This is a multi-faceted integrated vacuum deposition equipment designed to research, develop, and produce initial prototypes of ultra-small LED chips (each measuring 100 μm or less) that are the core of high-resolution, high-efficiency Micro LED displays. Unlike typical large-scale mass production lines, it features a compact structure optimized for laboratories and pilot lines, while being capable of forming high-quality thin films without contamination between modules.
Features
Prevention of interfacial contamination through in-situ processes: During electrode deposition after mesa etching or thin film deposition after cleaning, the substrate is transported while maintaining an ultra-high vacuum state without being removed to the atmosphere, thereby completely preventing device performance degradation caused by surface oxidation or moisture adsorption.
Process Flexibility: The chamber configuration can be modified to suit research and development purposes, or new modules (e.g., cells for organic material deposition) can be added for future expansion.
Space and Cost Efficiency: Compared to large-scale mass production cluster equipment, it has a smaller footprint, allowing for deployment within limited laboratory space. Furthermore, it is optimized for small-volume wafer processing, enabling reduced running costs.
Overview
This is a multi-faceted integrated vacuum deposition equipment designed to research, develop, and produce initial prototypes of ultra-small LED chips (each measuring 100 μm or less) that are the core of high-resolution, high-efficiency Micro LED displays. Unlike typical large-scale mass production lines, it features a compact structure optimized for laboratories and pilot lines, while being capable of forming high-quality thin films without contamination between modules.
Features
Prevention of interfacial contamination through in-situ processes: During electrode deposition after mesa etching or thin film deposition after cleaning, the substrate is transported while maintaining an ultra-high vacuum state without being removed to the atmosphere, thereby completely preventing device performance degradation caused by surface oxidation or moisture adsorption.
Process Flexibility: The chamber configuration can be modified to suit research and development purposes, or new modules (e.g., cells for organic material deposition) can be added for future expansion.
Space and Cost Efficiency: Compared to large-scale mass production cluster equipment, it has a smaller footprint, allowing for deployment within limited laboratory space. Furthermore, it is optimized for small-volume wafer processing, enabling reduced running costs.