Polski

The research team has developed a mechanical luminescent touch screen that can work underwater

786
2024-03-08 14:41:11
Zobacz tłumaczenie

The optical properties of afterglow luminescent particles in mechanical luminescence and mechanical quenching have attracted much attention in various technological applications. A group of researchers from Pohang University of Science and Technology has attracted attention by developing an optical display technology with ALP that can write and erase messages underwater.

The team is composed of Professor Sei Kwang Hahn from the Department of Materials Science and Engineering at POSTECH and doctoral student Seong Jong Kim, who discovered a unique optical phenomenon in ALP. Subsequently, they successfully created a device to achieve this phenomenon. Their research results have been published in Advanced Functional Materials.

ALP has the ability to absorb energy and gradually release it, exhibiting mechanical luminescence when subjected to external physical pressure, and undergoing mechanical quenching when the emitted light disappears. Although active research has been conducted on the use of this technology for optical displays, the precise mechanism remains elusive.

In this study, the team delved into the effects of electron capture and charging on mechanical luminescence and quenching. They successfully unraveled the mechanisms that control these two phenomena. Based on this understanding, they will be able to achieve both phenomena simultaneously by combining ALP with very thin polymer materials. This combination leads to the creation of optical display patches that can be attached to the skin.

Display patches can convey information through writing by applying a small amount of pressure to the fingers. When exposed to ultraviolet light, the patch will reset to a blank state, similar to using an eraser to erase the content of a sketchbook. In addition, the touch screen of the display screen has moisture resistance and can maintain its function even after prolonged immersion in water.

Professor Sei Kwang Hahn, who led the research, said, "It can serve as a communication tool in situations where communication options are limited, such as underwater environments characterized by weak light or high humidity. It will also be used in wearable photon biosensors and phototherapy systems in extreme environments.".

Source: Laser Net

Powiązane rekomendacje
  • The University of Stuttgart has simplified the detection of nanoplastics

    Detecting the presence of nanoscale plastic particles in the environment has become a topic of concern for industrial societies worldwide, not least since particles of that size can evade the body's blood-brain barrier and damage metabolic processes.Optical technologies have been at the forefront of these monitoring efforts. Recent examples have included the use of stimulated Raman scattering to s...

    19 godzin temu
    Zobacz tłumaczenie
  • Lumiotive and Hokuyo announce the launch of the world's first 3D LiDAR sensor with true solid-state beam steering

    Lumotive, a pioneer in optical semiconductor technology, and Hokuyo Automatic Co., a global leader in sensors and automation, Ltd. announced today the commercial version of the YLM-10LX 3D LiDAR sensor. This breakthrough product features Lumiotive's light controlled metasurface (LCM) ™) Optical beamforming technology represents a significant leap in the application of solid-state programmable opti...

    2024-05-25
    Zobacz tłumaczenie
  • NUBURU announces its latest strategic blueprint

    Following the announcement of the immediate termination of a $2 million stock exchange agreement and its partnership with HUMBL, high-power blue laser light source manufacturer NUBURU has once again announced its latest strategic blueprint. Through specific understanding, after this strategic update, NUBURU's business model will cover two collaborative key business lines, with a focus on defense a...

    04-17
    Zobacz tłumaczenie
  • Progress in the Study of Nonlinear Behavior of Platinum Selenide Induced by Strong Terahertz at Shanghai Optics and Machinery Institute

    Recently, the research team of the State Key Laboratory of Intense Field Laser Physics of the Chinese Academy of Sciences Shanghai Institute of Optics and Fine Mechanics has made progress in the research on the nonlinear behavior and mechanism of platinum selenide in terahertz band. The research team systematically studied the spectral and optical intensity characteristics of platinum selenide und...

    2024-05-23
    Zobacz tłumaczenie
  • Romania Center launches the world's most powerful laser

    Are you ready? The signal is out! "In the control room of a research center in Romania, engineer Antonio Toma has activated the world's most powerful laser, which is expected to make revolutionary progress in various fields from the health sector to space. The laser located in the center near the Romanian capital Bucharest is operated by the French company Thales and utilizes the invention of Nobe...

    2024-04-01
    Zobacz tłumaczenie