中性原子量子電腦市場

Markets for Neutral Atom Quantum Computers

出版日期: 2025年05月20日 | 出版商:

Inside Quantum Technology | 英文 48 Pages | 訂單完成後即時交付

價格

簡介目錄

中性原子量子計算機預計將成為 "首選" 量子計算機，既是對主流超導量子計算範式的課題，也是邁向更先進機器的途徑。預計2025年中性原子電腦出貨量僅8台，但到2035年，預計將有超過7,310台中性原子電腦出貨。

本報告 "中性原子量子電腦市場" 分析了全球領先的中性原子量子電腦供應商的產品/市場策略。這些供應商包括Atom Computing、Atom Quantum Labs、Infleqtion、M Squared、OpenQuantum、Pasqal、PlanQC和QuERA。報告還深入探討了晶片和組件製造商在中性原子計算機中看到的機會。晶片/組件領域的知名廠商包括AMD、Hamamatsu Photonics、NanoQT、Nu Quantum、QBlox和Toptica。

該報告也分析了推動中性原子量子電腦成功的關鍵技術趨勢。這些趨勢包括使用光子積體電路 (PIC) 來改善尺寸、重量和功耗，能夠最佳支援中性原子機器的新材料平台，以及中性原子機器從大型政府和研究機構應用向高效能運算 (HPC) 和資料中心的過渡。對於中性原子量子電腦而言，真正重要的是每量子位元價格仍然具有吸引力。預計中性原子技術將在量子產業媒體上獲得越來越正面的評價。目前，Amazon Braket 和 Azure Quantum 是唯一存取中性原子量子電腦的流行方式。

對象用途和使用可能性
- 利用中性原子計算機進行分散式量子計算
- 資料中心中的天然原子計算機
- 中性原子的其他用途計算機
關於控制和生態系統
中性原子電腦的供應結構
國家問題
- 中性原子電腦的全球市場和國內市場
- 關稅的問題

第3章中性原子技術

中性原子電腦
- Atom Computing(美國)
- Atom Quantum Labs(斯洛維尼亞)
- Infleqtion(美國)
- M Squared(英國)
- OpenQuantum(英國)
- Pasqal(法國)
- PlanQC(德國)
- QuEra Computing(美國)
中性原子的結構要素和子系統
- AMD(美國)
- Hamamatsu(日本)
- Lake Shore Cryotronics(美國)
- MenloSystems(德國)
- NanoQT(日本)
- Nexus Photonics(美國)
- Nu Quantum(英國)
- OpenQuantum(世界)
- Qblox(荷蘭)
- Quantum Machines(以色列)
- Sandia National Laboratories(美國)
- Toptica Photonics(德國)
- Vescent(美國)
軟體
- aAgnostiq(加拿大)
- DarkStarStrix(用戶註冊名)(美國)
- data cybernetics ssc GmbH(德國)
- Lawrence Berkeley National Laboratory(LBNL)(美國)
- M-Labs(香港)
- Microsoft(美國)
- Q-CTRL(澳洲)
- QMWare(瑞士)
- QPerfect(法國)
- SimuQ(美國)
- Wolfram(美國)
平台
- Amazon Braket(美國)
- qBraid(美國)
- Strangeworks(美國)
國內及國際中心
- Department of Science and Technology(DOST)
- European Center for Quantum Sciences(CESQ)(法國)
- Japan Science and Technology Agency(日本)
- National Quantum Computing Centre (NQCC)(英國)
- Russian Quantum Center(俄羅斯)

第4章中性原子電腦的10年預測

簡介目錄

Product Code: IQT-NAQC2025-0525

IQT Research believes Neutral Atom Quantum Computers are emerging as "workhorse" quantum computers that are both a challenge to the dominant superconducting quantum computing paradigm and a path forward to even more advanced machines. IQT Research believes that in 2025, only eight neutral atom machines will be shipped but this number will grow to more than 7,310 neutral atom machines by 2035.

This report, "Markets for Neutral Atom Quantum Computers" analyzes the product/market strategies of the leading neutral atom quantum computer vendors worldwide. These include Atom Computing, Atom Quantum Labs, Infleqtion, M Squared, OpenQuantum, Pasqal, PlanQC, and QuERA. But we also dig into the opportunities that the chip and component makers have been finding in neutral atom machines. Prominent firms in the chip/component segment include AMD, Hamamatsu, NanoQT, Nu Quantum, QBlox and Toptica.

This report also analyzes the key technological trends that are spurring the success of neutral atom quantum computers. These include the use of photonic integrated circuits (PICs) to improve size, weight, and power consumption; novel materials platforms that can best support neutral atom machines; and the transition of neutral atom machines from large government and research facilities usage to HPC and the data center. What really matters for neutral atom quantum computers is that $/Qubit continues to be attractive. IQT Research notes that neutral atom technology is portrayed increasingly positively in the quantum trade press. For now, Amazon Braket and Azure Quantum are the only public ways to access a neutral atom quantum computer.

Chapter One: Neutral Atom Technology and Products

1.1. Evolution of Technology
- 1.1.1. Atoms Used
- 1.1.2. Neutral Atoms Viewed Increasingly Positively
- 1.1.3. Accessibility
1.2. Neutral Atom Components
- 1.2.1. Atomic Control Hardware and Readout Components
- 1.2.2. Photonic and Photographic Components
- 1.2.3. Cryostats
1.3. Neutral Atom-related Software
- 1.3.1. Work in Research Labs

Chapter Two: Markets and Origins

2.1. Target Applications and Possible Uses
- 2.1.1. Distributed Quantum Computing on Neutral Atom Computers
- 2.1.2. Neutral Atom Computers in the Data Center
- 2.1.3. Other Uses for Neutral Atom Computers
2.2. Of Control and Ecosystems
2.3. Supply Structure for Neutral Atom Computers
2.4. National Questions
- 2.4.1. Worldwide and National Markets for Neutral Atom Computers
- 2.4.2. The Question of Tariffs

Chapter Three: Neutral Atom Technologies

3.1. Neutral Atom Computers
- 3.1.1. Atom Computing (United States)
- 3.1.2. Atom Quantum Labs (Slovenia)
- 3.1.3. Infleqtion (United States)
- 3.1.4. M Squared (United Kingdom)
- 3.1.5. OpenQuantum (United Kingdom)
- 3.1.6. Pasqal (France)
- 3.1.7. PlanQC (Germany)
- 3.1.8. QuEra Computing (United States)
3.2. Neutral Atom Components and Subsystems
- 3.2.1. AMD (United States)
- 3.2.2. Hamamatsu (Japan)
- 3.2.3. Lake Shore Cryotronics (United States)
- 3.2.4. MenloSystems (Germany)
- 3.2.5. NanoQT (Japan)
- 3.2.6. Nexus Photonics (United States)
- 3.2.7. Nu Quantum (United Kingdom)
- 3.2.8. OpenQuantum (Global)
- 3.2.9. Qblox (The Netherlands)
- 3.2.10. Quantum Machines (Israel)
- 3.2.11. Sandia National Laboratories (United States)
- 3.2.12. Toptica Photonics (Germany)
- 3.2.13. Vescent (United States)
3.3. Software
- 3.3.1. Agnostiq (Canada)
- 3.3.2. DarkStarStrix (username) (United States)
- 3.3.3. data cybernetics ssc GmbH (Germany)
- 3.3.4. Lawrence Berkeley National Laboratory (LBNL) (United States)
- 3.3.5. M-Labs (Hong Kong)
- 3.3.6. Microsoft (United States)
- 3.3.7. Q-CTRL (Australia)
- 3.3.8. QMWare (Switzerland)
- 3.3.9. QPerfect (France)
- 3.3.10. SimuQ (United States)
- 3.3.11. Wolfram (United States)
3.4. Platforms
- 3.4.1. Amazon Braket (United States)
- 3.4.2. qBraid (United States)
- 3.4.3. Strangeworks (United States)
3.5. National and International Centers
- 3.5.1. Department of Science and Technology (DOST) (Philippines)
- 3.5.2. European Center for Quantum Sciences (CESQ) (France)
- 3.5.3. Japan Science and Technology Agency (Japan)
- 3.5.4. National Quantum Computing Centre (NQCC) (United Kingdom)
- 3.5.5. Russian Quantum Center (Russia)