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Due to mixed collection and inadequate sorting, many recyclables cannot be effectively recovered and end up being landfilled or incinerated. While reverse vending machines address some of these issues, these solutions are often costly, provide limited brand-level data insights, and deliver a suboptimal consumer experience. This technology aims to significantly improve recycling rates by overcoming these limitations. The technology on offer is an AI- and IT-enabled circular economy platform that integrates smart collection bots, digital product passports, and cloud-based traceability to achieve precise material separation and full resource transparency. Cost-effective and fully customizable, this technology enables the efficient management of diverse recyclable streams while ensuring a stable supply of high-quality recycled raw materials. This scalable platform is well-suited for local governments, retailers, and corporations seeking to strengthen recycling infrastructure and advance environmental goals. The technology owner is seeking co-development and test-bedding opportunities in Singapore to pilot its smart recycling and traceability platform, supporting the transition towards a circular economy. The technology is an integrated solution that combines hardware (resource collection robot and IoT sensors) and software (AI-optimised lightweight image recognition and cloud-based integrated control system). Key features include: Achieves 80% efficiency (4 times higher than conventional methods) of pre-sorting of plastics, metals, glass, paper and textiles Modular design that significantly cuts manufacturing costs by up to 50% over existing systems Provides real-time monitoring, remote control, and integrated features like waste discharge prediction and route optimisation (under development) to boost operational efficiency and reduce costs for collection vehicles Fully customisable to cater to different customers’ requirements e.g., able to integrate digital passports for collected passports, gamification and in-app reward scheme, dashboarding for full visibility etc Affordable deployment which makes it scalable for large networks of collection points Low maintenance costs This technology has been successfully demonstrated with retailers in South Korea through ongoing consumer recycling projects. It is applicable across diverse sectors, including environmental management, smart city development, retail operations, and sustainable manufacturing. Potential applications include (but not limited to): AI-based resource collection robots for accurate sorting of recyclables Reusable cup collection systems to support circular F&B operations Integrated control platforms with real-time monitoring and route optimization High-quality recycled resource distribution for processing and manufacturing Carbon credit trading platforms to support ESG and sustainability goals This technology is well-positioned to capitalise on the growth of recycling and smart city initiatives by addressing critical gaps in the recycling ecosystem. Its cost-efficient, AI-based pre-sorting capabilities overcome persistent inefficiencies in waste collection and sorting, while its flexible profit-sharing model lowers financial barriers for partners and accelerates adoption.  Cost-efficient design enabled by modular hardware and lightweight AI models, reducing capital and operating costs. High sorting efficiency (up to 80%), ensuring a stable supply of high-quality recycled resources. Integrated IoT and cloud-based system for smart control, real-time monitoring, and optimisation within smart city ecosystem circular economy, AI, resource collection, robot, waste management, recycling, smart city, data, ESG goals, sustainability, smart recycling Infocomm, Artificial Intelligence, Environment, Clean Air & Water, Mechanical Systems, Waste Management & Recycling, Automation & Productivity Enhancement Systems, Sustainability, Circular Economy

In Singapore, more than 30,000kg of okara are generated from soya milk and tofu production. Due to the high amount of insoluble dietary fibre and a unique, poignant smell of okara, it is often discarded as a waste product. Despite okara's low palatability, it is rich in nutrients such as protein, fibre and isoflavones. By replacing fishmeal with okara, an local higher institute of learning has developed a nutritious yet cost-effective formulation in the feed of L. Vannamei shrimps. Besides reduced overall cost of shrimp meals, the conversion from okara to shrimp meal significantly reduces the amount of organic waste to landfills and promotes economic viability, giving okara a second life. This circular economy model creates a symbiotic relationship between two industries. The formulation can potentially be adapted and customised for other aquatic species. The technology provider is seeking to work with shrimp farmers to run larger trials. This shrimp feed technology utilises okara, a soy processing by-product, as the primary protein source to replace expensive fish meal in commercial shrimp feeds. It employs heat treatment and solid-state fermentation using food-grade yeast to eliminate anti-nutrients (trypsin inhibitors, lectins) and enhance protein bioavailability in okara. Okara contains the following beneficial nutrients which directly impacts shrimp feed: 50% insoluble fibre ~25% protein 10% unsaturated fats Isoflavones Vitamins and minerals Okara is used as a cost-effective feed for high-demand L.Vannamei shrimp, a commonly consumed shrimp species in Singapore. Shrimps fed with okara-based feed showed a comparable growth rate with the group fed with commercial diet. In comparison, the okara-based feed are cheaper to make than commercial feed used in the industry. There is potential for okara to be included in feed of other aquatic species such as mollusc and fish. An okara-based feed for abalone has also been developed. An alternative nutrient source for animal feed allows sustainability of food supply and reduction of food waste. A cost-effective plant-based functional ingredient, lowering costs of feed for aquaculture farms. Nutritional composition can be tailored to different species. Increased length and weight growth as compared to commercial feed. Okara, Feed Formulation, Shrimp Feed Sustainability, Circular Economy

This invention addresses a major yet often overlooked issue in hearing healthcare: earwax buildup, the leading cause of hearing device malfunction and poor sound clarity. Earwax clogs receivers and earmolds, reducing sound quality, causing discomfort, and leading to costly repairs or replacements. The problem is particularly acute among elderly users, who may struggle with manual dexterity and find it difficult to clean devices properly, as well as among caregivers, who often lack reliable tools for hygienic cleaning. Current solutions-such as manual brushes or basic filters-are largely ineffective against hardened or internal wax. Moreover, some automated systems reuse cleaning fluids, and their performance can vary depending on the degree of wax accumulation, device design, or user maintenance. This technology introduces an automated cleaning system that employs a multi-step process - including fluid cleaning, brushing or shaking, rinsing, and drying-combined with single-use solution and UVC disinfection to ensure safe, hygienic, and thorough cleaning. It restores near-original sound clarity, reduces the need for clinic visits, prevents device damage, and supports better ear health. This technology offers improved convenience and longer device durability for hearing aid users, caregivers, audiology clinics, hearing aid service centers, and device manufacturers. To further advance and scale adoption, the technology owner is seeking R&D collaborators, application partners such as nursing homes for real-world validation, B2C partners for commercialization and bundling, and adopters beyond healthcare who can apply it as a cleaning platform or service. This technology combines fluid dynamics, controlled agitation, disinfection, and drying in a compact, user-friendly system for hearing aids and earmolds of various types and materials. It effectively removes both surface and embedded earwax—whether soft or hardened—ensuring thorough and reliable cleaning. Key Features Multi-Step Cleaning Cycle: Soaking, mechanical agitation, rinsing, and drying, offering superior effectiveness against hardened and internal wax compared with competitor products. Dual-Chamber Cleaning: Independent left and right chambers prevent cross-contamination, addressing a common limitation of single-chamber systems. Dual-Cycle Modes: Choice of a full clean or a quick dehumidify-plus-disinfection cycle, saving time while maintaining hygiene. Single-Use Cleaning Fluid: Disposable cleaning solution with a separate rinse tank ensures fresh cleaning every cycle and eliminates wax recontamination. UV-C Disinfection: Integrated medical-grade UV-C light adds an extra layer of microbial protection. Elderly-Friendly Design: One-button operation, a simple interface, and an ergonomic design optimized for ease of use in daily routines. With its initial application in hearing healthcare, the underlying technology also has cross-industry relevance wherever miniature and delicate devices are susceptible to wax, dirt, or microbial contamination. Primary Industry – Hearing Healthcare: Cleaning receiver-in-canal (RIC), behind-the-ear (BTE), and custom hearing aids, where earwax remains the leading cause of device failure. Adjacent Industries and Applications – Consumer Electronics: Earbuds, AirPods, and other in-ear devices that face similar contamination challenges. The system offers several advantages that set it apart from existing solutions: Fully Automatic Operation: Users only need to press the start button; the system runs autonomously and alerts the user once cleaning is complete. Integrated Cleaning Platform: A proprietary system that combines dual-chamber cleaning with a 2-in-1 mode offering both a full cycle and a shortened dehumidification/disinfection cycle. Competing products typically offer only a full cycle, which is more time-consuming. Proprietary Cleaning Solution: Single-use, hygienic cleaning fluid with rinse tanks designed to prevent recontamination. Validated Performance: The prototype has been tested in laboratory conditions with over 500 successful hearing aid cleaning cycles and has begun initial clinical validation with a partner clinic. Earwax Removal, Autocleaning Device, Cleaning Solution for Earwax Healthcare, Medical Devices

The key challenges in beverage service include labor shortages, 24/7 demand, and strict hygiene requirements. Workforce Singapore has reported a persistent shortage of workers for lower-skilled roles in the food services sector, increasing manpower costs and limiting operating capacity. At the same time, consumer expectations in Singapore increasingly reflect a “24-hour service culture,” with businesses expected to provide convenience beyond traditional operating hours.   This technology is an intelligent foodtech robot that automates beverage preparation, order management, and customer interaction, delivering safe, consistent, high-quality drinks at any time with minimal human input. Its system can detect spills and reroute to prevent disruption, and its imitation learning capability allows it to acquire new workflows and recipes from virtual demonstrations by human, supporting adaptability and productivity as service requirements evolve.   The technical specifications and features of the solution are as follows:  Design: Modular architecture supports both compact kiosks and larger counter installations Robotic Manipulation: Safety-certified collaborative arm with adaptive end-effectors for cup handling, pouring, and capping Perception System: Vision cameras with flow and thermal sensors enable precise liquid handling and real-time monitoring  AI Intelligence Stack:  Imitation Learning: Continuously captures and converts human tele-operation data into motion policies, allowing the robot to learn new recipes or routines without manual reprogramming Physical AI: Closed-loop integration of perception, reasoning, and actuation for safe, adaptive, human-like behavior in dynamic environments Digital Twin: Cloud-based simulation allows offline validation of recipes, motion sequences, and layouts configuration prior to deployment, reducing downtime and accelerating commissioning Performance: 60–120 drinks/hour with ±2–3 mm placement accuracy and taste consistency (SD <5%) User Experience: Multi-language kiosk and mobile interface, transparent preparation process, and engaging display animations The technology has been tested in office cafés, hotels, and boarding schools, offering a cost-efficient alternative to manned F&B and hospitality businesses. Future opportunities include deployment in service facilities, smart “robot buildings,” and even domestic environments, where robots must safely and naturally collaborate with people. The invention begins by solving urgent needs in F&B, but its architecture and learning framework position it to expand into a wide range of human-centered service applications once the intelligence matures.  This invention stands out from conventional café operations and existing automation systems by delivering:  Adaptive and Future-Ready Operations: Continuously improves performance and adapts to new recipes, menu updates, and workflow changes through intelligence AI, ensuring long-term relevance in dynamic food and beverage environments.  Human-Centric Operation: Unlike traditional back-of-house automation, the robot operates safely in shared spaces, creating an interactive, transparent, and inclusive experience that delights customers and builds trust.  Operational Scalability and Reliability: With a modular footprint and digital twin validation, the robot supports flexible deployment across varying space and demand scenarios, with self-diagnostics, predictive maintenance, and real-time monitoring ensuring reliable, uninterrupted operation.  Intelligent Foodtech Robot, Service Robotics, Food & Beverage Automation, Imitation Learning, Physical AI, Human-Robot Interaction, Digital Twin Simulation, Multimodal Perception, Autonomous Beverage Preparation Infocomm, Robotics & Automation, Foods, Processes

The aquaculture industry is facing rising costs of conventional feed. Premium protein sources such as fishmeal and fish oil are highly price-volatile due to fluctuating supply and demand, and reliance on imported feed further increases costs. Another key challenge is the growing volume of food waste. A survey of local food processing companies conducted between August 2022 and June 2023 identified approximately 174,300 tonnes of homogeneous food waste, highlighting the scale of the problem.  This technology offers a sustainable aquafeed solution by converting by-products from soy sauce production, fish processing, and bread waste into nutritionally balanced feed for tilapia (O. niloticus), maintaining optimal growth performance while reducing dependency on conventional, expensive feed ingredients.  The technical specifications and features of the solution are as follows:  Processing: Transforms readily available soy press cake, fish processing waste and bread into aquafeed through low-shear mixing, fermentation, spheronization and pelletization.  Formulation: Provides feed formulation designed specifically for tilapia, incorporated with essential proteins, amino acids, carbohydrates, lipids, vitamins, and minerals.  Pellet properties: Produces water-stable sinking pellets with enhanced physical stability and controlled nutrient leaching properties  Quality control: Ensures consistency through physical profiling, nutritional analysis  This feed has been formulated for tilapia, but is open to reformulation to allow opportunities in: Feed for other types of fish species Ingredient for further development of fish feed Development of feed for other animals whether it is farm or pets Upcycling of food waste into higher value products  Accelerate the R&D cycle and start with a proven sustainable aquafeed formulation that delivers better growth at a lower price Reduces feed costs through the utilisation of low-cost waste ingredients Supports circular economy by converting food waste into valuable resources Provides nutritionally complete feed specifically formulated for tilapia Contributes to meeting sustainable certification standards like ASC (Aquaculture Stewardship Council) or BAP (Best Aquaculture Practices) Sustainable Aquafeed, Food Waste Valorisation, Tilapia Feed, Circular Economy, Waste-to-feed, Aquaculture Sustainability Waste Management & Recycling, Food & Agriculture Waste Management, Sustainability, Circular Economy

The agriculture sector faces a double challenge: rising animal feed costs and unsustainable food waste management. For many livestock farmers, feed accounts for up to 70% of operating costs, with heavy reliance on volatile imports like soybean meal, corn, and fish meal. At the same time, the food and beverage industry generates millions of tons of nutrient-rich by-products such as okara, spent grain, and fish offal, much of which is discarded—causing methane emissions and environmental harm. This technology provides a circular solution by converting high-moisture food waste into stable, high-value livestock nutrition. Through an innovative bio-conversion process, nutrient-rich by-products are rapidly transformed into a low-moisture, shelf-stable feed enriched with beneficial microorganisms. The resulting feed not only reduces dependence on imported raw materials but also supports animal health and productivity. Compared with insect protein or traditional heat-drying, this approach is faster, more energy-efficient, and scalable across both rural and industrial contexts. The technology directly lowers feed costs for farmers by 5–20%, creates new revenue streams from food waste, and cuts greenhouse gas emissions by up to 2 tons of CO₂e per ton diverted, while requiring only low CAPEX and minimal investment for setup. The technology owner seeks collaboration with IHLs, research centres, F&B/waste management players, and deep tech IoT companies for R&D, licensing, and test-bedding opportunities. Biological Processing System – Combines proprietary enzymatic treatment with lactic acid fermentation to upcycle high-moisture food waste (e.g., spent grain, okara, fish offal) into protein-rich livestock feed. Moisture Reduction – Rapidly reduces water content from >90% to <20% without relying on energy-intensive dryers. Nutrient Stabilization – Fermentation inhibits pathogens, preserves nutrients, and generates probiotic compounds that enhance gut health and feed efficiency in animals. Simple, Modular Infrastructure – Operates with accessible equipment such as hydraulic presses, fermentation tanks, and drying racks. Scalable Deployment – Suitable for decentralized rural applications as well as larger industrial facilities. Animal Feed Industry – Provides cost-effective, sustainable alternatives to soybean meal, corn, and fish meal for poultry, swine, and aquaculture. Food & Beverage Industry – Valorization of by-products from breweries, tofu factories, slaughterhouses, and seafood processors. Waste Management Sector – Supports municipalities and private waste handlers in reducing landfill loads and methane emissions. Climate & Carbon Credit Market – Enables monetization of waste diversion and reduced GHG emissions through carbon credits. Current alternatives for sustainable feed—such as insect farming, algae cultivation, or heat-based drying—face significant limitations in cost, scalability, and energy intensity. Traditional feed milling remains dependent on volatile global commodities like soybean meal, corn, and fish meal, while insect-based systems require weeks-long growth cycles and yield high-moisture biomass that is difficult to scale. Heat-drying of by-products, meanwhile, demands high capital and energy input, restricting use in rural or resource-limited settings. This technology overcomes these challenges by combining a rapid, low-energy bio-conversion process with lactic acid fermentation to produce stable, probiotic-enriched feed directly from food industry by-products. The result is a circular, climate-smart solution that: Cuts feed costs by 5–20% through local waste valorization. Removes reliance on energy-intensive dryers, enabling deployment in rural and developing regions. Boosts animal health and productivity with probiotic-enriched feed. Reduces carbon emissions, with each ton of waste diverted avoiding 1.5–2 tons of CO₂e. Supports modular, decentralized production, creating resilience and local economic value. Sustainability, Food Security

Given the importance of English as the international language of business, many Asian professionals and workforces still face a significant proficiency gap compared to their Western counterparts. They often encounter difficulties in three key areas: 1) understanding technical nuances, 2) drafting documents such as proposals and agreements, and 3) comprehending the diverse range of English accents found in regions like Korea, China, Japan, India, and Singapore. To address these challenges, our technology offers an e-learning platform that provides individuals and teams with a structured approach to complex business negotiations. It features standardized templates and conversational expressions to guide users effectively. This solution tackles common pain points, including inconsistent preparation, inadequate documentation, and a lack of analytical tools, which often result in suboptimal agreements. The system delivers step-by-step workflows for identifying stakeholders, defining negotiation objectives, evaluating leverage, and formulating strategies. It incorporates analytical modules for SWOT analysis, Position/Interest (P/I) analysis, Zone of Possible Agreement (ZOPA) estimation, and the development of alternative options. By integrating scenario-based logic with standardized templates, the platform empowers users to enhance their negotiation preparation, ensure consistent decision-making, and track outcomes effectively. The primary target adopters include corporate procurement teams, business development units, IP licensing managers, and international traders who are committed to building advanced negotiation skills. The technology is a software-based platform featuring interactive modules for negotiation planning, documentation drafting, and performance evaluation. Its core functions include: Stakeholder Identification and Role Mapping Strategic Analysis Tools (e.g., SWOT and Leverage Analysis) Objective Setting with quantifiable targets Term Sheet Creation for various agreement types, including technology, trademarks, software, copyright, and international trade Scenario Simulation and alternative option (BATNA) development Built-in Evaluation Metrics for self-assessment and performance tracking This platform serves as a comprehensive English-negotiation learning tool. It is accessible via a ubiquitous, internet-connected environment and offers customized coaching with authentic business English content. Each user follows a personalized study map to ensure structured skill development. The platform bridges the gap between academic theory and real-world execution, making it equally effective for training and live negotiation scenarios. It is designed for industries where structured negotiation is critical, including international trade, IP licensing, corporate procurement, M&A, and government contracting. Practical applications include preparing for IP transfers, vendor contracts, distribution agreements, and strategic partnerships. Additionally, the platform serves as a powerful corporate training tool to systematically build negotiation competency across an organization. Cross-border negotiations are inherently complex, involving multiple stakeholders, divergent regulatory frameworks, and cultural differences. This complexity is magnified within an open innovation paradigm, where companies collaborate with external partners such as startups, universities, research institutes, and even competitors. A survey conducted by DeltaTech-Korea Ltd. underscores the need for structured training in this area, revealing that 69% of respondents are keen to learn business negotiation skills through an e-learning platform. This demand is primarily driven by challenges in aligning different business goals, establishing clear IP ownership, and navigating varied decision-making processes. Unlike conventional ad-hoc negotiation methods or generic project management tools, our platform provides a specialized, end-to-end negotiation framework. It uniquely combines analytical rigor—delivered through built-in strategic tools—with practical execution support via structured templates and progress tracking. This integration ensures alignment between strategic preparation and tactical execution, thereby minimizing the risk of oversight and fostering consistent, measurable improvement in negotiation outcomes. Infocomm, Educational Technology

Manufacturing with plastics, particularly thermoset and thermoplastic resins, has long been constrained by inefficient and energy-intensive heating methods. Current practices rely on large ovens, autoclaves, or surface heating techniques using gas or electric conduction. These approaches not only consume significant energy but also require prolonged processing times and manual interventions, limiting scalability and automation. This technology bridges induction heating into plastics for the first time.  This creates opportunities for automated, energy efficient manufacturing of thermoset (epoxy/urethane) or thermoplastic resins not possible through other surface heating methods. This disruptive manufacturing technology allows volumetric heating of plastic parts required in automotive, sports, and green energy sectors. Non-contact, volumetric heating occurs through incorporation of specially designed ceramic particle additives. The additives convert magnetic fields to heat for activation of adhesives, coatings, or melting of thermoplastics. This technology replaces inefficient fabrication methods such as energy intensive ovens, autoclaves, and surface gas/electric conduction-based heating. Induction provides remote activation, real-time feedback, and external digital manipulation for a new paradigm of assembly design intents. This innovative transformation removes laborious manufacturing methods and aligns with current goals of energy efficiency and long-term sustainability.  The technology owner is actively seeking R&D collaborations, licensing partnerships, and IP acquisition opportunities with manufacturing companies in adhesives, sporting goods, and automotive manufacturing. Induction technology for plastic manufacturing allows instantaneous heating. Additive technology exploits particles that convert magnetic fields to heat.     Impart remote, on-demand activation of adhesives through other materials.  Integrates with automated assisted manufacturing, in-line productions. Provides real-time processing feedback, with a 50 - 300°C temperature range. Heating gradients of 0.1 - 2°C per second gradients achievable. Technology can be used for both bonding and later debonding. Applicable to plastics, adhesives, coatings, rubbers. Additive technology, no re-formulation required for proprietary resins. Ceramic additives, chemically inert, stable to 600ºC. Shoes & Foams: Precise activation of adhesive films as specific stations Paints & Coatings: Non-contact curing/drying of resins 0.1 – 5 mm thick. Composites & Laminates: Instantaneous curing/melting of parts 1 – 50 mm deep. Complex Assembly: Bonding of internal substrates after assembly. New Process: Design and separation of independent fabrication procedures. Energy efficient technology can reduce kwh usage by 5 – 10-fold. Target resin/material temperatures are set in seconds to minutes. Reduces manufacturing labour, fabrication time & energy. Allows through space heating of plastics/resins with no line-of-site required.  Additives/magnetic field exposure poses no danger to human health. nanoparticles, induction curing additives, volumetric heating Chemicals, Coatings & Paints, Additives

The rapid growth of IoT and automation across industries has transformed operations with real-time monitoring and intelligent decision-making. However, ensuring a reliable power supply remains a major challenge, as frequent battery charging or replacement drives up costs, causes downtime, and impacts sustainability, underscoring the need for innovative energy solutions.  This technology generates reliable, event-based electrical pulses directly from motion or changes in magnetic fields. Unlike batteries, which require periodic replacement, or more familiar energy harvesters that rely on environmental conditions such as light or vibration, this approach provides a consistent and maintenance-free energy source triggered by movement. The pulses can power ultra-low-energy electronics including microcontrollers, sensors, and wireless transmitters, enabling truly autonomous IoT systems. This makes it possible to deploy sensors and monitoring devices in locations where battery access or replacement is impractical, such as sealed enclosures, remote installations, or industrial equipment. The solution addresses the growing need for sustainable alternatives to batteries in IoT, offering cost savings, improved reliability, and reduced environmental impact. This technology has use cases in rotary acuators. The technology owner is looking to co-develop this technology and test bed on more use cases with partners who design and manufacture IoT/other devices. Other potential partners could be system integrators or end users looking to customise product development for scale. This technology consist of sensors can be triggered by alternating magnetic fields caused by different types of motion - rotational, linear, ferromagnetic proximity or electromagnetically. The trigger results in the production of consistent pulses, which can be easily registered and counted. Electromagnetic generation: At the heart of the technology is a compact magnetic component that produces a sharp voltage pulse each time the surrounding magnetic field changes polarity. It produces 9 μJ of energy per pulse/magnetic event with a triggering field of 6-8mT. This effect provides both energy generation and event detection in a single mechanism. The pulses are high enough to charge capacitors, which then power low-energy devices or wireless transmission modules.  No moving mechanical parts: Unlike other electromagnetic solutions, it does not contains moving mechanical parts with no additional springs or vibrating levers required to compensate for slow magnetic field changes. This eliminates wear and tear while ensuring a consistent amount of energy per movement event, regardless of speed. Campatible with non-volatile memory and wireless communication modules: Enable event-driven data logging and transmission. Compatible with rotary and linear motion systems: Its modular design allows flexible integration into both rotary and linear motion systems, making it adaptable across a wide variety of applications.  The technology can be applied wherever long-life, maintenance-free IoT sensing is required, including: Manufacturing and industrial condition monitoring in rotating or moving machinery Smart meters and utility systems requiring sealed or inaccessible enclosures Building automation devices for access monitoring and energy management Logistics tracking and supply chain monitoring of motion or environmental events Remote agricultural and environmental sensors in hard-to-reach areas Healthcare devices using lower frequency electromagnetic waves that can be transmitted through the skin without any damage to human tissue  The rapid growth of IoT is constrained by the limitations of batteries, including cost, maintenance, and environmental impact. Energy harvesting technologies are increasingly sought to overcome these barriers. This approach stands out by providing compact, motion-driven power generation that is reliable, consistent, and independent of ambient conditions. Its dual function of powering devices while simultaneously detecting events offers unique design and cost advantages over conventional solutions. Stable, event-based energy output at irregular motion speed: Compared with vibration or inductive harvesters, the technology produces stable energy output even at low or irregular motion speeds. Its ability to simultaneously harvest energy and detect events reduces the need for additional components, simplifying designs and lowering costs. This makes it an ideal enabler for sustainable, scalable IoT deployments. Battery-independent operation: This technology offers significant advantages over battery-based systems by eliminating the need for replacement or recharging. Low maintenance costs: System lifetimes are extended, and devices can be deployed in sealed or remote environments without concern for accessibility.   electronics, energy, environment, green building, agritech, logistics, manufacturing, smart cities, IoT Energy, Waste-to-Energy, Electronics, Actuators, Manufacturing, Assembly, Automation & Robotics, Infocomm, Internet of Things