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市場調查報告書
商品編碼
2065995
化學、生物、放射性及核能(CBRN)安全市場:依產品類型、技術、部署模式、服務和應用分類-全球預測,2026-2032年Chemical, Biological, Radiological & Nuclear Security Market by Product Type, Technology, Deployment Mode, Service, Application - Global Forecast 2026-2032 |
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預計到 2032 年,化學、生物、放射性和核 (CBRN) 安全市場將成長至 309.5 億美元,複合年成長率為 7.55%。
| 主要市場統計數據 | |
|---|---|
| 基準年 2025 | 185.9億美元 |
| 預計年份:2026年 | 199.4億美元 |
| 預測年份 2032 | 309.5億美元 |
| 複合年成長率 (%) | 7.55% |
化學、生物、放射性及核(CBRN)安全已從一項專門的防禦職能轉變為社會韌性的優先事項,涵蓋化學安全、生物安全、放射性物質源安全、核安全、邊境管制、公共衛生應急準備、關鍵基礎設施保護以及突發事件影響管理。其運作環境受兩種平行現實的影響:健全的條約體系和日益複雜的行動。 《化學武器公約》有193個締約國,禁止化學武器組織(OPCW)已檢驗所有申報的化學武器庫存(總計72,304公噸)都已銷毀。同時,《生物武器公約》有189個締約國,《禁止核武擴散條約》有191個締約國,世界衛生組織的《國際衛生條例》對196個國家具有法律約束力。
由於地緣政治不穩定、兩用技術擴散、軍控信心下降以及對蓄意、意外和突發性危險的認知不斷加深,核生化安全格局正在改變。根據斯德哥爾摩國際和平研究所(SIPRI)發布的《2026年年鑑》,九個核子擁有國家在2025年繼續對其核武庫進行現代化改造和強化,截至2026年1月,全球整體核彈頭數量估計為12,187枚。其中,約9745枚估計處於軍事庫存,4012枚部署在飛彈和飛機上,另有2100至2200枚處於高度戰備狀態。
人工智慧(AI)正整體成為核生化(CBRN)安全領域累積的力量,因為它能夠提升探測、建模、分類、物流和決策支援能力,但同時也為化學、生物和網實整合系統帶來了雙重用途風險。美國國土安全部關於人工智慧與核生化(CBRN)的評估報告警告稱,儘管人工智慧可以改進核生化(CBRN)的預防、偵測、回應和緩解措施,但如果與現有數據、實驗室自動化或監管不力相結合,則可能降低危險化學和生物實驗的門檻。
亞太地區因其擁有多個核子擁有國家、先進的民用核能計劃、活躍的海上貿易、大規模的化學品製造生態系統、強大的生物技術能力以及易受災害影響的城市走廊,成為核生化安全工作的重中之重。東協區域核生化網路旨在加強應對化學、生物和放射性威脅的合作。同時,歐盟核子生化卓越中心已確定東南亞夥伴國家,包括汶萊、柬埔寨、印尼、寮國人民民主共和國、馬來西亞、緬甸、菲律賓、新加坡、泰國和越南。
東協的化學、生物和放射性物質(CBRN)情況凸顯了區域能力建設、反恐準備、緊急應變協調以及保障高通量貿易通道安全等方面的迫切需求。東協化學、生物和放射性防禦專家網路作為區域資訊共用、最佳實踐和技術合作中心,旨在加強整個東南亞地區的集體應對能力。
美國在防止大規模殺傷性武器(WMD)、推進化學和生物防禦現代化、核子安全、緊急應變和公共衛生防範方面發揮主導作用。美國國防部的《2024年化學和生物防禦計畫企業戰略》優先發展快速、大規模具有實戰意義的能力,並呼籲加強與盟友、跨部門夥伴、工業界和學術界的合作。加拿大透過在核能安機構、邊防安全、緊急管理和全球威脅降低方面的合作,已成為美國在化學、生物、放射性和核子(CBRN)領域的重要合作夥伴。同時,墨西哥的優先事項包括危險物品運輸、港口和邊境篩檢、公共衛生監測以及工業化學品管治。
產業領導者首先應建立統一的化學、生物、放射性及核子(CBRN)管治模式,將安全、保全、網路安全、法律、營運、採購、人力資源和溝通等部門連結起來。最具韌性的組織不會將化學品庫存、生物材料、放射性材料、核能相關技術、人工智慧工具和緊急應變資產視為各自獨立的合規孤島,而是將其納入單一風險登記冊中。
本執行摘要採用以資訊來源主導的調查方法編寫,並參考了來自國際組織、政府機構和經認可的安全機構的可靠公共領域參考資料。主要資訊來源包括:禁止化學武器組織(OPCW)關於《化學武器公約》執行情況和檢驗的庫存銷毀數據;聯合國軍備控制辦公室(UNODA)關於《生物武器公約》和《禁止核武擴散條約》的信息;世界衛生組織(WHO)關於《國際衛生條例》的指導意見;國際原子能機構(IAEA)的事故和非法販毒者(IAEA)的事故和非法販子機構的指導意見;運資料庫資訊;斯德哥爾摩國際和平研究所(SIPRI)2026年年鑑中關於核子武力的研究結果;北約的核生化防禦政策;歐盟的rescEU和歐盟核生化卓越中心提供的資料;美國國家標準與技術研究院(NIST)關於人工智慧生物安全的指導意見;以及美國國防部關於化學和生物防禦化的出版物。
核生化安全已進入一個需要更快、更全面、技術更先進的階段。雖然條約框架仍然至關重要,但實際的重心正轉移到執行層面。具體而言,這需要安全的設施、訓練有素的人員、可靠的探測系統、具有韌性的醫療衛生系統、受保護的供應鏈、值得信賴的緊急計畫以及負責任的人工智慧管治。
The Chemical, Biological, Radiological & Nuclear Security Market is projected to grow by USD 30.95 billion at a CAGR of 7.55% by 2032.
| KEY MARKET STATISTICS | |
|---|---|
| Base Year [2025] | USD 18.59 billion |
| Estimated Year [2026] | USD 19.94 billion |
| Forecast Year [2032] | USD 30.95 billion |
| CAGR (%) | 7.55% |
Chemical, Biological, Radiological and Nuclear security has moved from a specialist defense function to a whole-of-society resilience priority spanning chemical security, biosecurity, radiological source security, nuclear security, border control, public health preparedness, critical infrastructure protection and emergency consequence management. The operating environment is shaped by two simultaneous realities: strong treaty architecture and rising operational complexity. The Chemical Weapons Convention has 193 States Parties, and the OPCW has verified the destruction of all declared chemical weapons stockpiles, totaling 72,304 metric tons; at the same time, the Biological Weapons Convention has 189 States Parties, the Nuclear Non-Proliferation Treaty has 191 parties, and WHO's International Health Regulations are legally binding on 196 countries.
For industry leaders, the core challenge is no longer limited to compliance with CBRN regulations; it is the integration of intelligence-led prevention, rapid detection, secure supply chains, trained response teams, interoperable data systems and trusted public communication. The IAEA's Incident and Trafficking Database remains a key indicator of persistent radiological and nuclear security risk because it tracks illicit trafficking, theft, loss, unauthorized acquisition and discovery of uncontrolled nuclear or radioactive material reported by participating states.
The executive implication is clear: CBRN security programs must be designed as adaptive risk systems. Organizations that handle hazardous chemicals, biological materials, radioactive sources, nuclear technologies, emergency medical countermeasures, detection equipment or critical infrastructure should align governance, training, procurement, cyber resilience and incident response under a unified CBRN risk management model.
The CBRN security landscape is being transformed by geopolitical instability, dual-use technology diffusion, weakened arms-control confidence and a broader understanding of deliberate, accidental and naturally occurring hazards. SIPRI's Yearbook 2026 reported that the nine nuclear-armed states continued to modernize and enhance their nuclear arsenals in 2025, with an estimated 12,187 nuclear warheads globally in January 2026, including about 9,745 in military stockpiles, 4,012 deployed with missiles and aircraft, and between 2,100 and 2,200 kept on high operational alert.
Chemical security has shifted from declared stockpile destruction toward preventing re-emergence, detecting toxic industrial chemical misuse, securing precursor supply chains and strengthening national implementing legislation. Biological security has expanded beyond traditional pathogen control into genomic data governance, laboratory biosafety, synthetic biology oversight, medical countermeasure readiness and cross-border surveillance. WHO's IHR framework requires countries to prevent, detect, assess, report and respond to public health risks with international implications, making biosurveillance and public health emergency preparedness central to CBRN resilience.
Radiological and nuclear security is increasingly focused on material control outside high-security nuclear complexes, including transport security, source recovery, port-of-entry detection, insider-threat management and nuclear forensics. The IAEA ITDB's scope includes unauthorized acquisition, theft, possession, transfer, disposal, loss and discovery of uncontrolled material, which underscores why radiological dispersal risk and source security remain operational priorities for hospitals, industrial users, research institutions and logistics networks.
Artificial intelligence is becoming a cumulative force multiplier across CBRN security because it can improve detection, modeling, triage, logistics and decision support while also creating dual-use risks in chemistry, biology and cyber-physical systems. The U.S. Department of Homeland Security's AI and CBRN assessment warned that AI could help improve CBRN prevention, detection, response and mitigation, but also lower barriers for harmful chemical and biological experimentation when combined with accessible data, lab automation or weak oversight.
In biological security, the highest-impact AI issue is the convergence of generative models, protein design, genomic data and synthetic nucleic acid ordering. NIST has emphasized that organizations performing nucleic acid synthesis need guidance to identify and mitigate AI-related risks, and it launched work with the Engineering Biology Research Consortium to develop screening and safety tools for synthetic biology.
For CBRN industry leaders, AI should be adopted with a controls-first mindset: validated models, secure training data, human-in-the-loop review, red-team testing, audit logs, procurement controls, incident escalation protocols and safeguards against model misuse. AI can strengthen plume modeling, anomaly detection, radiological mapping, syndromic surveillance and emergency logistics, but only when paired with responsible AI governance, cybersecurity and domain-expert verification.
Asia-Pacific is a high-priority CBRN security region because it combines nuclear-armed states, advanced civil nuclear programs, dense maritime trade, large chemical manufacturing ecosystems, major biotechnology capabilities and disaster-prone urban corridors. ASEAN's regional CBR network was created to strengthen cooperation against chemical, biological and radiological threats, while the EU CBRN Centres of Excellence identify Southeast Asia partner countries including Brunei Darussalam, Cambodia, Indonesia, Lao PDR, Malaysia, Myanmar, the Philippines, Singapore, Thailand and Viet Nam.
North America remains one of the most capability-rich CBRN security environments, anchored by mature defense programs, public health institutions, nuclear regulation, WMD law enforcement and advanced detection infrastructure. The United States has institutionalized CBRN and WMD prevention across agencies, while Canada contributes to allied interoperability, border security and global threat reduction; Mexico's strategic importance is tied to border management, industrial chemical safety and public health surveillance across a large trade corridor.
Latin America's CBRN priorities center on radiological source security, major-event preparedness, public health capacity, chemical supply-chain oversight and customs enforcement. The region benefits from the nuclear-weapon-free-zone norm established by the Treaty of Tlatelolco, and the IAEA highlights regulatory infrastructure development projects in the Caribbean and Latin America for radiation safety and nuclear security.
Europe is advancing CBRN preparedness through NATO deterrence and defense, EU civil protection, rescEU stockpiles and external risk-mitigation partnerships. NATO's CBRN policy requires Allies to maintain military capabilities and national resilience, while rescEU includes medical and CBRN strategic stockpiles, emergency medical capabilities and equipment for chemical, biological, radiological and nuclear emergencies.
The Middle East faces a complex CBRN risk picture shaped by conflict exposure, critical energy infrastructure, industrial chemical risk, missile and drone threats, nuclear security concerns and emergency management requirements. The EU CBRN CoE network includes dedicated Middle East and Gulf Cooperation Council regional engagement, reflecting regional emphasis on preparedness, response coordination and protection of critical infrastructure.
Africa's CBRN security agenda is increasingly focused on chemical safety legislation, public health surveillance, radiological source control, border security and capacity building. OPCW's Africa Programme, launched in 2007, supports Chemical Weapons Convention implementation, chemical safety, chemical security and development, while EU CBRN CoE regional engagement covers African Atlantic, Eastern and Central Africa, and North Africa and Sahel partner countries.
ASEAN's CBRN profile is defined by regional capability building, counterterrorism preparedness, emergency response coordination and the need to secure high-volume trade routes. The ASEAN Chemical, Biological and Radiological Defence Experts network functions as a regional node for information sharing, best practices and technical cooperation, strengthening collective preparedness across Southeast Asia.
The GCC is a critical CBRN security grouping because of its energy infrastructure, desalination dependence, cross-border logistics, chemical industry footprint and proximity to regional conflict risks. The EU CBRN CoE identifies the GCC regional partner countries as Saudi Arabia, Bahrain, Kuwait, Qatar, Oman and the United Arab Emirates, indicating a structured platform for regional CBRN risk mitigation and preparedness cooperation.
The European Union is one of the most systematized civilian CBRN security actors. Its CBRN Centres of Excellence initiative covers 64 partner countries across eight regions, with 104 implemented projects, 19 ongoing projects, 36 completed national action plans, 15 ongoing national action plans and more than 750 experts cooperating through the network.
BRICS brings together countries with major industrial, nuclear, biotechnology, public health and security capabilities, making it relevant to CBRN governance even where members differ politically. Its practical CBRN relevance lies in counterterrorism coordination, export-control alignment, emergency preparedness, public health capacity and dual-use technology governance across large populations and strategic supply chains.
The G7 remains a central driver of global CBRN threat reduction through the Global Partnership Against the Spread of Weapons and Materials of Mass Destruction, a 31-member initiative focused on preventing state and non-state proliferation and mitigating chemical, biological, radiological and nuclear threats.
NATO's CBRN role is anchored in deterrence, defense, resilience and interoperability. Its 2022 CBRN Defence Policy commits Allies to integrated CBRN military capabilities, national resilience, exercises, training, equipment, planning and recovery capacity, making NATO a benchmark for multi-domain CBRN preparedness.
The United States leads with large-scale WMD prevention, chemical and biological defense modernization, nuclear security, emergency response and public health preparedness. The Department of Defense's 2024 Chemical and Biological Defense Program Enterprise Strategy prioritizes operationally relevant capabilities at speed and scale and calls for stronger integration with allies, interagency partners, industry and academia. Canada is positioned as a strong allied CBRN partner through nuclear safety institutions, border security, emergency management and global threat reduction cooperation, while Mexico's priorities include hazardous material transport, port and border screening, public health surveillance and industrial chemical governance.
Brazil anchors Latin American CBRN preparedness through its civil nuclear expertise, major industrial base, health security responsibilities and regional leadership role. In Europe, the United Kingdom, Germany, France, Italy and Spain combine NATO or EU frameworks with national civil protection, defense, public health and critical infrastructure programs; France and the United Kingdom also remain NPT-recognized nuclear-weapon states, and SIPRI reported ongoing modernization among all nine nuclear-armed states in 2025. Germany, Italy and Spain are especially relevant for CBRN consequence management, medical preparedness, industrial chemical safety and EU stockpile coordination.
Russia remains central to global CBRN risk analysis because of its large nuclear arsenal, strategic competition with NATO and the importance of arms-control transparency. China is a priority CBRN country because of its expanding nuclear capabilities, major chemical and biotechnology sectors, and civil nuclear development. India combines nuclear deterrence, high biotechnology capacity, major chemical manufacturing and public health preparedness needs; Japan and South Korea are advanced technology and civil defense leaders with strong roles in radiological monitoring, industrial safety, biosurveillance and alliance interoperability. Australia is strategically important because of its Indo-Pacific security partnerships, biosecurity controls, nuclear submarine pathway under AUKUS and disaster response capacity.
Industry leaders should begin by establishing a unified CBRN governance model that connects safety, security, cyber, legal, operations, procurement, human resources and communications. The most resilient organizations treat chemical inventories, biological materials, radioactive sources, nuclear-relevant technologies, AI tools and emergency response assets as part of one risk register rather than separate compliance silos.
Priority actions include conducting CBRN threat and vulnerability assessments, validating material accounting, strengthening access controls, screening suppliers, hardening transport protocols, training personnel on suspicious activity indicators, integrating detection data with emergency operations centers and aligning exercises with local public health, law enforcement and emergency management partners. This is consistent with NATO's emphasis on military capability, national resilience, training, equipment, plans and exercises, and with WHO's IHR focus on prevention, detection, reporting and response.
Leaders should also build AI governance into CBRN programs now. That means requiring model risk assessments, misuse testing, data provenance controls, secure laboratory informatics, biosynthesis screening, incident reporting pathways and human review for high-consequence decisions. NIST's work on AI-related synthetic biology safeguards shows that responsible AI adoption is becoming a core component of biosecurity and broader CBRN risk management.
This executive summary was developed through a source-led methodology using authoritative public-domain references from international organizations, government agencies and recognized security institutions. Core sources included OPCW data on Chemical Weapons Convention implementation and verified stockpile destruction; UNODA information on the Biological Weapons Convention and Nuclear Non-Proliferation Treaty; WHO guidance on the International Health Regulations; IAEA information on the Incident and Trafficking Database; SIPRI Yearbook 2026 findings on nuclear forces; NATO CBRN Defence Policy; EU rescEU and EU CBRN Centres of Excellence materials; NIST AI biosecurity guidance; and U.S. defense releases on chemical and biological defense modernization.
The analysis prioritized verified institutional data, treaty participation, official policy frameworks, public safety mandates, capacity-building initiatives and current risk indicators. It intentionally excludes market estimation, market sizing, market share and market forecasting. Insights were synthesized qualitatively to support executive decision-making and web readability while avoiding operationally sensitive or harmful technical instructions.
CBRN security is entering a period where preparedness must be faster, more integrated and more technologically literate. Treaty regimes remain indispensable, but the practical burden has shifted toward implementation: secure facilities, trained personnel, reliable detection, resilient health systems, protected supply chains, credible response plans and responsible AI governance.
The strongest organizations will be those that can connect chemical safety, biosecurity, radiological source control, nuclear security, cyber resilience and emergency management into one intelligence-led operating model. As nuclear modernization, synthetic biology, AI-enabled research and cross-border instability reshape the risk environment, CBRN security leaders should invest in prevention, interoperability and trust before an incident occurs. The strategic objective is not only to respond to CBRN events, but to reduce the probability, severity and societal disruption of chemical, biological, radiological and nuclear threats.