Ultraviolet reflection prevention film (AR) wavelength: efficiently transmits 350~410nm.

The home appliance and gadget industry is currently at a significant turning point. With the advent of IoT, all devices are now equipped with sensors and cameras, new wearable devices such as AR/VR devices and smart glasses are being launched into the market one after another, and smart home devices commonly come with displays and touch panels. Supporting the high functionality and added value of these products behind the scenes are optical thin film and patterning processing technologies. Suppressing lens reflections, optimizing sensor sensitivity, making fingerprints and dirt less likely to adhere, allowing current to flow while transmitting light through transparent conductive films—these are all achieved by forming functional thin films on the substrate surface at the nanometer scale and sometimes creating fine patterns. Trend 1: Miniaturization and high definition of sensor windows and optical thin films Trend 2: AR/VR, smart glasses, and anti-reflective and anti-fouling coatings Trend 3: Smart home devices and anti-fog, antibacterial, and self-cleaning functional films Trend 4: Integration of touch panels, transparent electrodes, and patterning processing The value that expert coatings can provide For more details, please visit our company website.

Outer space is the most challenging and promising field for optical thin films. Environmental factors that are completely different from those on the ground—vacuum ultraviolet, high-energy particles, extreme thermal cycles, atomic oxygen—simultaneously pose threats to the thin films, while it is precisely these films that maintain the accuracy of sensing, communication, and observation. As the trend of New Space accelerates, the scenarios in which optical thin films influence the competitiveness of space development are increasing. We aspire to be more than just a "coating manufacturer"; we want to be partners who think together from the very beginning of development. It is perfectly fine if the requirements are not yet solidified or if we are still in the preliminary stages of specifications. We hope this can serve as a starting point for dialogue with engineers working on space products. Chapter 01: The Three Barriers that the Space Environment Poses to Optical Thin Films Chapter 02: Main Applications of Space × Optical Thin Films—Where Thin Films Thrive Chapter 03: How to Choose Optical Thin Films—The Trinity of Materials, Design, and Process Chapter 04: Proposal for Co-Creation Steps—"Start Small and Grow Steadily" Summary—Together, Let’s Take on the Challenge of Space with the Power of Thin Films.

We have added a standard stock lineup for the "UV Transmission Filter," which has been frequently inquired about! ◆ Excellent UV Transmission Characteristics This filter allows ultraviolet light in the range of 250 to 380 nm to pass through due to its multilayer film and interference effects. Our unique film formation technology has achieved an extremely low ripple and high transmission rate. ◆ About Adachi New Industry Co., Ltd. standard stock items... - I need several pieces at different levels for product development and performance testing as soon as possible... - I want to try a rough estimate for now... - I would like to make a slight change in shape for prototyping... Adachi New Industry sincerely addresses the voices of such customers! In today's world where simulation technology has advanced, we will respond quickly to customer requests with our standard stock items, so please feel free to contact us!

Applications in the ultraviolet region are on the rise. At Itsuki Seiko Glass, we have developed filter glass substrates (IHU series) that have a transmission limit wavelength in the ultraviolet region and improved weather resistance against ultraviolet light. Recently, we have successfully deposited dielectric multilayer films to create bandpass filters in the ultraviolet region, as shown in the chart (measured data). (Are you facing these challenges?) ◆ Do you want to transmit only specific wavelengths with aspheric lenses or lens arrays? ◆ Is it possible to transmit in the ultraviolet (UV-C) region at a wavelength of 254 nm? ◆ Is it possible to achieve anti-reflection with limited deposition materials? ◆ I've heard that measuring after deposition is difficult; can you accommodate this? ◆ Is it very challenging to control the thin film thickness in the UV region? Please consider the optical thin films from Adachi New Industry Co., Ltd., which can be customized to meet your needs.