![]() |
市場調查報告書
商品編碼
1365789
環氧玻璃各最終用途產業的市場:2023-2032年全球機會分析與產業預測Epoxy Glass Market By End Use Industry (Aerospace and Defense, Automotive and Transportation, Electrical and Electronics, Wind Energy, Sporting Goods, Marine, Pipe and Tank, Others): Global Opportunity Analysis and Industry Forecast, 2023-2032 |
2022年環氧玻璃市場價值為127億美元,預計2023年至2032年年複合成長率為6.9%,到2032年將達到246億美元。
環氧玻璃是環氧樹脂與玻璃纖維布結合的複合材料。也稱為 FR4 或玻璃纖維增強環氧樹脂。這種組合產生了一種複合材料,結合玻璃纖維的強度與環氧樹脂的黏合和剛度。環氧玻璃應用於電子、航空、汽車、建築等各領域。
環氧玻璃因其優異的機械性能、耐化學性、耐腐蝕性、耐用性和優異的電絕緣性能而廣泛應用於各個行業,促進市場成長。環氧玻璃因其優異的機械性能和對外部影響的抵抗力而用於海洋領域。由於其強度高、重量輕、耐腐蝕,廣泛應用於船舶建造。編織玻璃具有高拉伸強度並塗有環氧樹脂,是船體、甲板和其他結構元件的理想選擇。這提高了船的整體結構完整性,同時減輕了重量,使其更容易移動並使用更少的燃料。
環氧玻璃在海洋工業中的主要優點之一是其耐水、耐鹽和耐海洋環境中常見的各種化學物質。這項功能有助於阻止劣化,延長海洋工程的使用壽命。環氧玻璃可提供有效的電流絕緣,使其適用於包括佈線、電氣控制板和電子設備的海洋應用。此外,環氧玻璃也用於建造船舶零件,包括天線罩、天線蓋和通訊天線。由於環氧玻璃是一種介電材料,因此可以以最小的干擾傳輸訊號,使其成為維持海上可靠通訊和導航系統的理想選擇。此外,使用環氧玻璃可以更輕鬆地維護和修理容器。環氧玻璃的黏合特性可以使受損零件順利黏合,保持容器的結構完整性。此外,環氧玻璃的多功能性有助於對複雜的航海設計進行修改和適應。
環氧玻璃用於建造石油、天然氣探勘等近海領域的海底機械和管道。由於環氧玻璃具有耐腐蝕、耐壓力和極端水下環境的特性,因此是維持這些關鍵零件的耐用性和使用壽命的最合適方法。由於這些因素,環氧玻璃已成為海洋領域的重要零件,並推動市場成長。
再生能源的激增也推動了環氧玻璃市場的成長。環氧玻璃是建造風力發電機葉片的理想材料,風力渦輪機葉片是利用風力發電發電的基本零件。環氧玻璃因其高機械強度重量比而用於風力發電。風力發電機葉片必須重量輕且耐用,以承受風速和湍流變化引起的動態負載和應力,並有效地收集風力發電。環氧基玻璃複合材料將纖維的堅固性與環氧樹脂的輕量性相結合,透過生產能夠承受惡劣條件的葉片,同時有效地將風力發電轉化為電能,創造了這種平衡。
風力發電機葉片暴露在各種天氣因素下,例如雨水、紫外線和溫度變化。環氧玻璃耐候、耐腐蝕、耐紫外線,可延長葉片壽命並降低維護和替換成本。環氧玻璃的耐用性對於位於偏遠或海上位置的風電場尤其重要,因為這些地方的維護困難且昂貴。
環氧玻璃優異的電絕緣性能使其可用於風力發電。風力發電機葉片通常包含感測器、加熱元件和用於性能監控和管理的控制系統。環氧玻璃可減少漏電和乾擾,確保這些組件安全可靠地運作。由於這些因素,對再生能源特別是風力發電的需求不斷成長,刺激了環氧玻璃市場的成長。
環氧玻璃的高製造成本限制了市場的成長。環氧玻璃是將特殊材料環氧樹脂與玻璃纖維布混合製成的。玻璃纖維必須按照精確的規格編織,而環氧樹脂則是需要精確配方和加工的聚合物。這些材料價格昂貴,因此製造成本很高。
環氧玻璃的製造方法有很多種,包括用環氧樹脂塗覆編織玻璃,在受控條件下固化,以及添加成型和精加工技術。這些任務需要專門的設備、知識和受控環境,這增加了工作成本。此外,還需要嚴格的品管程序,以確保環氧玻璃產品始終保持高品質。成品的機械品質和性能可能會受到其他參數變化的影響,例如樹脂與纖維的比例、固化條件和其他因素。嚴格的品管需要更多的測試、檢查和返工,提高了製造成本。
環氧玻璃的生產在使用的額外材料和能源方面都可能造成浪費。製造過程更加昂貴,因為它需要適當的處置並遵守環境法規。由環氧玻璃製成的產品可能很脆弱,在儲存和運輸過程中必須小心處理,以防止損壞。物流成本受這些因素的影響。由於這些原因,高製造成本限制了環氧玻璃市場的成長。
製造流程的進步為環氧玻璃市場創造了絕佳的成長機會。這些進步使得製造流程能夠得到更精確的控制,新技術得到了開發,環氧玻璃的應用範圍也擴大了。傳統技術需要手動安裝玻璃布並用環氧樹脂浸漬,這需要大量的時間和精力。機器人系統利用先進的自動化技術精確定位和浸漬織物。這減少了人為錯誤的可能性,提高了樹脂分佈和織物排列的一致性,形成更堅固、更一致的複合材料結構。
積層製造技術用於製造環氧玻璃和其他複合材料。使用 3D 列印逐層創建複雜的客製化結構,與傳統的減材過程相比,提供了設計彈性並減少了浪費。此外,透過在環氧樹脂中添加奈米顆粒、奈米纖維等奈米材料可以改善材料性能。奈米材料提高了環氧玻璃複合材料的機械強度、導熱性和電氣性能,使其在各種應用中更加有用。由於這些因素,環氧玻璃生產的技術進步為市場創造了利潤豐厚的成長機會。
According to a new report published by Allied Market Research, titled, "Epoxy Glass Market," The epoxy glass market was valued at $12.7 billion in 2022, and is estimated to reach $24.6 billion by 2032, growing at a CAGR of 6.9% from 2023 to 2032.
Epoxy glass is a composite material produced by combining epoxy resin with woven glass fabric. It is also known as FR4 or fiberglass-reinforced epoxy. This combination produces a composite material by combining the strengths of glass fibers with the adhesive and stiff properties of epoxy resin after being injected within the glass fabric and afterwards curing in regulated conditions. Epoxy glass is used in various sectors, including electronics, aviation, automotive, construction, and others.
Epoxy glass is employed more often across a range of industries due to their great mechanical properties, resistance to chemicals and corrosion, durability, and exceptional electrical insulation characteristics leading to the growth of the market. Epoxy glass is utilized in the marine sector owing to its superior mechanical qualities and resilience to external influences. It is widely used in boat and ship construction due to its great combination of strength, light weight, and corrosion resistance. As it has a high tensile strength and is coated with epoxy resin, the woven glass fabric is a great option for hulls, decks, and other structural elements. This improves the overall structural integrity of boats while keeping their weight in control, which helps them move more easily and use less fuel.
One of epoxy glass's key advantages in the marine industry is its resistance to water, salt, and various chemicals usually found in marine conditions. This feature, which helps to stop deterioration, extends the lifespan of marine projects. Since it provides effective insulation against electrical currents, epoxy glass is suitable for applications on ships involving wiring, control panels, and electronic equipment. In addition, epoxy glass is used to construct marine parts including radomes, antenna covers, and communication dishes. It is the ideal choice for preserving dependable communication and navigation systems at sea owing to its dielectric features, that enable signals to be sent with minimal interference. Moreover, the use of epoxy glass improves maintenance and repair of marine vessels easily. Its adhesive properties allow for the smooth bonding of broken pieces, preserving the vessel's structural integrity. Also, the versatility of epoxy glass helps for modification and adaptability to intricate nautical designs.
Epoxy glass is used to build subsea machinery and pipelines in offshore sectors like oil and gas exploration. It is the most suitable means of maintaining the durability and lifespan of these crucial components as to its resistance to corrosion, pressure, and extreme underwater environments. Owing to these factors, epoxy glass is an integral part in the marine sector that drives the growth of the market.
The surge in renewable energy also drives the growth of epoxy glass market. Epoxy glass is the ideal material for constructing wind turbine blades, which are fundamental components in harnessing wind energy for electricity generation. It is used in wind energy owing to its high mechanical strength-to-weight ratio. Wind turbines' blades must be light and durable to withstand the dynamic loads and stresses brought on by shifting wind speeds and turbulence to effectively collect wind energy. Epoxy glass composites, which combine the robustness of glass fibers with the light weight of epoxy resin, create this balance by producing blades that can survive challenging conditions while effectively converting wind energy into electricity.
Wind turbine blades are exposed to various meteorological elements, such as rain, UV rays, and temperature changes. The blades' extended life provides lower maintenance and replacement costs due to epoxy glass' natural resistance to weathering, corrosion, and UV deterioration. For wind farms situated in distant or offshore regions, where maintenance might be difficult and expensive to do, the durability of epoxy glass is especially important.
The excellent electrical insulating properties of epoxy glass enable its use in wind energy. Wind turbine blades usually include sensors, heating elements, and control systems for performance monitoring and management. Epoxy glass reduces electrical leakage and interference, ensuring the safe and dependable operation of these components. Owing to these factors, the rise in demand for renewable energy, particularly wind energy, stimulated the growth of the epoxy glass market.
The high manufacturing cost of epoxy glass restrains the market growth. Epoxy glass is produced by mixing the specialized materials epoxy resin and woven glass fabric. Glass fabric must be woven to precise specifications, while epoxy resin is a polymer that requires precision formulation and processing. The cost of production increases as these materials are costly.
Epoxy glass is created in many ways, such as by coating glass fabric with epoxy resin, curing it under controlled conditions, and even adding shaping and finishing techniques. These operations require specialized equipment, knowledge, and controlled environments, which increases operational costs. Furthermore, rigid quality control procedures are needed to ensure epoxy glass products are of consistently high quality. The mechanical qualities and performance of the finished product can be impacted by changes to other parameters, such as the resin-to-fiber ratio, curing conditions, or other factors. By requiring more testing, inspection, and rework, strict quality control drives up manufacturing costs.
Epoxy glass production may result in waste, both in terms of additional materials used and energy used. The production process is more expensive as proper disposal and adherence to environmental rules are required. Products made of epoxy glass might be delicate, so damage prevention measures must be taken when handling them during storage and shipping. Costs associated with logistics are influenced by these factors. Owing to these reasons, high production cost limits the growth of the epoxy glass market.
The advancements in the manufacturing process created an excellent growth opportunity for the epoxy glass market. These advancements have led to more precise control over the manufacturing process and the development of new techniques, expanding the range of applications for epoxy glass. Traditional techniques involve manually setting up glass fabric and impregnating it with epoxy resin, which demands an immense amount of time and effort. Robotic systems precisely place and saturate the fabric with resin due to advancements in automation technology. By doing this, the possibility of human mistake is decreased, and consistency in resin distribution and fabric alignment is improved, leading to composite constructions that are stronger and more consistent.
The production of epoxy glass and other composite materials uses additive manufacturing techniques. Since complicated and customized structures are created layer by layer using 3D printing, it offers flexibility in design and reduces waste compared to traditional subtractive procedures. Furthermore, the improvement of material characteristics has been made possible by the addition of nanomaterials, such as nanoparticles and nanofibers, into epoxy resin. Epoxy glass composites have their mechanical strength, thermal conductivity, and electrical characteristics enhanced by nanomaterials, making them even more useful in a variety of settings. Owing to these factors, the technological advancements in the manufacturing of epoxy glass presented a lucrative growth opportunity for the market.
The epoxy glass market is segmented by end-use industry and region. Depending on end-use industry, the market is classified into wind energy, aerospace & defense, sporting goods, automotive & transportation, electrical & electronics, pipe & tank, marine, and others. Region wise, the market is analyzed across North America, Europe, Asia-Pacific and LAMEA.
The key players operating in the global epoxy glass market are Axiom Materials, Inc., B.B.Chatterjee Company Private Limited, Harnawa Inc., Hexcel Corporation, Industrial Electrical Engineering Company, ISOSPORT Verbundbauteile GmbH, Panasonic Holdings Corporation, PARK AEROSPACE CORP., Shibaam Polymers, and Ventec International Group.
Additional benefits you will get with this purchase are:
Possible Customization with this report (with additional cost and timeline talk to the sales executive to know more)