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INTRODUCTION
ASICs designed for space application must be resistant to cosmic rays, gamma rays, and energetic particles. High granularity and expanding focus planes in the majority of embedded imaging systems for space applications justify an almost systematic use of integrated circuits.
Integrated circuits must properly suit the sensors and interface with the system in order to optimise noise, geometry, and architecture at the same time in order to meet the demanding requirements for outstanding spatial and energy resolution.
To imagine an utilisation onboard a payload in orbit, extremely low power consumption and radiation endurance are also requirements.
As a result, the integrated circuit, which is a component of an enhanced detection system for space, is created especially for each application and is known as an ASIC (ASIC).
Astronauts, materials, and satellites are all at risk from the natural radiation in space. The radiation environment fluctuates with solar activity and is dependent on mission paths.
To safeguard critical components and complete the mission objectives, space missions require radiation alert and forecasting sensors. The equipment used to measure radiation must be compact, lightweight, and low power. For space radiation monitors, IDEAS has created integrated circuits that are both performance- and cost-efficient.
More size, weight, and cost reduction is possible because to the integration of functions into a single monolithic die. Small and low power space radiation monitors are made possible by integrated circuits from IDEAS.
GLOBAL SPACE GRADE ASICs MARKET SIZE AND FORECAST
The Global Space grade ASICs market accounted for $XX Billion in 2021 and is anticipated to reach $XX Billion by 2030, registering a CAGR of XX% from 2022 to 2030.
RECENT DEVELOPMENT
Today, ASICS will introduce the ACTI BREEZE 3D SANDAL, a revolutionary 3D-printed sandal created especially to support the body and mind of a recuperating athlete during the After Performance period.
The ground-breaking geometric design of the ACTI BREEZE 3D SANDAL, made possible by a parametric design technique and cutting-edge 3D printing technology, provides the wearer with exceptional comfort and protection.
The combination of all of these elements enables recovering athletes to maximise the After Performance phase, ensuring they are prepared to go again and perform at their best on race day.
With the introduction of ACTI BREEZE 3D SANDAL, ASICS takes a first move into the after-performance market as part of its commitment to providing the finest performance and protection for its athletes.
COMPANY PROFILE
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