通訊業化合物半導體的產品組合分析
市場調查報告書
商品編碼
1332663

通訊業化合物半導體的產品組合分析

Portfolio Analysis of Compound Semiconductors in the Communication Industry

出版日期: | 出版商: Frost & Sullivan | 英文 61 Pages | 商品交期: 最快1-2個工作天內

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簡介目錄

化合物半導體的高速通訊能力在通訊用途中找到了出路

這項研究強調了化合物半導體(CS)在通訊系統中的重要性,並強調了它們相對於矽等元素半導體的優越性。本研究概述了 CS 技術、全球場景、應用多樣性和成長路線圖。

砷化鎵 (GaAs)、氮化鎵 (GaN)、磷化銦 (InP) 和矽鍺 (SiGe) 等 CS 材料可提供更高的頻率、溫度、電子遷移率和卓越的光學/電子特性。這些基本特性使 CS 成為衛星通訊、無線網路和光纖網路等高速通訊系統的理想選擇。

CS 用於製造高速電晶體和雷射二極體,實現高速數位電路和光纖通訊系統。 GaN和GaAs應用於5G網路,可提供卓越的效率和寬頻率頻寬,而砷化銦鎵(InGaAs)和InP則用於亞太赫茲通訊系統以及包括6G網路在內的未來無線通訊應用,可實現超高資料速率。 InP和GaAs用於高速通訊系統,促進了高性能雷射器和檢測器的發展。

美國、歐盟(荷蘭、德國、法國)、英國、中國、日本和韓國由於嚴重依賴5G和高速光纖,在CS技術上投入巨資以發展其國內供應鏈光網路。 CS行業將戰略聯盟和併購視為其業務營運結構的一個組成部分。

目錄

戰略課題

  • 為什麼成長越來越困難?The Strategic Imperative 8 (TM):阻礙成長的要素
  • The Strategic Imperative8(化合物半導體)
  • 化合物半導體三大戰略課題對通訊業的影響
  • 成長機會推動Growth Pipeline Engine (TM)
  • 調查方法

執行摘要

  • 調查範圍
  • 主要發現
  • CS 對最終市場區隔的影響
  • 成長促進因素
  • 成長阻礙因素

技術概述、世界場景、應用多樣性、成長路線圖

  • CS 簡介 GaAs、GaN、InP、SiGe
  • CS與矽的比較
  • GaN 在通訊業中的重要性與日俱增
  • 有線通訊網路中基於CS的設備概述
  • 無線通訊網路中使用的基於 CS 的設備
  • CS 的特性對於提高通訊網路效率非常重要
  • 推動電腦科學創新的趨勢
  • 通訊業CS專利趨勢概覽
  • 專利管轄權及主要申請人分析
  • 來自世界頂尖大學的研發舉措
  • 加速通訊業成長的關鍵 CS 創新
  • 為通訊業的CS 發展做出貢獻的全球性公司
  • 通訊業CS供應鏈
  • 通訊業基於CS的商業模式
  • 通訊業CS引進的世界、場景
  • 影響 CS 採用的地緣政治情景
  • 北美政府戰略舉措
  • 政府戰略舉措:英國、歐盟、荷蘭
  • 政府戰略舉措:中國、日本、韓國
  • 來自通訊業基於 CS 的解決方案的全球領先公司的資金籌措
  • 新興創業公司的投資
  • 推動創新的戰略夥伴關係
  • 收購合併
  • 聯盟推動CS發展
  • 受益於 CS 的關鍵行業:電訊、國防、航太
  • 受益於CS的關鍵行業:家電、汽車、工業自動化
  • 案例研究 1:Infinera 徹底改變了 InP 的連接性
  • 案例研究 2:Qorvo最大化小米的Wi-Fi 6功能
  • 案例研究 3:MMIC 的 5G 射頻設計初創公司徹底改變了蜂巢式通訊
  • 通訊業CS成長路線圖

成長機會宇宙

  • 成長機會1:供應鏈整合
  • 成長機會2:Li-Fi 作為射頻和寬頻的替代通訊系統
  • 成長機會3:衛星網際網路熱潮

附錄

  • 技術完備等級(TRL):說明

下一步

  • 下一步
  • 為什麼選擇Frost,為什麼是現在?
  • 免責聲明
簡介目錄
Product Code: DA96

Compound Semiconductors' High-speed Communication Capabilities Finding Opportunities in Telecom Applications

The research highlights the importance of compound semiconductors (CS) in communication systems, emphasizing their advantages over elemental semiconductors such as silicon. The study provides an overview of CS technology, the global scenario, application diversity, and growth roadmap.

CS materials, such as gallium arsenide (GaAs), gallium nitride (GaN), indium phosphide (InP), and silicon germanium (SiGe), offer higher frequencies, temperatures, electron mobility, and superior optical/electronic properties. These intrinsic properties make CS ideal for high-speed communication systems, including satellite communications, wireless networks, and fiber-optic networks.

CS is used in the production of high-speed transistors and laser diodes, enabling high-speed digital circuits and fiber-optic communication systems. GaN and GaAs find applications in 5G networks, offering superior efficiency and wide frequency bandwidth, while indium gallium arsenide (InGaAs) and InP are used in sub-terahertz communication systems, enabling ultra-high data rates for future wireless communication applications, including 6G networks. InP and GaAs are employed in high-speed optical communication systems, facilitating the development of high-performance lasers and photodetectors.

The United States, European Union (Netherlands, Germany, and France), United Kingdom, China, Japan, and South Korea invest heavily in CS technologies to develop domestic supply chains owing to their heavy reliance on 5G and high-speed optical fiber networks. The CS industry anticipates strategic alliances and mergers and acquisitions as integral components of its operational framework.

Table of Contents

Strategic Imperatives

  • Why Is It Increasingly Difficult to Grow?The Strategic Imperative 8™: Factors Creating Pressure on Growth
  • The Strategic Imperative 8™
  • The Impact of the Top 3 Strategic Imperatives on Compound Semiconductors for the Communication Industry
  • Growth Opportunities Fuel the Growth Pipeline Engine™
  • Research Methodology

Executive Summary

  • Research Scope
  • Key Findings
  • Impact of CS on End Market Segmentations
  • Growth Drivers
  • Growth Restraints

Technology Overview, Global Scenario, Application Diversity, and Growth Roadmap

  • CS Snapshot: GaAs, GaN, InP, and SiGe
  • Advantages of CS vs Silicon
  • Growing Prominence of GaN in the Communication Industry
  • Overview of CS-based Devices in Wired Communication Networks
  • CS-based Devices Used in Wireless Communication Networks
  • CS Attributes Essential to Improve Communication Network Efficiency
  • Trends Driving Innovations in CS
  • Snapshot of CS Patent Trends in the Communication Industry
  • Analysis of Patent Jurisdiction and Leading Applicants
  • R&D Initiatives from Top Global Universities
  • Major CS Innovations Accelerating Communication Industry Growth
  • Global Companies Contributing to CS Growth in the Communication Industry
  • CS Supply Chain for Communications
  • Business Models in the CS-based Communication Industry
  • Global Scenario of CS Adoption in the Communication Industry
  • Geopolitical Scenario Impacting CS Adoption
  • Strategic Government Initiatives: North America
  • Strategic Government Initiatives: UK, EU, and the Netherlands
  • Strategic Government Initiatives: China, Japan, and South Korea
  • Funding from Leading Global Companies in CS-based Solutions for the Communication Industry
  • Investments by Emerging Start-ups
  • Strategic Partnerships Driving Innovation
  • Key Mergers and Acquisitions
  • Consortiums Driving CS Development
  • Key Sectors Benefitting from CS: Telecom, Defense, and Space
  • Key Sectors Benefitting from CS: Consumer Electronics, Automotive, and Industrial Automation
  • Case Study 1: Infinera Revolutionizing Connectivity using InP
  • Case Study 2: Qorvo Empowers Xiaomi to Maximize Wi-Fi 6 Capabilities
  • Case Study 3: 5G RF Design Start-up for MMIC Revolutionizing Cellular Communication
  • CS Growth Roadmap in the Communication Industry

Growth Opportunity Universe

  • Growth Opportunity 1: Supply Chain Consolidation
  • Growth Opportunity 2: Li-Fi as an Alternative Communication System for RF and Broadband
  • Growth Opportunity 3: Satellite Internet Boom

Appendix

  • Technology Readiness Levels (TRL): Explanation

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