市場調查報告書
商品編碼
1273567
到 2028 年的耐輻射電子市場預測 - 按組件、技術、材料類型、產品類型、應用和地區進行的全球分析Radiation Hardened Electronics Market Forecasts to 2028 - Global Analysis By Component, Technique, Material Type, Product Type, Application and By Geography |
根據 Stratistics MRC 的數據,全球耐輻射電子市場預計在 2022 年將達到 15 億美元,並在 2028 年達到 21 億美元,複合年增長率預計為 6.0% .
主要用於高空作業的各種電子元件、封裝和商品稱為抗輻射電子產品。 以矽、碳化矽、氮化鎵、氫化非晶矽等為原料。 開關穩壓器、微處理器和電源單元常用於衛星、飛機和核電站。 因此,它被頻繁地應用於軍事、航空航天和國防等各個行業。
根據憂思科學家聯盟 (UCS) 的數據,截至 2020 年 4 月,大約有 2,666 顆人造衛星繞地球運行。 Euroconsult 估計每年發射約 990 顆衛星,預計到 2028 年將有 15,000 顆衛星進入軌道。
隨著世界上越來越多的太空任務,對先進的抗輻射組件、創新的構造和設計方法以及軟件模型的需求不斷增長,以使電子組件更耐輻射。 然而,農業監測等各種應用對低成本衛星通信的需求不斷增長,正在推動市場向前發展。
有一個方面是開發能夠準確再現外太空、核戰爭和國防環境的測試環境是一個制約因素。 建立抗輻射電子測試實驗室非常昂貴,並且需要高技能人員。 此外,根據應用需要,可以使用不同的方法來測試輻射效應和屏蔽。 因此,這些因素制約了市場的增長。
情報、監視和偵察活動的擴展預計會影響市場增長。 用於軍事和空間應用的現場可編程門陣列和多核處理器技術的快速發展,以及電子設備對第三代半導體材料的需求增加,因為它們的帶隙比矽更寬,預計將推動市場增長。。
航天機構希望使用具有高度集成性、效率和緊湊性的專業輻射硬化器。 企業正在接受許多創新,這不僅需要在研發方面進行大量投資,而且需要時間和金錢方面的投資。 可用於認證抗輻射芯片組的實驗室時間不足預計也會影響定制產品線的供應。
由於 COVID-19 造成的封鎖限制以及歐洲政府對製造流程和供應鏈的限制對整個行業的增長產生了負面影響。 然而,大約一年前,在冠狀病毒大流行開始後,經濟復甦的跡像開始出現。 症狀迅速蔓延到多個行業和地區,促使經濟復甦強於預期,全球芯片短缺前所未有。 由於自然災害和當地 Covid 事件的增加,製造能力已成為一個限制性問題,並一直持續到今天。
由於對抗輻射電源轉換的需求不斷增加,預計電源管理領域將實現有利增長。 任何電子系統都必須包含電源設備,因為它們是其運行不可或缺的一部分。 隨著技術的進步,功率器件正在向功能更多、損耗更少的方向發展。 氮化鎵是製造商用來提高高輻射環境下功率器件性能的前沿材料之一。
由於低成本、易於改造以及大規模生產輻射固化產品的能力,預計輻射固化設計領域在預測期內將以最快的複合年增長率增長。 這種製造方法利用了各種想法,例如佈局解決方案和零件設置。 通過這種製造方法,可以重新佈置電路以防止電池在任務期間發生故障,從而有助於提高惡劣條件下的可靠性。
由於技術進步和大量終端用戶的存在,預計在預測期內北美將佔據最大的市場份額。 該地區擁有發達的研發和工業基礎設施,因此我們可以期待目標市場的穩步擴張。 在預測期內,以網絡為中心的戰爭技術的迅速採用有望推動市場的增長前景。
由於對更高效和更具成本效益的輻射固化組件的需求不斷增長,預計北美在預測期內的複合年增長率最高。 隨著可輻射固化材料的使用頻率增加和最新技術的快速進步,預計對可輻射固化電子設備的需求將會增加。 此外,使用納米衛星的活躍學術研究和太空探索項目的擴展預計將支持市場需求。
2022 年 3 月,STMicroelectronics(瑞士)推出了一系列採用低成本塑料封裝的耐輻射功率、模擬和邏輯 IC。 新系列預計將包括穩壓器、數據轉換器、邏輯門、LVDS 收發器和其他用於各種空間應用(例如遙測啟動跟蹤器和機載計算機)的抗輻射組件。
2021 年 9 月,Microchip Technology Inc.(美國)宣布有意加入國防高級研究計劃局 (DARPA) 的工具箱計劃,該計劃有望為該組織的研究人員提供開放許可機會。 參與 Microchip 的國防和航空航天發展計劃有助於加速創新。
According to Stratistics MRC, the Global Radiation Hardened Electronics Market is accounted for $1.5 billion in 2022 and is expected to reach $2.1 billion by 2028 growing at a CAGR of 6.0% during the forecast period. Various electronic parts, packages, and goods that are primarily used for high-altitude applications are referred to as radiation-hardened electronics. Silicon, silicon carbide, gallium nitride, and hydrogenated amorphous silicon are employed as raw materials in the fabrication of such components. Satellites, aeroplanes, and nuclear power plants all make substantial use of switching regulators, microprocessors, and power supply devices. As a result, they are frequently used in a variety of industries, such as the military, aerospace, and defence.
According to The Union of Concerned Scientists (UCS), there are about 2,666 operational satellites revolving around the earth as of April 2020. According to the estimation of Euroconsult, there will be about 990 satellites to be launched every year, which can lead to 15,000 satellites in orbit by 2028.
The demand for sophisticated radiation-hardened components, innovative configuration and design methodologies, and software models to increase the radiation tolerance of electronic components is growing as a result of the increasing number of space missions globally. However, rising demand for low-cost satellite communication for a variety of applications such as agriculture surveillance is propelling the market forward.
The limiting aspect is the development of a testing environment that can accurately replicate space, a nuclear war, or the environment of defence. Building a radiation-hardened electronics test lab is quite expensive and requires highly skilled personnel. Depending on the needs of the application, a variety of methods can be used to test radiation effect and shielding. Hence, these factors are restraining the growth of the market.
The expansion of intelligence, surveillance, and reconnaissance operations will likely have an effect on the market's expansion. Rapid advances in field-programmable gate array and multicore processor technologies for military and space applications, as well as increased demand for third generation semiconductor materials in electronic devices due to a wider band gap than silicon, are expected to drive market growth.
Space agencies want to use specialised radiation-hardened goods that have high levels of integration, efficiency, and compactness. The businesses are embracing a number of innovations, which involves a major investment in terms of time and money as well as R&D. The supply of customised product lines is also anticipated to be impacted by a lack of lab time available for the certification of radiation-hardened chipset.
The COVID-19 lockdown constraints and restrictions on manufacturing processes and supply chains by the governments of European countries had a negative effect on the overall industry growth. But after the start of the coronavirus pandemic, signs of economic recovery started to appear about a year ago. These indications quickly spread to several industries and areas, prompting a stronger-than-anticipated economic rebound and previously unheard-of global chip shortage. When natural disasters and the rise in local Covid cases wreaked havoc, manufacturing capacity became and remains a limiting concern.
The power management segment is estimated to have a lucrative growth, due increased demand for radiation hardened power conversion. Any electronics system must include power devices because they are essential to its operation. Power devices are evolving as a result of technological improvements, with fewer losses and more functionality. Gallium nitride is one of the cutting-edge materials that producers are incorporating to enhance the performance of power devices in high radiation settings.
The radiation hardening by design segment is anticipated to witness the fastest CAGR growth during the forecast period, due to its low cost, ease of modification, and its ability to allow the production of radiation-hardened products in a large volume. This makes use of a number of ideas, including layout solutions and component setup. This manufacturing method enables circuit reconfiguration to prevent cells from failing during the mission and contributes to increased reliability in harsh situations.
North America is projected to hold the largest market share during the forecast period owing to technological advancements and the presence of a large number of end-users. The region's steady expansion in the target market has also been facilitated by the region's strong R&D and industrial infrastructure. During the forecast period, the market's growth prospects are anticipated to be boosted by the rapid adoption of network-centric warfare techniques.
North America is projected to have the highest CAGR over the forecast period, owing to increasing demand for more efficient and cost-effective radiation hardened by design components. The need for radiation-hardening electronics is anticipated to rise as radiation-hardening materials are used more frequently and as the newest technologies improve quickly. It is anticipated that rising academic research using nano satellites and expanding space exploration programmes will support market demand.
Some of the key players profiled in the Radiation Hardened Electronics Market include: Renesas Electronics Corporation, IBM Corporation, Microchip Technology Inc., Cobham Limited, Analog Devices Inc., BAE Systems, Infineon Technologies AG, GSI Technology Inc, Ai Tech, STMicroelectronics, Honeywell International, Texas Instruments Incorporated, Mercury Systems Inc., Teledyne Technologies Inc., Data Devices Corporation and TTM Technologies Inc.
In March 2022, STMicroelectronics (Switzerland) announced the release of a new series of radiation-resistant power, analogue, and logic ICs housed in a low-cost plastic package. The new series is anticipated to include radiation-resistant components such as voltage regulators, data converters, logic gates, and LVDS transceivers, which are utilised in a variety of space applications, including telemetry start trackers and onboard computers.
In September 2021, Microchip Technology Inc. (US) announced that it would join the Defense Advanced Research Projects Agency (DARPA) Toolbox initiative, which is anticipated to provide open licencing opportunities for organisation researchers. Microchip's participation in defence and aerospace development programmes helps to accelerate innovation.
Note: Tables for North America, Europe, APAC, South America, and Middle East & Africa Regions are also represented in the same manner as above.