biomedical solutions increases worldwide. This technology is designed to accelerate the advanced biomedical field, with focus on bio-imaging and disease detection related markets, such as global tumour profiling, personalised medicine, and Point-Of-Care diagnostics market. Total Addressable Market (TAM) is defined by the global market of fluorescence biomarker applications, including bio-imaging, flow cytometry, and immunofluorescence assays. In overall terms, the fluorescence label market is worth $8.64 billion in 2022. Selecting the materials-based market from the above gives the global fluorophores market valued at $869.3M. Biocompatibility and stability:  The fluorescence nanoprobes are biocompatible and can be delivered to cells and tissues without worry of toxicity issues, maintaining high stability in the biological environment. High sensitivity and specificity: The fluorescence nanoprobes are ultra-bright even at low concentrations, capable of detecting targets when used in nanomolar level, enabling better visualisation and lower limit of detections (LOD) for targeted biomarkers. Highly customisable and configurable: The fluorescence nanoprobes are designed to be highly tuneable in wavelength, size, as well as surface functionalities, unlocking customization works for specific applications, including new fluorescence reporters, change of encapsulation materials, and surface bioconjugation, allowing fast turnaround development and production to address end users’ unmet application needs. The technology owner is seeking partners for research and application development projects, with the goal of integrating this technology into existing workflows and protocol for biotech companies and contract research organisations. biocompatible, fluorescence, lipid nanoparticles, functional targeting, imaging, diagnostics, photostability, biomedical, nanomaterials, dyes, functional materials, surface functionalisation, cells, detection, water-soluble, encapsulation Materials, Nano Materials, Bio Materials, Healthcare, Diagnostics, Pharmaceuticals & Therapeutics, Life Sciences, Biotech Research Reagents & Tools

MXene fibers are a new class of functional fibers that have been shown to have excellent electrical, electrochemical, and mechanical properties. Fabricated from electrically conductive and mechanically strong MXene nanosheets, these fibers cater to the growing demand for advanced materials in the field of textile-based devices and beyond. However, achieving a harmonious balance between electrical conductivity and mechanical properties remains a significant challenge in fully harnessing the potential of MXene fibers. This challenge primarily stems from the difficulties encountered in compacting the loose MXene nanosheets further. This technology presents a continuous and controllable approach to fabricate highly compact MXene fibers. The resulting MXene fibers exhibit exceptional compactness, with high orientation and low porosity, thereby demonstrating outstanding tensile strength, remarkable toughness, and superior electrical conductivity. Moreover, these ultra-compact fibers are constructed into meter-scale MXene textiles, which showcase high-performance electromagnetic interference shielding and personalized thermal management capabilities. These MXene textiles also exhibit exceptional mechanical durability and stability, even after undergoing multiple washing cycles. The technology can be readily extended to a wide range of nanostructured materials, enabling the construction of functional fibers for large-scale applications in various domains, including both space and everyday life. The technology owner is interested in joint R&D projects and out-licensing opportunities with companies who require high performance functional fibers. The technology is a continuous and controllable wet-spinning process to fabricate ultra-compact MXene fibers, making it highly suitable for scale-up production of electronic textiles. The resultant MXene fibers exhibit the following characteristics: High tensile strength (585.5 ± 2.1 MPa) Ultra-high toughness (66.7 ± 5.0 MJ m-3) High electrical conductivity (8,802.4 ± 30.8 S cm-1) Excellent long-term mechanical durability and stability (~87.8% performance retention after 5×104 bending cycles) Suitable for electromagnetic interference (EMI) shielding (~57 dB) and thermal management applications (After applying voltages of 8 V, MXene fibers can generate the heat with the temperature increasing up to ~130 ºC.) This technology can be applied to a diverse range of nanostructured materials, such as graphene fibers, carbon nanotube fibers, and carbon fibers. This opens possibilities for the construction of functional fibers with wide-ranging applications in various domains. Potential applications of the ultra-compact MXene fibers include (but not limited to): EMI shielding Personal thermal management Energy storage Wearable electronics Healthcare Aerospace Ultra-compact MXene layers formed, resulting in fibers that exhibit good performance such as high electrical conductivity, strength, and toughness Continuous and controllable route that enables scale-up production of electronic textiles The technology owner is interested in joint R&D projects and out-licensing opportunities with companies who require high performance functional fibers. MXene, fibers, functional textiles, wearables, textile, electronics, conductivity, thermal management Materials, Semiconductors, Chemicals, Inorganic, Manufacturing, Chemical Processes

Chemical analysers determine the chemical composition and characteristics of compounds. Such devices aim to provide rapid and accurate results of the analysed compounds but are often limited to bulky, laboratory-grade designs. Traditional spectroscopic systems are limited by its detection range based on the monochromator and light source, often resulting in poor resolution that affects the results of the analysis. This technology on offer is a patented low-cost, high signal-to-noise ratio micro-spectrometer module that can be used in long-distance detection. In comparison to traditional spectrometers that use spectral splitting, the utilisation of frequency-varying incident light to measure different spectral bands without signal intensity loss enables the user to achieve high signal-to-noise ratios and high precision. By using this spectrometer, real-time analysis of the composition of chemicals at the point of manufacture is possible which makes it a convenient tool for quality checks to enhance product quality and reduce risks. The technology has been validated for use in semiconductor manufacturing and the technology owner is interested in co-development projects and test-bedding opportunities to extend the technology in other sectors such as specialty chemicals, pharmaceutical, smart home appliances, food and agriculture to name a few. This technology is a micro-spectrometer comprising of a composition analyser and optical detection components (semiconductor light sources and sensors) with the following features: Low-cost and modular device Self-developed architecture module High precision and signal-to-noise ratio Able to penetrate glass and perform component analysis in different spaces over long distances Suitable for analysis of organic compounds that can be detected from 250 to 2500nm Potential applications of the micro-spectrometer include (but are not limited to): Inspection of industrial products for process monitoring, real-time picking and inspection and product classification Smart devices for health management and home appliances Biomedical – for use in medical devices The global process analysis equipment production is valued at $6.7 billion in 2022, with a compound annual growth rate of approximately 6.55%. This market is projected to grow to $8.1 billion in 2025. With this technology, users can utilise this small, accurate and low-cost device to maximise production outputs. Low-cost device with good spectroscopic performance (high signal-to-noise ratio) Enhanced applicability of spectroscopic analysis – able to measure through thick glass or conduct long-distance measurements The technology has been validated for use in semiconductor manufacturing and the technology owner is interested in co-development projects and test-bedding opportunities to extend the technology in other sectors such as specialty chemicals, pharmaceutical, smart home appliances, food and agriculture to name a few. spectrometer, analysis, chemical, measurement, process monitoring, long-distance, detection, electronis, printer circuit board, semiconductor, agriculture, food, spectroscopy, analyser, inspection Electronics, Sensors & Instrumentation, Chemicals, Analysis

This technology is a patented synbiotics (combination of probiotics and prebiotics) cleaning solution that offers a safe and sustainable alternative to traditional cleaning products and disinfectants. When released onto the surface, the probiotics will digest and break down dirt, grime, and other unwanted substances while the prebiotics in the solution act as an additional source of nutrition for the probiotics. The resultant surface microbiome provides a continuous cleaning effect that is longer lasting than traditional cleaning chemicals and disinfectants. Often, the overuse of traditional chemicals and disinfectants results in antimicrobial resistance (AMR), allergenic reactions to the user, negative impact on the environment and short effective lifespan. With this synbiotics technology, users can overcome these limitations and achieve a long-term effective cleaning system and a natural microflora to the environment. When utilised in healthcare settings, the synbiotics cleaning solution demonstrated a higher reduction of pathogens (80% more), decreased AMR (up to 99.9%) and health-associated infections (52% lesser). The technology owner is interested in co-development projects and test-bedding opportunities with companies looking for a sustainable and long-lasting cleaning technology i.e., cleaning equipment and automation manufacturers/suppliers and cleaning service providers. This technology consists of proprietary dual action deep cleaning probiotics enzymes and specially formulated surfactants which helps to detox surfaces, break down biofilm and dirt components through a continuous cleaning effect and microscopically purifying down to the deepest pores of surfaces. Main features of this synbiotics cleaning technology include: High efficacy and able to target broad spectrum of pathogens Long-lasting and continual cleaning efficacy Safe and non-toxic Decreased AMR (up to 99.9%) Reduction in health-associated infections (52%) Suitable for water-resistant surfaces This technology can be deployed across several sectors including healthcare, commercial, industrial, and residential buildings on water resistant surfaces (floor and walls). The technology owner has successfully test-bedded the technology in local healthcare institutions. By varying the probiotics used, this technology may also be used in agriculture, aquaculture, animal husbandry and personal care applications to extend the benefits of probiotics into new products. The global healthcare facilities and household cleaner market is estimated to be valued at US$55 billion in 2022. With the continuous use of chemical disinfectants, multi-resistant bacteria like super bugs and MRSA are expected to raise AMR and account for a rise in AMR-related deaths. This synbiotics cleaning technology can overcome and reduce AMR concerns, maintaining a long-term effective cleaning system and a natural microflora to the environment. This technology overcomes limitations in using conventional cleaning products and disinfectants such as: Limited effective short lifespan results Increasing health risks (acute & chronic) to both the user and consumers Requires more manpower & cleaning frequency Difficultly in breaking down biofilms, causing recurring odour and dirt It also provides and maintains a chemical-free, long-term effective cleaning system through the dual action deep cleaning efficiency. The technology owner is interested in co-development projects and test-bedding opportunities with companies looking for a sustainable and long-lasting cleaning technology i.e., cleaning equipment and automation manufacturers/suppliers and cleaning service providers. probiotics, prebiotics, cleaning, synbiotics, sustainable, eco-friendly, long-lasting, microbiome, antimicrobial, antimicrobial resistance, natural, health associated infections, sanitisation, disinfectant, chemicals Environment, Clean Air & Water, Biological & Chemical Treatment, Sanitisation, Chemicals, Bio-based, Sustainability, Sustainable Living

Maskless laser lithography (MLL) is a microfabrication technique used to create complex patterns on a substrate with high precision and resolution.  A Singapore-based research team has developed a compact and cost-effective MLL system by seamlessly integrating hardware and software components. By seamlessly integrating with computer-aided design software, operators can easily input arbitrary patterns for exposure. The small system footprint makes it ideal for research labs and offers widespread applicability across various fields, including microfluidics, electronics, and nano/micro mechanical systems. The system's cost-effectiveness extends its benefits beyond university research labs, presenting opportunities for semiconductor and medical companies to leverage its capabilities. This technology is available for IP licensing or further co-development in view of scale-up manufacture and commercialisation. Max exposable area 150mm x 150mm Max substrate size 150mm x 150mm Resolution 0.8 microns Precise cartesian movement, laser focus and pattern alignment using camera vision Galvo mirror-based laser steering Feedback-enabled actuators, optical elements, and electronic control systems Proprietary software efficiently processes computer-aided drawings of nano/microstructures Smart focusing mechanism, image recognition (pattern stitching) This technology offers a versatile nano/micro lithography tool for research labs creating sub-micron sized features and to facilitate rapid prototyping of circuits and devices. The cost-effective desk-top configuration provides researchers and industry practitioners access to lithography techniques without the need for complex infrastructure and facilities. Applications extend to the design and fabrication of micro-electro-mechanical systems (MEMs), biomedical devices and microelectronics, such as in the following sectors: Medical (including microfluidics) Semiconductor Microelectronics Biotechnology and life sciences Advanced materials research The global Maskless Lithography System market size is estimated to be worth US$ 336.06 million in 2022 and forecasted to increase to US$ 501.43 million by 2028 with a CAGR of 6.90%.The lithography market is also projected to experience sustained growth in the coming decades due to the increasing demand for 5G, AIoT, IoT, and semiconductor circuit performance and energy consumption optimization. Similar laser lithography systems use complex, expensive, and sensitive components such as employing the use of a fast-moving optical head while this technology directly steers the laser beam to expose the patterns. Arbitrary pattern lithography systems such as electron beams lithography (EBL) typically require large vacuum chambers, pumps, chillers, and precise electronics for steering electron beams. Fast UV mask aligners require masks that fixed chrome patterns on quartz or glass plates. Compared to current state-of-the-art systems, this technology offers competitive performance at reduced cost, complexity and with a substantially smaller footprint.   Materials, Semiconductors, Electronics, Lasers, Optics & Photonics, Healthcare, Medical Devices

The regulations aimed at reducing carbon emissions have led to the adoption of a remodelling strategy that focuses on decreasing the energy usage of buildings. This can be achieved through measures such as thermal insulation and retrofitting, which extend the lifespan of buildings while reducing their energy consumption. The proposed technology by a Singapore-based research team utilises proprietary Fibre Reinforced Polymer (FRP) material for reinforcement to enhance the longevity of buildings. It contains a modified epoxy adhesive used in the FRP-adhesive-concrete interfaces to provide a range of advantageous properties, that include being 5 times lighter while 10 times higher tensile and flexural strength than steel, cost-effective in production, easily shaped, demonstrating high corrosion resistance, and offering both flexibility and tolerance to misalignment. In addition, through the modification of bonding agents and surface aerogel insulation, the fire retardancy of the material had been enhanced by 3 classes to V-0 rating according to the UL 94 plastic flammability standard. Among the superinsulation materials, aerogel stands out with its unique acoustic properties and significantly lower thermal conductivity of approximately 0.014 W/m.K. Additionally, it possesses exceptional physical and chemical attributes, such as its translucent structure. As a result, it is widely regarded as one of the most highly promising materials for thermal insulation in building applications. The FRP technology is currently pending fire testing to meet local regulatory requirements (e.g., BS 476 Part 20-23) and will be subjected to evaluation by the Building Innovation Panel of BCA in coming months. The technology owner is keen to support interested industrial partners to fabricate larger prototype of the FRP for test-bedding on site, and eventually license the intellectual property to the industrial partner for commercialisation. Through the external strengthening of structural components, the fire retardant FRP improves structural properties, leading to reduced environmental concerns, lower construction material costs, decreased labour requirements, and reduced CO2 emissions into the atmosphere. Silica aerogels typically exhibit a longitudinal acoustic velocity on the order of 100 m/s, making them suitable for various applications in acoustic devices for noise insulation. Furthermore, aerogels boast the lowest refractive index and dielectric constant among all solid materials. FRP is regarded as superior to conventional steel due to its notable advantages, including exceptional corrosion resistance, high flexibility, and tolerance to misalignment. It is also lightweight, cost-effective to produce, easy to shape, and possesses high tensile and flexural strength. Furthermore, FRP exhibits elastic properties. By modifying the bonding agent used in FRP-adhesive-concrete interfaces, the strength from the FRP developed using the proposed technology can be enhanced by 12%, and its flammability can be improved from an unclassified level to achieving a V-0 rating under the standard UL-94. Previously, aerogel found limited use in small-scale applications within the aerospace industry. However, there is now a growing trend of employing aerogel for larger building-integrated applications, aiming to reduce energy consumption. This has sparked renewed interest from both start-ups and established insulation manufacturers. The technology itself is relatively straightforward, making it an attractive choice for building owners and architects seeking a simple solution to lower energy costs. By incorporating aerogel insulation, buildings can enhance their energy performance and provide improved comfort and satisfaction for occupants. Remarkably, this technology can be applied to various types of buildings, including HDB flats, shop houses, commercial and industrial buildings, as well as both landed and non-landed housing units. Moreover, its versatility extends to both existing structures and new construction projects. Looking ahead, aerogel insulation is poised to play a significant role in the future of green building materials. Its applications extend beyond buildings and encompass areas such as architecture, vehicles, aircraft, spacecraft, and marine insulation. Meanwhile, fire retardant fibre reinforced polymer (FRP) materials have emerged as a valuable solution for building retrofitting and structural strengthening applications, particularly in terms of fire safety. These materials combine the strength and flexibility of FRP with fire-resistant properties, making them an effective choice for enhancing the fire resistance of existing structures or strengthening them to withstand fire-related incidents. When applied to building retrofitting, fire retardant FRP materials can be used to upgrade the fire performance of structural elements such as columns, beams, slabs, and walls. This approach is particularly beneficial for structures that do not meet current fire safety codes or have aged fire protection systems. The unique value proposition of aerogel insulation materials lies in their exceptional thermal performance, lightweight nature, versatility, moisture management capabilities, enhanced comfort, longevity, and environmental sustainability. These qualities make aerogel insulation materials an attractive choice for a wide range of building applications, offering significant energy savings and improved building performance. The fire retardant FRP is able to enhance fire resistance, provide structural strengthening, resist corrosion, offer lightweight and space-efficient solutions, ensure flexibility and ease of installation, offer cost-effectiveness, and provide design versatility. These qualities make fire retardant FRP materials a compelling choice for improving the fire safety and structural integrity of buildings. Aerogel blanket, Thermal insulation, Acoustic insulation, Fibre reinforced polymer, Fire retardant Materials, Composites, Environment, Clean Air & Water, Biological & Chemical Treatment, Green Building, Façade & Envelope

Lithium-ion battery technology using graphite anode material is widely used in consumer electronics, electric vehicles and energy storage systems. However, for high-power, ultra-fast charge/discharge applications, e.g., regenerative braking in cars, electric buses, batteries for aircraft/marine sectors, graphite anode material is less preferred due to safety and performance limitations. Currently, lithium titanate oxide or LTO battery technology is one of the commercially available solutions for high power applications. LTO battery is a type of rechargeable battery that has a longer cycle life, faster charging and safer than conventional lithium-ion batteries. Despite these advantages, LTO battery is up to two times more costly than conventional lithium-ion batteries in the market, and has considerably lower specific energy density of about 60-110 Wh/kg than conventional lithium-ion chemistries, e.g., 90-165 Wh/kg for LFP and 150-270 Wh/kg for NMC.   The technology proposed by the Singapore-based research team relates to a method to synthesise a proprietary formulation of lithium-ion battery anode consists of mesoporous titanium dioxide (TiO2) material and robust LiMnFePO4 cathode. The research team's organisation holds patents related to synthesis of mesoporous TiO2 and LiMnFePO4 materials. This novel anode formulation for high power batteries is potentially able to reduce the production cost to about US$250 per kWh from US$500-600 per kWh for LTO, according to preliminary estimates by the team based on manufacturing capabilities in China. The cost reduction is derived from the use of cheaper TiO2 raw materials (vs. LTO) and the simple manufacturing process. The mesoporous TiO2 anode material can be integrated into existing manufacturing lines for lithium-ion cells without the need for new equipment. This TiO2 Li-ion cell chemistry offers inexpensive high power and safer battery technology. Using 18650 cylindrical cell of mesoporous TiO2 anode material with manganese-based cathode material, the cell achieved superior charging rate performance of up to 4C, energy density level of 70-100 Wh/kg and a cycle life of about 5,000 cycles, while retaining 80% of the initial capacity. The research team anticipated that the TiO2 cells will have up to 30% better energy density than LTO cell technology and 40-50% lesser cost than LTO technology. The research team is seeking industry partners to collaborate for a 5-10 kWh test bed project on a fast-charging application including uninterrupted power supply (UPS), regenerative braking and etc. The research team is able to tap on their in-house facilities to fabricate mesoporous TiO2 cells (21700 or 18650 format) using the novel anode formulation.   Cathode: LiMnFePO4 Anode: TiO2 Energy density: 70-100Wh/kg Charging: 3-4C in 15-20min Rapid pulse charging: 10-20C in 3-6min Discharging: 4-5C in 12-15 min Long cycle life: 5000 cycles No metal plating, no micro-shorting and no thermal runaway Lower cost than current high-power battery solutions in the market: estimated $250/kWh Relatively lesser supply chain issue hence easy to scale for market penetration Regenerative braking in cars, electric buses, aerospace and marine sectors Uninterrupted power supply systems in data centres or solar energy storage systems to address intermittency issues Depending on the type of applications considered, the market is segmented to different sectors including electric powertrain, aerospace/marine industries and energy storage systems. The global market for LTO batteries is expected to grow at a CAGR of 17.92% from 2022 to 2030. The growth of the market is driven by the increasing demand for LTO batteries in the aforementioned applications. Unlike the high-power battery solutions offered in the market, the proposed high-power battery technology solution is safe and inexpensive with moderate energy density, enabled by the mesoporous TiO2 anode material formulation. The team expected that the anode material formulation has relatively lesser supply chain issue thanks to abundance of its raw material, hence it is easy to scale up the technology for market penetration. Battery technology, High-power, Quick charging, Quick discharging, Long cycle life, Highly safe, Inexpensive, Regenerative braking, Aerospace/marine sector, Energy storage systems Energy, Battery & SuperCapacitor, Manufacturing, Chemical Processes