【軍傳媒/軍事專欄】在歐洲潛在的大規模戰鬥環境中,空中機動兵力長期被視為突破地面軸線限制、創造時間與空間優勢的核心工具。RUSI 在《Air Manoeuvre Forces in European Large-Scale Combat Operations》研究中指出,空中機動的本質並非單純快速移動,而是在高度對抗環境下,透過航空手段把可持續作戰的地面兵力送達關鍵地點,並與聯合火力、情報監偵與地面機動形成整體作戰效果。
俄烏戰爭則提供了一個殘酷的現實驗證場。這場戰爭揭示,在密集防空、全面監偵與長程精準打擊條件下,空中機動若缺乏整體支撐,將付出極高代價。

烏克蘭戰場的警示:空中機動進入高風險時代
戰爭初期,俄軍嘗試運用攻擊直升機與運輸直升機進行快速縱深奪占與機降行動,並依賴空中突擊建立橋頭堡。然而,便攜式防空飛彈、短程防空系統與廣泛部署的戰場感測網,使低空飛行與固定集結點暴露於高風險之下。多起直升機損失顯示,在未完全壓制防空與掌握電磁環境的前提下,空中機動平台的存活率迅速下降。
過往空中機動歷史上常見失敗原因包括情報準備不足、未能有效執行防空壓制、以及空地協同失調,由於直升機基本並不具備裝甲,因此很容易受地面的攻擊而受損或墜毀。烏克蘭戰場的案例證實,若未建立短時間、特定走廊的局部優勢,空中突入將面臨難以承受的損失。
而烏克蘭戰場中顯示債場的改變,前進武裝與加油整補點曾遭長程精準武器打擊,加上無人機的興起,顯示百公里縱深內的地理位置保障已不再安全,空中突入的必要性也興起質疑的聲音。
飽和攻擊與長程投射改變空中作戰結構
俄烏戰爭的另一關鍵趨勢,是大量一次性攻擊無人機與遠距彈藥的制度化運用。攻擊無人機以成本優勢消耗防空彈藥與雷達工作量,巡弋飛彈與滑翔增程武器則在防空圈外實施打擊。這種「量與遠」的組合,使防空資源承受持續壓力,對歐洲而言,這代表未來戰場將呈現三個特徵:
第一,防空威脅將延伸至縱深。
第二,空中指揮與後勤設施將成為優先打擊目標。
第三,雙方電磁環境的競爭將持續干擾通訊與導航。
空中機動在此環境下,無法再依賴傳統直升機突入模式,而必須納入遠距火力、電子戰與分散部署概念。

歐洲空中機動兵力的結構優勢與限制
歐洲多國仍維持成熟的空中機動編制,包括英國第16空中突擊旅、法國第11伞兵旅、德國快速部隊師與荷蘭空中機動旅等。這些單位具備高待命、快速部署與聯合行動經驗,是歐洲快速反應體系的重要支柱。
同時,歐洲亦建立跨國空運與空中加油協同架構,例如歐洲空運司令部與多國 MRTT 機隊,提升戰略層級投射能力。然而俄烏戰爭的經驗顯示,擁有運輸與突入能力並不足以確保成功,空中機動若缺乏有效的防空壓制與電子戰整合、對抗無人機攻擊的多層防禦體系、具韌性的通訊與感測鏈,將無法成功於未來戰場環境中。
未來威脅環境與防禦方向
未來戰場上,集結時間越長,風險越高,且防空彈藥消耗成為決定性變數,加上固定設施的易被打擊性,所有的關鍵設施及裝備都將朝向備援寂機動化,電磁壓制與導航干擾將成為常態,空中突入作戰的風險將大為提高,效益將大為下降。且歐洲主要是防禦作戰,並沒有斬首式捕獲他國元首的需求,反而是必須防禦來自東方的類似威脅。相對應的防禦方向包括:
- 分散與欺敵化部署:前進整補點需縮短停留時間,並配合誘餌與機動偽裝。
- 多層防空結構:以機砲、近迫彈藥、電子干擾與專用反無人機系統對付低成本威脅,保留高價攔截器應對巡弋與彈道武器。由於目前直升機的脆弱性,機砲防空火力就能有效攻擊,烏克蘭甚至成功使用無人機獵殺俄羅斯直升機,這些都是未來的方向。

結論
雖然歐洲空中機動兵力仍具高度戰略價值,但烏克蘭戰場證明,這種能力的成功門檻已顯著提高,未來空中機動武力將不再依賴單一突入動作,而是建立在防空壓制、平台生存力、無人系統整合與聯合火力支援之上的複合體系。平台本身並非關鍵,真正的決勝關鍵在於上述體系,歐洲若能在制度化演訓與跨國協同框架下持續驗證這種模式,空中機動仍可在大規模戰鬥中發揮決定性影響。
Air Assault in the Age of Saturation Attacks: Risks and Transformation of Europe’s Air Manoeuvre Forces
In a potential large-scale European conflict, air manoeuvre forces have long been regarded as a key instrument for overcoming ground constraints and creating operational advantage. As RUSI notes, air manoeuvre is not merely rapid movement; it is the delivery of sustainable ground combat power to decisive locations under contested conditions, integrated with joint fires, intelligence, surveillance and reconnaissance, and ground manoeuvre.
The Russia–Ukraine war has provided a stark test of this concept. Dense air defence networks, pervasive battlefield surveillance, and long-range precision strike capabilities have sharply increased the risks of air assault operations. Early Russian helicopter assaults demonstrated that without effective suppression of enemy air defences and control of the electromagnetic environment, survivability drops rapidly. Helicopters, inherently lightly protected, remain highly vulnerable to ground-based fire and portable air defence systems.
The war has also shown that operational depth is no longer secure. Forward arming and refuelling points and other logistical nodes have been struck by long-range precision weapons, while the proliferation of unmanned systems has extended the reach of detection and attack. Even areas far behind the front line cannot be assumed safe, raising questions about the feasibility of deep vertical envelopment.
A further defining trend has been the systematic use of saturation attacks. Large numbers of low-cost one-way attack drones, combined with cruise missiles and glide-extended munitions, place sustained pressure on air defence systems. This approach not only threatens frontline units but also targets command nodes and logistical infrastructure. Future battlefields are likely to feature extended air defence threats, persistent electromagnetic interference, and heavy ammunition consumption rates.
European states maintain capable air manoeuvre formations, including high-readiness air assault and airborne brigades, supported by multinational airlift and air refuelling frameworks. However, transport and insertion capability alone does not guarantee success. Effective operations will require integrated suppression of enemy air defences, electronic warfare coordination, layered counter-drone and air defence systems, and resilient communications and sensor networks.
Looking ahead, longer concentration times increase exposure, fixed facilities are increasingly vulnerable, and redundancy and mobility will be essential. Dispersed deployment, reduced dwell times at forward logistics sites, deception measures, and multi-layered air defence—combining gun systems, electronic countermeasures, and specialized counter-UAS assets—will be critical. Recent battlefield experience has shown that even helicopters can be targeted effectively by relatively low-cost systems, including drones.
European air manoeuvre forces retain strategic relevance, particularly within a defensive framework. Yet their future effectiveness will depend less on dramatic rapid insertions and more on integrated operational systems: air defence suppression, platform survivability, unmanned system integration, and coordinated joint fires. In high-intensity combat, success will rest not on the platform alone, but on the resilience and coherence of the system that supports it.