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2026.09.29Advanced And Green Process

Non-Precious Metal Electrode AEM Electrolysis Module

Existing Proton Exchange Membrane (PEM) Electrolysis modules rely on expensive precious metals (Pt, Ir) and non-eco-friendly fluorinated membranes. This technology optimizes the Anion Exchange Membrane (AEM) system by integrating hydrocarbon-based membranes and non-precious metals, achieving high-efficiency, low-cost hydrogen production.

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2026.09.29Advanced And Green Process

High-power Water-cooled Fuel Cell Stack Module

To address high-power fuel cell development hurdles, this technology provides large-area stacks tailored for logistics transportation. By integrating a composite fastening structure, low-flow-resistance channels, and high-airtightness sealing, the stack volume is reduced by 20%. The design delivers a high-efficiency output exceeding 65kW per stack, offering flexible scalability to meet diverse power demands.

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2026.09.29Advanced And Green Process

Direct Air-Cooled Metal Fuel Cell Stack Module

To meet long-endurance requirements for UAVs, this technology focuses on stack lightweighting and module optimization. Through component thinning and innovative sealing, the design effectively reduces system weight to maximize fuel capacity, significantly extending flight and operational time. The stack delivers a 1,450 W rated power with a power density exceeding 785 W/kg, achieving high-efficiency power output.

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2026.09.29Advanced And Green Process

High-Power Automotive Fuel Cell Systems

Driven by 2050 Net-Zero targets, vehicle electrification is a pivotal trend. For applications requiring long endurance and long-haul transportation, hydrogen fuel cell systems offer high efficiency and zero emissions, providing the optimal power solution for future long-range commercial vehicles.

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2026.09.29Advanced And Green Process

High-efficiency Low-cost AEM Electrolyzer

Transitioning from a petroleum to a hydrogen economy requires low-cost, low-carbon H2 production to achieve 2050 Net-Zero goals. Anion Exchange Membrane Electrolysis (AEMEL) offers significant advantages, including the use of nickel-based catalysts, simplified system architecture, and rapid response to renewable energy. This technology provides low-carbon hydrogen for high-value chemicals and enables renewable energy grid balancing.

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2026.09.29Advanced And Green Process

Mobile Hydrogen Power System

In response to grid outages caused by natural disasters or off-grid remote environments, our Mobile Hydrogen Power System provides rapid, tactical backup power. Featuring an easy-swap cylinder design for quick refueling, it delivers a stable, long-endurance, and silent green energy solution that is easy to deploy anywhere.

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2026.09.29Advanced And Green Process

Long-endurance Fuel Cell UAV

Limited flight endurance and payload capacity remain critical bottlenecks for conventional electric UAVs. By integrating fuel cell technology, we deliver 3x the endurance of equivalent-weight lithium batteries. This high-energy, zero-emission power solution significantly enhances payload specifications, unlocking new possibilities for professional UAV applications.

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2026.09.29Advanced And Green Process

Carbon Nanofluid Multi-loop Pulsating Heat Pipe

Traditional heat pipes require specific layouts based on heat source location, limiting their adaptability across different equipment. They also demand stricter operating conditions, including elevated evaporation temperatures and pressures. With thermal conductivity ranging from 10,000 to–15,000 W/m·K, they are insufficient for managing heat in high-power systems.

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2026.09.29Advanced And Green Process

Nano-metal Heat Dissipation Layers Technology

Traditional metal thermal materials tend to flow under gravity when applied in non-horizontal orientations, and common heat sink materials like copper and aluminum struggle to conform to curved or irregular surfaces. This technology integrates graphene and liquid metal as a thermal interface material, ensuring strong adhesion. With thermal conductivity reaching up to 120 W/m·K—far exceeding the 10–50 W/m·K range of conventional materials—it significantly improves cooling performance for high-power applications, enhancing both stability and longevity.

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2026.09.29Advanced And Green Process

High Efficiency Microwave Heating Technology

For precision heating requiring precise temperature control, electric or indirect combustion heating is commonly used, resulting in higher pollution and prolonged heating cycles. Microwave heating technology allows the wavelength to directly penetrate and heat the material, leading to localized temperature increases, reduced annealing temperatures for semiconductors, and shorter times to reach target temperatures.

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2026.09.29Advanced And Green Process

Energy Storage Graphene Supercapacitor

Supercapacitors, a type of energy storage component that is safer, more durable, and capable of faster charging and discharging than lithium batteries, typically have lower voltages (2.7V). Our institute's versions, made with 'plasma synthesized graphene, reach higher voltages (4V), increasing energy density and reducing the module size by over 50%.

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2026.09.29Advanced And Green Process

High-aspect-Ratio TGV（Through Glass Via）Filling Technology

Utilizing advanced all-wet metallization and low-additive electroplating processes, this technology overcomes conventional limitations in high-aspect-ratio filling, bath stability and thin-glass reliability. It delivers highly uniformity, low-defect TGV substrates with mass production capability. Supporting large-area panel sizes (310 × 310 mm & 510 × 515 mm), this solution significantly improves filling efficiency while reducing the processing time of chemical mechanical planarization (CMP).

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2026.09.29Advanced And Green Process

High-sensitivity Tactile Perception for Multi-DoF Robotic Hands

As the demand for intelligent services grows, robotic hands capable of human-like manipulation and tactile sensing have become essential. Most commercial products still rely on rigid structures with low degrees of freedom (DoF) and limited tactile integration, making it difficult to perform tasks such as compliant grasping, slip detection and precision force control. To overcome these challenges, we have developed a high-DoF robotic hand that seamlessly integrates advanced tactile sensing and control.

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2026.09.29Advanced And Green Process

Microfluidic Control Technology

Biochemical and biomedical applications currently suffer from excessive reagent and sample consumption, inefficient reaction and transport processes, extended processing times and bulky non-portable equipment. To overcome these challenges, ITRI has developed advanced microfluidic technologies utilizing microchannels and optimized designs to increase surface-to-volume ratios, enhance mass and heat transfer, reduce the consumption of costly reagents and rare samples as well as improve testing efficiency.

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2026.09.29Advanced And Green Process

Plasma Simulation and Plasma Detection Technology

In plasma processes for nanoelectronic devices, ion energy and flux density dominate etching anisotropy, film density, process efficiency and uniformity. However, parameter optimization is hindered by a lack of real-time diagnostics and multi-physics coupling simulations. Our wafer-based plasma sensing and diagnostic technology replaces inefficient offline analysis with in-situ, real-time monitoring. This accelerates equipment validation while significantly enhancing production stability and yield for advanced technology nodes.

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