![]() |
市場調查報告書
商品編碼
1706587
微無人機的全球市場:2025年~2035年Global Microdrones Market 2025-2035 |
2025 年全球微型無人機市場規模估計為 38.8 億美元,預計到 2035 年將增長到 69 億美元,2025-2035 年預測期內的複合年增長率 (CAGR) 為 5.93%。
軍用微型無人機通常被歸類為無人機系統中最小的梯隊,並且是國防技術中一個快速成長的利基市場。這些無人機的重量通常不到 2 公斤,設計為便攜式或口袋大小,適用於傳統無人機和小型無人機過大或無法偵測的環境中進行近距離偵察、戰術監視和態勢感知。其緊湊的尺寸、不顯眼的操作和易於部署使其特別適合城市戰、特種作戰、反叛亂和邊境安全任務。全球軍事部門對微型無人機的興趣源於其能夠在視線有限且機動性至關重要的競爭激烈或混亂的空間中作戰,例如室內環境、茂密的森林、隧道網路或複雜的城市地形。儘管體積小,但微型無人機越來越能夠攜帶高解析度攝影機、熱感應器甚至輕型電子戰有效載荷。微型無人機被步兵、特警隊和偵察部隊使用,作為士兵感官的延伸,增強作戰意識,同時最大限度地減少威脅。隨著現代戰場變得更加分散和多維,微型無人機對於戰術邊緣作戰變得至關重要。微型無人機彌補了人類局限性和戰場情報之間的差距,使得掃描角落、屋頂和潛在伏擊點成為可能,而不會危及部隊安全。它的靜音運行和即時回饋使其對於需要速度、隱身和精確度的任務來說非常有價值。
科技正在推動軍用微型無人機設計、能力和部署的重大轉變。微型部件的發展是最重要的驅動力之一,從無刷馬達和先進的鋰聚合物電池,到超輕複合框架和微型感測器。這些創新可以延長飛行時間、提高有效載荷能力並提高惡劣條件下的續航能力。其中一項重大進步是感測器技術。現代微型無人機配備了多光譜感測器、夜視和熱成像系統,而這些系統以前對於如此小的平台來說太大或太耗電。這些感測器提供 360 度可視性,使無人機能夠在完全黑暗、煙霧瀰漫的區域以及電子乾擾的情況下有效運作。
人工智慧和機載處理正在重新定義微型無人機的自主性。即時物體辨識、人臉偵測、威脅分類和自主導航使這些無人機能夠在有限的人工輸入下運作。人工智慧使微型無人機能夠繪製環境地圖、避開障礙物,甚至自動追蹤特定目標。這在手動轉向困難或危險的複雜地形中尤其有價值。此外,通訊和資料加密也得到了顯著改善。微型無人機目前使用安全加密的連結來防止竊聽和乾擾。有些甚至以網狀網路或中繼模式運行,即使在 GPS 受阻或訊號中斷的環境中,也允許多個單元協作並共享資訊。
群集演算法的整合代表了微型無人機能力的最先進的飛躍。透過群體邏輯,一組微型無人機可以自主協調其運動以包圍目標並同時進行多角度監視。人們正在研究它用於兵力倍增、週邊監視和區域拒止策略。最後,材料科學正在幫助這些平台變得有彈性且輕盈。碳纖維增強塑膠和奈米塗層可抵禦沙、雨和電磁輻射等環境因素,確保在惡劣條件下持續運作。
有幾個關鍵因素推動了全球軍用微型無人機的興起。首先,需要提高小隊層級的態勢感知能力。現代步兵作戰需要周圍環境的即時數據,以避免伏擊、穿越陌生地形並發現隱藏的威脅。微型無人機無需複雜的基礎設施或專門的培訓即可提供這種能力。城市和近距離戰鬥也是一個強大的驅動力。在人口密集的城市環境和反恐行動中,傳統無人機通常體積太大、噪音太大,無法有效運作。另一方面,微型無人機可以在士兵進入之前進入建築物、掃描房間並評估威脅。另一個重大影響是不對稱威脅的日益普遍,例如叛亂組織和非國家行為者使用遊擊戰術和簡易爆炸裝置。微型無人機可以透過提供精確偵察來幫助消除此類威脅,而不會讓部隊面臨不必要的風險。它們通常用於即時精確定位 IED 位置和隱藏的敵人位置。
對低成本、快速部署的 ISR 解決方案的需求是另一個關鍵因素。與大型無人機或載人偵察飛行相比,微型無人機價格更實惠,並且可以大量部署。這種成本效益將使其廣泛採用,即使是中型或預算受限的軍隊。在高風險環境中,能夠在不影響任務成功的情況下失去無人機至關重要。此外,世界各地的國防現代化措施都集中在數位化、部隊機動性和網路中心戰。微型無人機符合這一模式,它充當敏捷的數據生成平台,可以無縫連結到指揮和控制網路、任務規劃軟體和士兵系統。
全球軍用微型無人機格局在每個地區都有獨特的發展,基於特定的作戰需求、技術基礎設施和戰略重點。
在北美,美國國防部正透過士兵隨身感測器 (SBS) 計畫等項目引領發展,該計畫已部署 FLIR 黑黃蜂等微型無人機來增強小隊級偵察能力。五角大廈也正在投資群體技術和自主任務,作為利用人工智慧發動戰爭的更廣泛努力的一部分。美國特種作戰司令部和陸軍未來司令部正在探索在多領域作戰中使用微型無人機,特別是在城市衝突地區和電子戰環境中。
歐洲注重遠徵作戰和國土安全,正大力發展微型無人機能力。英國、法國和挪威的北約軍隊已經將微型無人機用於戰術 ISR,Parrot(法國)和 Teledyne FLIR(英國/挪威)等公司也正在提供自己的解決方案。歐盟還資助了一項跨境研發計劃,以支持無人機創新和成員國之間互通性的共享標準。
在領土爭端和邊界緊張局勢加劇的亞太地區,該技術正在迅速傳播。中國在用於偵察和不對稱攻擊的微型無人機集群方面投入了大量資金,並經常在軍事演習中展示無人機集群。其戰略重點在於用低成本、與人工智慧相關的資產壓倒對手。同時,印度在 "印度製造" 國防製造計畫下,正在加快採購微型無人機,特別是用於在實際控制線(LAC)沿線等山區和叛亂環境中的作戰。韓國和日本也在部署微型無人機,作為其監視和國土安全現代化努力的一部分。
美國特種作戰司令部(SOCOM)正在尋求可以在多個領域,特別是空中和水下環境中運作的微型無人機。此招標由美國特種作戰司令部遠端能力計畫執行辦公室發布,旨在確定明年可供評估的潛在非艦隊系統。美國特種作戰司令部採購、技術和後勤局發布了一份特別通知,徵求業界的回饋意見,以協助確定適合測試的第一組無人機系統(UAS)。第 1 組無人機是國防部目前使用的最小類型的無人機,通常可以從各種平台部署。
本報告提供全球微無人機市場相關調查,彙整10年的各分類市場預測,技術趨勢,機會分析,企業簡介,各國資料等資訊。
各類型
各地區
各終端用戶
在本章中,十年微型無人機市場分析提供了微型無人機市場成長、變化趨勢、技術採用概述和整體市場吸引力的詳細概述。
本部分涵蓋預計將影響該市場的十大技術以及這些技術可能對整個市場產生的影響。
上述細分市場詳細介紹了該市場 10 年微型無人機市場的預測。
本部分涵蓋區域微型無人機市場趨勢、推動因素、阻礙因素、課題以及政治、經濟、社會和技術方面。它還提供了詳細的區域市場預測和情境分析。區域分析包括主要公司概況、供應商格局和公司基準測試。目前市場規模是根據正常業務情境估算的。
北美
促進因素,阻礙因素,課題
PEST
主要企業
供應商階層的形勢
企業基準
歐洲
中東
亞太地區
南美
本章重點介紹該市場的主要防禦計劃,並介紹該市場的最新新聞和專利。它還提供國家級的 10 年市場預測和情境分析。
美國
防衛計劃
最新消息
專利
這個市場上目前技術成熟度
加拿大
義大利
法國
德國
荷蘭
比利時
西班牙
瑞典
希臘
澳洲
南非
印度
中國
俄羅斯
韓國
日本
馬來西亞
新加坡
巴西
The Global Microdrones market is estimated at USD 3.88 billion in 2025, projected to grow to USD 6.90 billion by 2035 at a Compound Annual Growth Rate (CAGR) of 5.93% over the forecast period 2025-2035.
Military microdrones, often classified as the smallest tier within unmanned aerial systems, represent a rapidly growing niche in defense technology. Generally weighing under 2 kg and designed to be man-portable or even pocket-sized, these drones are tailored for close-range reconnaissance, tactical surveillance, and situational awareness in environments where traditional UAVs or even small drones may be too large or detectable. Their compact size, discreet operation, and ease of deployment make them uniquely suited for urban warfare, special operations, counter-insurgency, and border security tasks. The global military interest in microdrones stems from their ability to operate in highly contested or cluttered spaces-indoor environments, dense forests, tunnel networks, or complex urban terrain-where line-of-sight is limited and maneuverability is crucial. Despite their small stature, microdrones are increasingly capable of carrying high-resolution cameras, thermal sensors, and even lightweight electronic warfare payloads. Used by infantry, SWAT teams, and reconnaissance units, they serve as an extension of the soldier's senses, offering enhanced operational awareness with minimal exposure to threat. As modern battlefields become more decentralized and multidimensional, microdrones are proving essential for tactical edge operations. They bridge the gap between human limitations and battlefield intelligence, enabling forces to scan corners, rooftops, and potential ambush points without endangering personnel. Their silent operation and real-time feedback make them invaluable for missions that demand speed, stealth, and precision.
Technology is driving a significant transformation in the design, capability, and deployment of military microdrones. One of the most crucial enablers has been the development of miniaturized components-from brushless motors and advanced lithium-polymer batteries to ultra-lightweight composite frames and compact sensors. These innovations allow for extended flight times, improved payload capacity, and enhanced durability in harsh conditions. One major advancement is in sensor technology. Modern microdrones are now equipped with multi-spectral sensors, night vision, and thermal imaging systems that were previously too large or power-hungry for such small platforms. These sensors offer 360-degree awareness and enable the drone to function effectively in complete darkness, smoke-filled areas, or during electronic interference.
Artificial intelligence and onboard processing are redefining autonomy in microdrone operations. Real-time object recognition, facial detection, threat classification, and autonomous navigation allow these drones to function with limited human input. AI enables microdrones to map environments, avoid obstacles, and even follow specific targets automatically. This is especially valuable in complex terrain where manual piloting is difficult or dangerous. Moreover, communications and data encryption have improved significantly. Microdrones now use secure, encrypted links to prevent interception and jamming. Some operate in mesh networks or relay mode, enabling multiple units to collaborate and share intelligence even in GPS-denied or signal-contested environments.
The integration of swarming algorithms marks a cutting-edge leap in microdrone capabilities. With swarm logic, groups of microdrones can autonomously coordinate movement, surround targets, or conduct simultaneous multi-angle surveillance. This is being explored for force multiplication, perimeter monitoring, and area denial strategies. Lastly, materials science has contributed to making these platforms more resilient and lightweight. Carbon-fiber-reinforced plastics and nano-coatings provide durability against environmental factors like sand, rain, and electromagnetic exposure-ensuring operational continuity in hostile conditions.
Several key factors are propelling the rise of military microdrones globally. First and foremost is the need for enhanced situational awareness at the squad level. Modern infantry operations require real-time data about immediate surroundings to avoid ambushes, navigate unfamiliar terrain, and detect hidden threats. Microdrones deliver that capability without requiring complex infrastructure or specialized training. Urban warfare and close-quarters combat are also strong drivers. In dense city environments or during counterterrorism operations, traditional UAVs are often too large or loud to maneuver effectively. Microdrones, on the other hand, can enter buildings, scan rooms, and assess threats before soldiers enter-effectively acting as remote eyes in tight spaces. Another major influence is the increasing prevalence of asymmetric threats, such as insurgent groups and non-state actors using guerrilla tactics or makeshift explosives. Microdrones help neutralize such threats by providing precise reconnaissance without exposing forces to unnecessary risk. In many cases, they are used to identify IED placements or hidden enemy positions in real time.
The demand for low-cost, rapidly deployable ISR solutions is another significant factor. Compared to larger drones or manned reconnaissance flights, microdrones are far more affordable and can be fielded in large numbers. This cost efficiency allows for wide-scale adoption, even by mid-sized or budget-constrained militaries. The ability to lose a drone without compromising mission success is critical in high-risk environments. Moreover, defense modernization initiatives across the globe are placing emphasis on digitization, force mobility, and network-centric warfare. Microdrones fit into this paradigm by serving as agile, data-generating platforms that can link seamlessly into command-and-control networks, mission planning software, and soldier systems.
The global military microdrone landscape is evolving uniquely across different regions based on specific operational needs, technological infrastructure, and strategic priorities.
In North America, the U.S. Department of Defense is leading development through programs like the Soldier Borne Sensor (SBS) initiative, which has deployed microdrones like the FLIR Black Hornet to enhance reconnaissance capabilities at the squad level. The Pentagon is also investing in swarm technologies and autonomous mission execution as part of the broader push for AI-enabled warfighting. U.S. Special Operations Command and the Army Futures Command are exploring microdrone use in multi-domain operations, particularly for contested urban zones and electronic warfare environments.
Europe is embracing microdrone capabilities in line with its focus on expeditionary operations and homeland security. NATO forces in the UK, France, and Norway have already integrated microdrones for tactical ISR, with companies like Parrot (France) and Teledyne FLIR (UK/Norway) offering indigenous solutions. The EU is also funding cross-border R&D programs to support drone innovation and shared standards for interoperability among member states.
In the Asia-Pacific region, rising territorial disputes and border tensions are pushing rapid adoption. China has heavily invested in microdrone swarms for reconnaissance and asymmetric attack purposes, often showcasing swarming drones in military exercises. Its strategy emphasizes overwhelming adversaries with low-cost, AI-coordinated assets. India, meanwhile, is accelerating its microdrone procurement under the "Make in India" defense manufacturing initiative, particularly for operations in mountainous and counterinsurgency environments such as along the Line of Actual Control (LAC). South Korea and Japan are also deploying microdrones as part of surveillance and homeland security modernization efforts.
U.S. Special Operations Command (SOCOM) is seeking micro drones capable of operating across multiple domains, specifically in both aerial and underwater environments. The request comes from SOCOM's Program Management Office for Remote Capabilities, which is aiming to identify uncrewed systems for potential evaluation in the coming year. In a special notice issued , the acquisition, technology, and logistics division of SOCOM invited industry feedback to assist in identifying Group 1 uncrewed aerial systems (UAS) suitable for testing. Group 1 drones represent the smallest class of UAS currently utilized by the Department of Defense and are typically deployable from a variety of platforms.
By Type
By Region
By End User
The 10-year Microdrones Market analysis would give a detailed overview of Microdrones Market growth, changing dynamics, technology adoption overviews and the overall market attractiveness is covered in this chapter.
This segment covers the top 10 technologies that is expected to impact this market and the possible implications these technologies would have on the overall market.
The 10-year Microdrones Market forecast of this market is covered in detailed across the segments which are mentioned above.
The regional Microdrones Market trends, drivers, restraints and Challenges of this market, the Political, Economic, Social and Technology aspects are covered in this segment. The market forecast and scenario analysis across regions are also covered in detailed in this segment. The last part of the regional analysis includes profiling of the key companies, supplier landscape and company benchmarking. The current market size is estimated based on the normal scenario.
North America
Drivers, Restraints and Challenges
PEST
Key Companies
Supplier Tier Landscape
Company Benchmarking
Europe
Middle East
APAC
South America
This chapter deals with the key defense programs in this market, it also covers the latest news and patents which have been filed in this market. Country level 10 year market forecast and scenario analysis are also covered in this chapter.
US
Defense Programs
Latest News
Patents
Current levels of technology maturation in this market
Canada
Italy
France
Germany
Netherlands
Belgium
Spain
Sweden
Greece
Australia
South Africa
India
China
Russia
South Korea
Japan
Malaysia
Singapore
Brazil
The opportunity matrix helps the readers understand the high opportunity segments in this market.
Hear from our experts their opinion of the possible analysis for this market.