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市场调查报告书
商品编码
1403540
2030 年气体分离市场预测:按气体类型、设备、技术、应用、最终用户和地区进行的全球分析Gas Separation Market Forecasts to 2030 - Global Analysis By Gas Type, Equipment, Technology, Application, End User and By Geography |
根据 Stratistics MRC 的数据,2023 年全球气体分离市场规模为 144 亿美元,预计预测期内复合年增长率为 5.9%,到 2030 年将达到 215.1 亿美元。
气体分离是涉及精製单一气体或从混合物中分离气体的基本过程。这项重要技术应用于多种产业,包括医疗保健、环境保护、能源生产和工业製造。此外,气体分离方法包括适合特定应用的多种方法。这些包括膜分离、吸附、蒸馏和低温过程。
深冷分离系统的设计计算是根据单位时间处理的气体量进行的。根据系统设计,给出了热交换器、冷凝槽和冷箱的结构。
气体分离市场受到新兴国家工业化不断发展的推动。製造业的各种流程都需要工业气体,包括电子和汽车产业。此外,这些气体(主要是氮气和氧气)对于焊接、电子组装和金属加工至关重要。随着工厂和製造设施的发展,气体分离技术可以满足对可靠、高纯度气体供应不断增长的需求。
气体分离的方法很多,特别是蒸馏和低温分离,需要大量的能量。除了营运成本增加之外,这种高能源消耗还会导致温室气体排放,符合永续性目标和环境法规。然而,该行业面临着平衡减少环境影响的需求与高效气体分离的需求的挑战。
气体分离技术不断发展,使公司能够提出创造性的解决方案。透过使用人工智慧和自动化、更好的薄膜材料和更有效的製程设计,气体分离系统的效率和成本效益正在提高。此外,这些发展鼓励使用更环保、更有效的分离技术,同时帮助公司保持竞争力。
必须意识到新技术和气体分离替代方案所带来的潜在威胁。传统的气体分离方法可能会受到材料科学、製程工程和节能方面进步的挑战。此外,创新的吸附材料、最先进的薄膜和各种分离技术是一些新兴技术,它们可能透过提供负担得起且永续的解决方案对市场上现有的参与者构成威胁。这就是一个例子。
COVID-19 的爆发对气体分离市场产生了各种影响。封锁和经济不确定性导致生产和能源消耗受到限制,而工业製造和能源等其他行业则出现混乱和需求减少。由于治疗 COVID-19 患者对医用气体的需求增加,医疗/保健气体供应等一些行业的需求增加。此外,由于供应链中断和劳动力流动限制,一些企业面临营运挑战,也影响了设备和材料的采购和维护。
天然气加工业占最大份额。该部门的特点是从原料天然气中分离和精製气体,确保其在分配前符合所需的品质标准。天然气作为一种重要的能源来源,被分离成甲烷、乙烷和丙烷等有价值的成分,并去除二氧化碳、水蒸气和硫化合物等污染物。这些程序确保各种商业、工业和住宅应用中天然气供应的安全和品质。
复合年增长率最高的领域是医疗保健,其中气体分离技术在确保高纯度气体(尤其是氮气和氧气)的稳定供应方面发挥着至关重要的作用。此外,这些气体在许多医疗应用中发挥重要作用,例如麻醉、呼吸治疗以及作为设备的载气。由于全球对患者护理和医疗保健品质的关注以及医疗和保健基础设施的进步,医疗保健行业对气体分离解决方案的需求正在稳步增长。
亚太地区所占份额最大。主要原因是中国、印度等国家的快速都市化和工业化,增加了对工业气体的需求。此外,能源产业的成长,特别是可再生能源和天然气加工领域的成长,也对该地区的市场主导地位发挥了重要作用。
中东和北非 (MENA) 地区预计复合年增长率最高。石化等下游产业的扩张以及油气产业投资的增加是这一成长的主要动力。此外,重点将气体分离技术应用于天然气加工并提高天然气生产效率,促进了该地区的快速成长。
According to Stratistics MRC, the Global Gas Separation Market is accounted for $14.40 billion in 2023 and is expected to reach $21.51 billion by 2030 growing at a CAGR of 5.9% during the forecast period. Gas separation is a basic procedure that includes purifying individual gases or separating gases from gas mixtures. This vital technology is used in many different industries, including healthcare, environmental protection, energy production, and industrial manufacturing. Additionally, diverse approaches, each suited to a particular application, are included in gas separation methods. These include membrane separation, adsorption, distillation, and cryogenic processes.
According to the gas quantity processed in per unit time, the design calculation of the cryogenic separation system was carried out. Based on the system design, the heat exchanger, the condensation tank and the cold box structural were all displayed.
The market for gas separation is driven by the unrelenting rate of industrialization in developing countries. Industrial gases are necessary for a number of processes in the manufacturing sector, which includes the electronics and automotive industries. Moreover, these gases, mainly nitrogen and oxygen, are essential for welding, assembling electronics, and fabricating metal. Gas separation technologies can meet the growing demand for reliable, high-purity gas supplies as factories and manufacturing facilities grow.
Numerous methods of gas separation require a lot of energy, particularly distillation and cryogenic separation. Along with raising operating expenses, this high energy use also contributes to greenhouse gas emissions, which is in line with sustainability objectives and environmental regulations. However, the industry faces a challenge in balancing the need for reduced environmental impact with the requirement for efficient gas separation.
Gas separation technologies are always evolving, which gives businesses the chance to come up with creative solutions. The efficiency and cost-effectiveness of gas separation systems are being improved through the use of artificial intelligence and automation, better membrane materials, and more effective process designs. Furthermore, these developments support businesses in maintaining their competitiveness while also encouraging the use of more environmentally friendly and effective separation techniques.
It is imperative to acknowledge the potential threat posed by emerging technologies and alternative methods of gas separation. Conventional gas separation methods could be challenged by advancements in materials science, process engineering, and energy conservation. Moreover, innovative adsorption materials, cutting-edge membranes, and different separation techniques are a few examples of new techniques that could pose a threat to the market's established players by providing affordable and sustainable solutions.
The COVID-19 pandemic affected the gas separation market in a number of ways. While lockdowns and economic uncertainty caused production and energy consumption to be curtailed, other sectors, like industrial manufacturing and energy, saw disruptions and decreased demand. Some segments, like medical and healthcare gas supply, experienced heightened demand due to the increased need for medical gases in treating COVID-19 patients. Additionally, some companies faced operational challenges as a result of supply chain disruptions and restrictions on workforce mobility, which also had an impact on the sourcing and maintenance of equipment and materials.
The Natural Gas Processing segment holds the largest share. The separation and purification of gases from raw natural gas, which guarantees that it satisfies the necessary quality standards prior to distribution, characterizes this segment. An essential energy source, natural gas is separated into its valuable components, such as methane, ethane, and propane, and contaminants like carbon dioxide, water vapor, and sulfur compounds are removed. For a variety of commercial, industrial, and residential uses, the safety and quality of the natural gas supply are guaranteed by these procedures.
The Segment with the highest CAGR is healthcare, as it is the vital role that gas separation technologies play in ensuring a steady supply of high-purity gases, especially nitrogen and oxygen. Moreover, these gases play a critical role in many medical applications, such as anesthesia, respiratory therapy, and device carrier gas. The global emphasis on patient care and healthcare quality, along with the ongoing development of medical treatments and infrastructure, has led to a steady increase in the demand for gas separation solutions in the healthcare sector.
The Asia-Pacific area accounted for the largest share. This was mostly caused by the swift urbanization and industrialization of nations like China and India, which raised the need for industrial gases. Furthermore, the growth of the energy sector, especially in the fields of renewable energy and natural gas processing, also played a significant role in the region's market dominance.
The Middle East and North Africa (MENA) region is anticipated to have the highest CAGR. The expansion of downstream industries like petrochemicals and rising investments in the oil and gas sector were the main drivers of this growth. Moreover, the region's rapid growth was facilitated by its emphasis on applying gas separation technologies to the processing of natural gas and increasing the productivity of gas production.
Some of the key players in Gas Separation market include Linde plc, Air Products and Chemicals, Inc, Air Liquide S.A., UOP LLC (Honeywell UOP), Parker Hannifin Corporation, AirSep Corporation, Matheson Tri-Gas, Inc., Cryotec Anlagenbau GmbH, Wartsila Corporation, Xebec Adsorption Inc., Generon IGS, PCI Gases and IGS CNG Services.
In July 2023, Linde plc (LIN) announced that it has signed two major agreements in Brazil for the supply of renewable energy. The new agreements are expected to result in an increase of more than 60% in Linde's global active renewable energy.
In June 2023, Honeywell International Inc. HON has entered into a definitive agreement to acquire heads-up-display assets of Swedish aerospace and defense company Saab Technology. The financial terms of the transaction are kept under wraps. The HUD system reduces the workload for pilots, helps them with increased situational awareness and increases flight safety.
In February 2023, Air Liquide and Sasol have signed two Power Purchase Agreements (PPA) with Total Energies and its partner Mulilo for the long-term supply of a total capacity of 260 MW of renewable power to Sasol's Secunda site, in South Africa, where Air Liquide operates the biggest oxygen production site in the world.