Next-Generation Electronics Industry Innovation Through ACENANO Technology
The electronics industry demands smaller, faster, and more energy-efficient devices, and nanotechnology has become a key factor in making this possible. Conventional semiconductor and electronic materials face challenges such as integration limits, heat generation, and reduced durability, making the adoption of innovative technologies essential.
Our Top-Down Nano technology can process natural substances into uniform nano powders with particle sizes of 30–900 nm (D50 or higher)
without altering their original taste, aroma, or color, and provides technology that can precisely classify them to the desired particle size afterward.
When applied to the electronics industry, it can bring innovative results across various fields, including improved semiconductor device performance, increased display durability, enhanced battery efficiency, and faster data processing speeds.
| Nano Ultra-High-Speed Semiconductors and Data Processing | Existing Problems |
| Conventional silicon-based transistors have reached the limits of miniaturization, and as circuit density increases, heat generation and power consumption also increase. Higher data processing speeds require smaller and faster transistors, but conventional materials face clear limitations. | |
| Effects of Applying Nano Solutions | |
| By utilizing nanoparticle-based semiconductor devices, transistors can be manufactured at ultra-fine sizes below 10 nm, improving data processing speed compared to conventional technologies. By applying carbon nanotube (CNT) and graphene transistors, it is possible to achieve up to 100 times faster computing performance while minimizing power consumption. Nano insulating layer technology can reduce power loss and increase semiconductor durability. |
| Flexible Displays and Wearable Electronics | Existing Problems |
| Conventional displays are based on glass materials, making them heavy, vulnerable to impact, and lacking flexibility. Wearable electronics such as smartwatches and AR/VR devices have low durability and are easily damaged. | |
| Effects of Applying Nano Solutions | |
| Flexible displays using nano coating technology can enhance flexibility and strength, enabling the realization of ultra-lightweight, shatter-resistant displays. When nano waterproof coating is applied to wearable electronics, it can protect products from sweat, moisture, and dust, extending product lifespan. By using ultra-thin nano materials such as transparent conductive films, flexible touchscreen displays can be produced, enabling the development of lighter and more powerful products. |
| Nano-Based Batteries | Existing Problems |
| Lithium-ion batteries have slow charging speeds, short lifespans, and safety issues caused by heat generation. Conventional batteries have low power density, limiting the usage time of electric vehicles, smartphones, drones, and other devices. | |
| Effects of Applying Nano Solutions | |
| By using nano-structured electrode materials such as graphene and silicon nanowires, energy storage capacity can be increased up to three times compared to conventional lithium-ion batteries. When nano solid-state electrolytes are applied, charging speed can be improved up to five times compared to conventional lithium batteries, while reducing heat generation and minimizing the risk of explosion. Nano supercapacitors capable of ultra-fast charging can also be developed, maximizing the performance of smart devices and electric vehicle batteries. |
| Quantum Dot Technology – Next-Generation Display Innovation | Existing Problems |
| Conventional LED and OLED displays have limited color reproduction and low light efficiency, resulting in high power consumption. Long-term use can cause color distortion and screen burn-in. | |
| Effects of Applying Nano Solutions | |
| Quantum dot-based displays can improve color reproduction by more than 30% compared to conventional OLED displays, enabling brighter and more vivid colors. Ultra-low-power displays using nano light-emitting materials can be developed, reducing energy consumption by 50% compared to conventional LEDs. When high-durability nano coating is applied, burn-in can be minimized and display lifespan can be extended. |
| Development of Ultra-Precision Electronic Devices Using Nano Sensors | Existing Problems |
| Conventional sensors are large in size, have low measurement precision, and respond slowly. It is difficult to develop ultra-fine sensors that can be applied to compact electronic devices. | |
| Effects of Applying Nano Solutions | |
| When nano-based acceleration sensors and nano gyroscopes are applied, motion detection accuracy in smartphones and electronic devices can be improved by up to 10 times. Nano biosensors can strengthen health monitoring functions in smartwatches and healthcare devices. By applying nano pressure sensors and touch sensors, the sensitivity and precision of touchscreens and electronic devices can be enhanced. |
ACENANO’s Top-Down Nano technology can be applied across various areas of the electronics industry, including semiconductors, displays, batteries, sensors, and wearable devices, enabling the development of faster, smaller, and more efficient electronic devices.
Through ultra-fine nanoscale processes, transistor performance is maximized, enabling low-power semiconductors that dramatically increase data processing speed while minimizing power consumption.
By applying specialized nano coating technology, it ensures display flexibility while providing strong durability and surface protection that remain stable even after repeated bending.
By optimizing ion transport pathways using nano materials, we develop high-capacity batteries that shorten charging time by more than five times compared to conventional batteries and stably store more energy.
Through nanoscale quantum dots, it achieves near-perfect color reproduction close to natural colors and enhances light efficiency, creating an eco-friendly display that dramatically reduces energy consumption.
Through ultra-precision nano sensor technology that can detect changes down to the molecular level, it measures subtle environmental changes and elevates the response speed and recognition accuracy of smart devices to a next-generation level.
ACENANO | CEO: Hyejun Jeon
[ Address ]
Seoul Office: Baeksan-Bluewin Building, 157 Jeongneung-ro, Seongbuk-gu, Seoul, Korea
Seoul R&D Center: 1F, APEXEL Nano Science Museum, 63 World Cup buk-ro, Mapo-gu, Seoul, Korea
GMP Factory: 97-87, Daejeon-gil, Songna-myeon, Buk-gu, Pohang-si, Gyeongsangbuk-do, Korea
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