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市場調查報告書
商品編碼
1939121
壓鑄:市場佔有率分析、產業趨勢與統計、成長預測(2026-2031)Die Casting - Market Share Analysis, Industry Trends & Statistics, Growth Forecasts (2026 - 2031) |
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2025年壓鑄市場價值為865.2億美元,預計到2031年將達到1,301.7億美元,高於2026年的926.1億美元。
預計在預測期(2026-2031 年)內,複合年成長率將達到 7.04%。

隨著電氣化重塑動力傳動系統需求,原始設備製造商 (OEM) 正在用高度整合的單件鑄件取代由多個沖壓和焊接零件組成的組件,從而在保持結構剛性的同時減輕重量、減少零件數量。這種轉變使得壓鑄市場即使在內燃機汽車產量趨於平穩的情況下依然保持強勁勢頭。由於對電池托盤、馬達殼體和大型底盤鑄件的需求不斷成長,電動車每輛車使用的壓鑄件數量也在增加。除了出行領域,可再生能源基礎設施、5G部署和自動化專案也在推動對複雜近淨成形零件的需求。一級供應商、專業鑄造廠和垂直整合的汽車製造商競相掌握千兆壓機技術、整合本地可再生能源以控制成本,並遵守模具潤滑劑中禁用 PFAS 的規定,市場競爭日益激烈。
儘管電池式電動車在設計上減少了零件數量,但電池外殼、馬達框架和整合底盤部分等關鍵結構部件仍然需要採用尺寸更大的整體式鑄件。特斯拉用於後底盤的巨型鑄件就是一個典型的例子,它整合了多個沖壓件。這表明,無論總產量如何波動,壓鑄對於每輛車的戰略重要性和價值都在不斷提升。研究表明,結構性巨型鑄件可以將車輛重量減輕 10-15%,從而顯著提升續航里程,同時降低組裝複雜性。
超大型巨型壓機使得以往需要多個焊接部件才能完成的一體式結構生產成為可能。傳統汽車製造商正將這些壓機整合到新型電動車平台中,而規模較小的鑄造廠則面臨早期廢品率高、模具調整成本高等挑戰。同時,先進的生產線正在縮短生產週期,顯著降低資本投資成本,並將壓鑄產業整合為數量更少但規模更大的生產單位。
中國仍然是鎂的主要供應國。然而,中國近期訂定的出口許可措施顯示其正在加強供應管理。此類舉措可能會擾亂下游鑄造合約。西方冶煉廠需要數年時間才能提高產能,目前正面臨價格波動的困擾,這使得長期汽車平臺規劃更加複雜。那些利用鎂比鋁更輕的重量優勢的汽車和航太專案正面臨著艱難的抉擇:重新設計零件還是囤積材料。
預計到2025年,汽車應用將佔總收入的61.73%,並在2031年之前以8.02%的複合年成長率成長。這表明,電動車(EV)結構件的需求正在抵消內燃機(ICE)汽車需求的下降。電池機殼、馬達外殼和底盤鑄件的壓鑄市場規模預計在預測期結束時將顯著成長。汽車製造商正在調整籌資策略,將數十種沖壓零件整合到少數幾個大型鑄件中。他們越來越重視擁有超高速壓鑄作業專業知識的供應商,尤其是那些擁有完美產推出週期的供應商。在汽車產業之外,可再生能源和通訊等行業的需求也在穩步成長。
同時,航太產業對鈦合金和高強度鋁合金作為下一代機身結構材料的興趣日益濃厚。這項產業轉型正在推動韌性合金和真空輔助填充技術的研究與開發,這兩項技術均旨在滿足嚴格的碰撞安全標準。傳統上專注於引擎零件的一級供應商正在轉型,改造熔爐並安裝大型鑄造單元,以便更專注於結構件和電池托盤的生產。這些趨勢提高了中小鑄造廠的准入門檻,並促使其向以樞紐為基礎的工業結構轉型,從而將加工和組裝無縫整合到靠近原始設備製造商(OEM)車身車間的工廠中。
儘管到2025年,壓力鑄造仍將佔總收入的55.02%,但真空鑄造預計將以8.93%的複合年成長率成長,因為電動車的關鍵安全結構件需要可熱處理和可焊接的部件。真空鑄造可將孔隙率降低60-80%,使汽車製造商能夠將鋁製部件熱處理至T6狀態而無需擔心斷裂,然後將其雷射焊接成複合材料框架。這項技術每公斤可使價格上漲高達30%,即使合金成本上升,也能維持較高的利潤率。因此,壓鑄市場正在增加真空室,並將冷室壓鑄單元改造為混合配置。
從長遠來看,擠壓鑄造和半固體鑄造過程將滿足航太和重型卡車轉向節等需要類似鍛造微觀結構的細分市場需求。然而,這些製程的生產週期仍然較長,因此在大批量生產行業,壓力鑄造和真空鑄造仍然是首選方案,並輔以模內冷卻和強化製程監控。
到2025年,亞太地區將佔全球銷售額的56.21%,其中中國龐大的汽車、家電和電子產業叢集為其核心。數十年累積的專業知識、豐富的廢鋁供應以及垂直整合的工具鋼生態系統,使其保持了成本競爭力。韓國和日本在控制系統創新方面做出了貢獻,而印度則利用與生產連結獎勵計畫來資金籌措新的輕量化零件生產線。隨著整車製造商採購管道的多元化,東南亞在低複雜度零件和備用產能方面佔據了越來越大的佔有率,從而擴大了壓鑄市場在東協的影響力。
中東和非洲地區是成長最快的地區,複合年成長率達8.42%。波灣合作理事會成員國正利用「2030願景」基金在國內生產太陽能逆變器、風力渦輪機外殼和電動車充電器。像NEOM這樣的大型企劃正在推動對能夠鑄造鋁製建築幕牆節點和結構連接件的大噸位壓平機的需求。儘管上游鋁錠供應在冶煉廠擴大規模之前仍依賴進口,但土耳其的汽車出口和埃及的工業園區計劃進一步刺激了該地區的訂單。
北美和歐洲的成長主要由技術變革驅動,而非工廠數量的增加。在美國,針對國內採購電池和傳動系統零件的稅額扣抵促使原始設備製造商(OEM)在俄亥俄州、阿拉巴馬州和安大略省的組裝廠附近建造大型鑄造廠。歐洲的碳邊境調節機制提高了使用可再生能源運作再生鋁熔爐的本地工廠的競爭力。在這兩個地區,逐步淘汰全氟烷基和多氟烷基物質(PFAS)以及實施生命週期碳審核正在推動壓鑄市場的發展,加速設備升級和數位化可追溯性模組的應用。
The die casting market was valued at USD 86.52 billion in 2025 and estimated to grow from USD 92.61 billion in 2026 to reach USD 130.17 billion by 2031, at a CAGR of 7.04% during the forecast period (2026-2031).

As electrification reshapes power-train needs, OEMs are replacing multi-piece stamp-and-weld assemblies with single, high-integrity castings that cut weight and part counts while preserving structural rigidity. This pivot keeps the die casting market resilient even as internal-combustion volumes plateau, because the content-per-vehicle in electric cars rises on the back of battery trays, motor housings, and under-body megacastings. Outside mobility, renewable-energy infrastructure, 5G rollouts, and automation programs sustain demand for complex, near-net-shape components. Competitive intensity tightens as tier-1 suppliers, pure-play foundries, and vertically integrating automakers race to master giga-press technology, deploy on-site renewables for cost control, and navigate looming PFAS bans in mold lubricants.
Battery-electric vehicles streamline their design with fewer components, yet they demand larger, integrated castings for essential structures such as battery housings, motor frames, and unified chassis sections. A prime example is Tesla's rear underbody megacasting, which consolidates several stamped parts. This underscores the rising strategic significance and value of die casting in each vehicle, regardless of fluctuations in overall production volumes. Studies indicate structural megacasting can reduce curb weight by 10-15%, bringing critical range benefits while lowering assembly complexity .
Ultra-large giga-presses now create single-piece structures, a feat that once demanded multiple welded components. While traditional automakers are integrating these presses into their new electric vehicle platforms, smaller foundries grapple with challenges like high initial scrap rates and expensive die adjustments. Meanwhile, advanced equipment lines are achieving quicker cycle times, a move that mitigates hefty capital costs and pushes the die-casting industry towards consolidating into fewer, yet significantly larger, production cells.
China continues to lead as the primary source of magnesium. However, recent export licensing measures from the country hint at tighter supply controls. Such moves could potentially disrupt downstream casting contracts. Western smelters, taking years to ramp up, are grappling with price volatility, complicating long-term vehicle platform planning. Programs in the automotive and aerospace sectors, which have relied on magnesium's lightweight benefits over aluminum, now confront difficult decisions: redesigning components or stockpiling the material.
Other drivers and restraints analyzed in the detailed report include:
For complete list of drivers and restraints, kindly check the Table Of Contents.
Automotive applications contributed 61.73% of 2025 revenues and will deliver an 8.02% CAGR to 2031, illustrating how EV structural content offsets ICE decline. The die casting market size for battery enclosures, motor housings, and under-body castings will grow significantly by the end of the forecast period. Automakers are consolidating dozens of stamped components into just a few large castings, leading to a shift in sourcing strategies. They're now favoring suppliers adept at giga-press operations, especially those with flawless startup cycles. Beyond the automotive realm, sectors like renewable energy and telecom are witnessing a steady uptick in demand.
Meanwhile, the aerospace industry is showing heightened interest in titanium and high-strength aluminum, eyeing them for next-generation airframes. This industry-wide transition is spurring intensified R&D efforts into ductile alloys and vacuum-assisted filling, all in a bid to meet stringent crash safety standards. Tier-1 suppliers, previously centered on engine parts, are now pivoting. They're retrofitting furnaces and setting up massive casting cells, focusing on structural components and battery trays. Such trends are elevating entry barriers for smaller foundries and nudging the industry towards integrated hubs, seamlessly blending machining and assembly close to OEM body shops.
While pressure casting still owns 55.02% of 2025 billings, vacuum casting will clock a 8.93% CAGR as safety-critical EV structures require heat-treatable, weldable parts. When pore content falls 60-80%, automakers can T6-treat aluminum parts without blow-out risk and laser-weld them into multi-material frames. That capability lifts price realizations by up to 30% per kilogram, keeping margin potential high even where alloy cost rises. Consequently, the die casting market sees plants adding vacuum chambers or converting cold-chamber cells to hybrid configurations.
Longer term, squeeze casting and semi-solid processes address niche aerospace and heavy-truck steering knuckles that need forged-like microstructures. Yet their cycle times remain slower, so high-volume industries still favor pressure or vacuum options supplemented by in-die cooling and intensified process monitoring.
The Die Casting Market Report is Segmented by Application (Automotive, Electrical and Electronics, and More), Process (Pressure Die Casting, Vacuum Die Casting, and More), Raw Material (Aluminum, Magnesium, and More), Casting-Machine Clamping Force (<=4, 000 KN, 4, 001-10, 000 KN, and More), and Geography (North America, South America, and More). The Market Forecasts are Provided in Terms of Value (USD).
Asia-Pacific generated 56.21% of global sales in 2025, anchored by China's vast auto, appliance and electronics clusters. Decades of cumulative know-how, high scrap-aluminum availability, and vertically integrated tool-steel ecosystems keep cost positions sharp. Korea and Japan contribute control-system innovation, while India rides production-linked incentives that fund new lightweight-component lines. As OEMs diversify sourcing, Southeast Asia gains share for low-complexity parts and back-up capacity, broadening the die casting market footprint across ASEAN.
The Middle East & Africa region is the fastest riser at 8.42% CAGR. Gulf Cooperation Council states use Vision 2030 funds to manufacture solar inverters, wind housings, and EV chargers domestically. Megaprojects like NEOM draw demand for high-tonnage presses able to cast aluminum facade nodes and structural connectors. Turkey's auto exports and Egypt's industrial-park policies further energize regional orders, though upstream ingot supply relies on imports until smelters scale.
North America and Europe grow chiefly through technology shifts rather than plant count. United States tax credits favor domestic battery and drivetrain sourcing, causing OEMs to localize megacasting next to assembly plants in Ohio, Alabama, and Ontario. Europe's Carbon Border Adjustment Mechanism boosts competitive standing for regional shops running recycled aluminum furnaces on renewable power. Both regions further the die casting market by enforcing PFAS phase-outs and lifecycle carbon audits, spurring capital upgrades and digital traceability modules.