The Hydrogen Storage Market size was valued at USD 14.3 Mn. in 2021 and the total Hydrogen Storage revenue is expected to grow at a CAGR of 7.97% from 2022 to 2029, reaching nearly USD 26.40 Bn.
Hydrogen Storage Market Overview:Hydrogen is an energy carrier, not a fundamental source of energy. Hydrogen may be created using a wide range of fossil fuels and other main energy sources. Electrolysis may also be used to create hydrogen using electricity. Hydrogen can help to address a variety of key energy concerns since it is utilized to decarbonize a variety of industries including transportation, iron and steel, and chemicals. It can aid in the fluctuating production of renewables like solar photovoltaic and wind power. Hydrogen is one of the greatest solutions for storing renewable energy and is positioned to become the most cost-effective option for storing significant amounts of power over longer periods of time. Meanwhile, water electrolysis is the most adaptable and long-term alternative for storing renewable energy on a wide scale. The increasing consumption of renewable energy to offset rising GHG emissions is expected to raise demand for an energy storage system. Additionally, favorable government regulations and initiatives aimed at reducing carbon emissions are expected to drive the hydrogen storage market throughout the forecast period. For example, on May 10, 2016, the United Kingdom government announced a $2.21 million investment to build an extra 100 hydrogen fuel cell vehicles and vans over the next few years. In addition, stringent pollution rules in China, South Korea, Japan, and India, as well as rising demand for ammonia and methanol, are expected to drive the hydrogen storage market growth. As a result, with increased government measures to promote the use of hydrogen storage technologies, the hydrogen storage market has a high growth potential during the forecast period. One of the most recent trends in the hydrogen storage industry is an increased emphasis on research and development (R&D) for the development of hydrogen storage technology, as well as an increase in the use of hydrogen storage in solid form. The United States, the United Kingdom, India, and others have placed a high priority on R&D for technical improvements in hydrogen and fuel cell technology. The National Renewable Energy Laboratory (NREL), for example, is working with the US Department of Energy to develop cost-effective, high-performance fuel cells and hydrogen technologies for transportation and portable power applications. In recent years, there has been a growth in the adoption of hydrogen storage in the transportation industry. This is due to its use in powering fuel cell cars due to its great storage performance and inexpensive cost. Additionally, according to the World Nuclear Association, the need for hydrogen in the generation of transport fuels from crude oil is expected to grow rapidly by 2029, driving the growth of the hydrogen storage market. To know about the Research Methodology:-Request Free Sample Report
Hydrogen Storage Market Dynamics:Large-scale applications of hydrogen across various industries Hydrogen is widely utilized in many industrial sectors, including oil, chemicals, food, plastics, metals, electronics, glass, and power generation. However, with the increased need to minimize carbon emissions, hydrogen is being utilized in new and interesting ways to manufacture both old and new products. Hydrogen may also be utilized in large-scale energy conversion applications, such as direct combustion in internal combustion engines or fuel cells in the automotive industry. The major benefits of combustion engines over fuel cells are their lower cost and less severe purity requirements for hydrogen. Another potential new application is the production of concrete, which is a very carbon-intensive process that is ripe for decarbonization using hydrogen.
As the result, the increasing demand for hydrogen across various industries driving the hydrogen storage market during the forecast period. Hydrogen as an alternative to Fossil Fuel Global population growth and growing demand for clean energy, industrial outputs, and consumer use have resulted in a general increase in environmental and anthropogenically generated greenhouse gas emissions. Likewise, industrialized, advanced, and developing countries are looking for fossil fuel and petroleum resources to serve their aviation, electric utilities, industrial sectors, and consumer processing needs. As developing technology developments in clean energy technologies continue, there is a growing trend to overcome these challenging concerns. Hydrogen is expected to be used as a primary fuel in future energy carrier material research and manufacturing processes in a variety of production applications. As a result, an increase in the adoption of hydrogen storage as a substitute for fossil fuels among a wide range of end-users is expected to drive the hydrogen storage market during the forecast period. This is due to the fact that hydrogen storage provides various benefits that fossil fuel does not. This is going to be a key factor driven by a rise in the consumption of hydrogen storage as a substitute for the use of fossil fuels. Besides that, rising energy demand, volatile fossil fuel prices, and massive greenhouse gas (GHG) emissions from fossil-fuel-powered automobiles and industries are expected to be major drivers for the adoption of hydrogen storage as an alternative to fossil fuel, driving the hydrogen storage market during 2022-2029. High demand for Environmentally Friendly Power Sources The increased awareness of sustainable energy services is also a driving factor for hydrogen storage industrial growth. This is due to the growing popularity of renewable energy around the world. Hydrogen energy may improve the electrical grid and the transportation sector in the long term. The growing focus that governments across the world are placing on environmentally friendly electricity generation is expected to drive the hydrogen storage market growth during the forecast period. This is because governments in every part of the world are actively attempting to reduce their environmental effect by emitting carbon dioxide. Several reasons, including this, are driving the market's rise significantly during the forecast period. Rising governmental initiatives around the world The Energy Storage Organisation, the United States national trade association for the energy storage industry, submitted the Energy Storage Tax Incentive and Deployment Act in 2019. The purpose of this measure is to increase the adoption of energy storage technology. The bill's sponsors want to encourage and make more accessible the usage of energy storage technology. The bill's supporters have stated that they expect it would stimulate and facilitate the use of different energy storage technologies. This act states that regardless of the type of energy stored, any technique of storing energy, including hydrogen storage, shall be eligible for financial incentives. These requirements apply to all energy storage methods, including hydrogen storage. These restrictions apply to all energy storage methods, including hydrogen storage. As a result of their respective impacts, recent developments, and rising government initiatives are expected to result in the emergence of new market opportunities for the hydrogen storage market during the forecast period. High Capital Cost of keeping the liquid from vaporizing The total amount of energy that fuel cells can produce from hydrogen and then use to meet the needs of commercial and residential buildings is extremely low. The energy source for fuel cells is hydrogen. However, due to the high insulation costs necessary to avoid vaporization, the market for storing hydrogen energy in liquid form has significant capital costs. These expenses are required to keep the liquid from vaporizing. These expenses are required to keep the liquid from evaporating, which would be undesirable. For example, according to the Department of Energy in the United States, the cost of storing hydrogen of the solid kind is USD 2.1/kg for a flow rate of 10 kg/hr. This pricing includes a storage capacity of 10 kilos per hour. Even at a flow rate of 10,000 kg per hour, the cost of storing hydrogen in solid form remains around USD 2.1/kg. Even though there is a decrease in flow rate, this is still the case. As a result, the high capital cost of keeping the liquid from vaporizing is expected to restrict market growth.
Industry Uses Metals Heat treatment to improve ductility and machining quality, increase the tensile strength, relieve stress, and harden, changing electrical or magnetic characteristics. Welding torches, Oxygen scavengers, The reductive atmosphere for the production of iron, molybdenum, etc. Plastics It is cracking used plastics to produce lighter molecules that can be recycled. Synthesize nylons, polyesters, polyurethane, and polyolefin. Glass Heat treatment of optical fibers. The reductive atmosphere for the float glass process. High-temperature cutting torches, Glass polishing. Electronics Heat bonding materials. Epitaxial growth of polysilicon. Manufacture of vacuum tubes. Electric power Nuclear fuel processing Coolant for large generation of motors. Food Conversion of edible oils to fats. Conversion of tallow and grease to animal feed. Conversion of sugar to polyols. Oil Hydrocracking of large hydrocarbons to fuel distillates. Removal of sulfur and other impurities.
Hydrogen Storage Market Segment Analysis:Based on Application, the Chemical industry segment dominated the global hydrogen storage market with the highest market share of about 42% in 2021. The segment is further expected to grow at a CAGR of about 7.85% and maintain its dominance at the end of the forecast period. The chemical industry is crucial in generating innovative solutions to allow the transition to a sustainable and circular economy, but it has a significant challenge to achieve net zero emissions. Only a fraction of the net-zero aim can be met by energy efficiency, bio-based feedstock, and material loop closure, emphasizing the importance of alternative technologies such as hydrogen, carbon capture, and electrification in the chemical industry. Approximately 10 million tonnes of hydrogen are already utilized in the EU industry, mostly as a fuel for ammonia production and in the refining industry. Blue and green hydrogen are the two main low-CO2 alternatives to grey hydrogen, which now account for 95% of hydrogen generation. The energy revolution and path to net-zero have also resulted in new potential roles for low-CO2 hydrogen, and the hydrogen market and hydrogen storage market is expected to grow considerably by the end of the forecast period, with hydrogen becoming the primary energy carrier of the future EU energy system. Industry (heat, steam, reducing agent in the steel industry), sustainable fuels for transportation (primarily shipping, long-distance road transport, and aviation), sustainable chemical feedstock (methanol, ammonia), and, to a lesser extent, hydrogen as a storage medium to enable the transition to renewable energy, are the three major demand drivers and expected to drive the global hydrogen storage market. The emerging hydrogen economy is supported by global and regional governmental efforts, with a USD 450 billion investment required by 2030. The growing number of hydrogen projects being started or announced in the chemical sector demonstrates the industry's interest in hydrogen and emphasizes the need to move quickly. Countries outside of Europe are also formalizing hydrogen policies and initiatives, with China's need for hydrogen expected to reach 60 million tonnes per year by 2050. Chemical businesses are particularly positioned to capitalize on the potential of the burgeoning hydrogen economy, and by doing so, they may gain a competitive edge. A collection of strategic decisions cascading down from "aspiration" to "where to play" to "how to win" to "how to configure" aids in the systematic and intentional establishment of the proper business direction and strategy. Hydrogen is not only a critical enabler for the industry to achieve net-zero emissions, but it is also an essential potential for chemical businesses to establish new sustainable revenue streams. New business and pricing models may be economically adopted by making informed decisions based on the potential and willingness to pay for diverse markets, as well as by concentrating on client centricity. Chemical businesses may use their strong global assets, interconnected supply networks, current sales and distribution, hands-on technical experience, and so on to jumpstart their future position in the hydrogen economy and make the profitable change to a more sustainable portfolio.
Hydrogen Storage Market Regional Insights:The Asia-Pacific region held the largest market share of the hydrogen storage market in 2021. The region is expected to be at a CAGR of about 7.89% and dominated the market at the end of the forecast period. An increasing population, rising energy needs, growing industrial sectors, manufacturing plants, and rapid economic development are expected to be the key factors driving the Asia-Pacific hydrogen storage market during the forecast period. By 2050, hydrogen will be a key component of energy markets across the world, allowing many countries to maximize their natural resources and lessen their dependency on imported oil and gas while opening up new opportunities for others to import energy. China, as the world's largest primary energy consumer, is expected to be the largest single market for clean hydrogen by 2050, with a demand for 200 million tonnes (MT) of clean hydrogen, followed by Europe and North America, each with a demand for 100 MT of clean hydrogen, India with 55 MT, and Japan and South Korea with 35 MT. By 2050, the rest of the world, including Latin America, the Middle East, Oceania, and Southeast Asia, will account for approximately 175 MT of total hydrogen demand and drive the global hydrogen storage market. Most government programs are aimed at creating low-carbon hydrogen. Measures to boost demand are getting less attention. Japan, Korea, France, and the Netherlands have set FCEV deployment goals. However, increasing the importance of low-carbon hydrogen in clean energy transitions necessitates a significant shift in sales. Governments are starting to declare a wide range of policy tools, such as carbon pricing, auctions, quotas, mandates, and public procurement requirements. The majority of these policies have not yet taken effect. Their swift and broad implementation might pave the way for new projects to ramp up hydrogen consumption and propel the hydrogen storage market throughout the forecast period. Green hydrogen is the most competitive kind of hydrogen in the long term due to India's specific edge in low-cost renewable energy generation. As a result, India has the potential to be one of the world's most competitive producers of green hydrogen. Green hydrogen has the potential to reach cost parity with natural gas-based hydrogen (grey hydrogen) by 2030, if not before. Aside from the cost, because hydrogen is only as clean as the source from which it is produced, green hydrogen will be required to build a genuinely low-carbon economy. It will also allow for the development of a domestically generated energy carrier, which would minimize reliance on imports for essential commodities such as natural gas and petroleum. Hydrogen demand in India could grow more than fourfold by 2050, representing almost 10% of global hydrogen demand. Initial demand growth is expected from existing sectors such as refineries, ammonia, and methanol, which currently use hydrogen as a feedstock and in chemical processes. Steel and heavy-duty transportation are expected to generate the majority of demand increase, in the long run, accounting for over 52% of total demand by 2050.
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Hydrogen Storage Market Report Coverage Details Base Year: 2021 Forecast Period: 2022-2029 Historical Data: 2017 to 2021 Market Size in 2021: US $ 14.3 Bn. Forecast Period 2022 to 2029 CAGR: 7.97% Market Size in 2029: US $ 26.40 Bn. Segments Covered: by Physical State • Compression • Liquefaction • Material Based by Technology • Compression • Liquefaction • Material Based by Type of Storage • Cylinder • Merchant • On-Site • On-Board by Application • Chemicals • Oil Refining • Industrial • Transportation • Metal Working
Hydrogen Storage Market, by Region• North America • Europe • Asia Pacific • Middle East and Africa • South America
Hydrogen Storage Market Key Players are:• Pragma Industries (France) • Areva S.A. (France) • Mcphy Energy S.A (France) • Air Liquide S.A. (France) • Hydrogenious Technologies (Germany) • Sigma-Aldrich Co.-Merck Group (Germany) • Sigma-Aldrich Co.-Merck Group (Germany) • Luxfer Holdings Plc (UK) • Oy Hydrocell Ltd. (Finland) • Linde plc (Ireland) • Hexagon Composites ASA (Norway) • Air Products and Chemicals, Inc. (US) • Worthington Industries, Inc. (US) • Plug Power Inc. (US) • General Motors (US) • Praxair S.T. Technology, Inc. (US) • American Elements (US) • ADA Technologies, Inc. (US) • Panasonic (Japan) • Toshiba Corporation (Japan) • INOXCVA (India) • Hbank Technologies Inc. (Taiwan) • Hanwha Solutions Chemical Devision (South Korea) • Hydrexia (Australia) FAQs: 1. What are the growth drivers for the Hydrogen Storage market? Ans. The growing installation of renewable energy around the world to mitigate the rising GHG emission, favorable government policies and goals aiming to minimize carbon emissions set, stringent emission regulations in China, South Korea, Japan, and India, and the increasing demand for ammonia and methanol are expected to be the major driver for the Hydrogen Storage market. 2. What is the major restraint for the Hydrogen Storage market growth? Ans. The high capital costs to keeping liquid from vaporizing are expected to be the major restraining factor for the Hydrogen Storage market growth. 3. Which region is expected to lead the global Hydrogen Storage market during the forecast period? Ans. The Asia-Pacific market is expected to lead the global Hydrogen Storage market during the forecast period due to the growing industrial sector, the rising demand for power energy sources, increased number of manufacturing plants in the Asia-Pacific region increasing the demand for Hydrogen Storage. 4. What is the projected market size & growth rate of the Hydrogen Storage Market? Ans. The Hydrogen Storage Market size was valued at USD 14.3 Bn. in 2021 and the total Hydrogen Storage revenue is expected to grow at a CAGR of 7.97% from 2022 to 2029, reaching nearly USD 26.40 Bn. 5. What segments are covered in the Hydrogen Storage Market report? Ans. The segments covered in the Hydrogen Storage market report are Physical State, Storage Form, Type of Storage, Application, and Region.
1. Global Hydrogen Storage Market: Research Methodology 2. Global Hydrogen Storage Market: Executive Summary 2.1 Market Overview and Definitions 2.1.1. Introduction to Global Hydrogen Storage Market 2.2. Summary 2.2.1. Key Findings 2.2.2. Recommendations for Investors 2.2.3. Recommendations for Market Leaders 2.2.4. Recommendations for New Market Entry 3. Global Hydrogen Storage Market: Competitive Analysis 3.1 MMR Competition Matrix 3.1.1. Market Structure by region 3.1.2. Competitive Benchmarking of Key Players 3.2 Consolidation in the Market 3.2.1 M&A by region 3.3 Key Developments by Companies 3.4 Market Drivers 3.5 Market Restraints 3.6 Market Opportunities 3.7 Market Challenges 3.8 Market Dynamics 3.9 PORTERS Five Forces Analysis 3.10 PESTLE 3.11 Regulatory Landscape by region • North America • Europe • Asia Pacific • The Middle East and Africa • South America 3.12 COVID-19 Impact 4. Global Hydrogen Storage Market Segmentation 4.1 Global Hydrogen Storage Market, by Physical State (2021-2029) • Compression • Liquefaction • Material Based 4.2 Global Hydrogen Storage Market, by Technology (2021-2029) • Compression • Liquefaction • Material Based 4.3 Global Hydrogen Storage Market, by Type of Storage (2021-2029) • Cylinder • Merchant • On-Site • On-Board 4.4 Global Hydrogen Storage Market, by Application (2021-2029) • Chemicals • Oil Refining • Industrial • Transportation • Metal Working 5. North America Hydrogen Storage Market(2021-2029) 5.1 North America Hydrogen Storage Market, by Physical State (2021-2029) • Compression • Liquefaction • Material Based 5.2 North America Hydrogen Storage Market, by Technology (2021-2029) • Compression • Liquefaction • Material Based 5.3 North America Hydrogen Storage Market, by Type of Storage (2021-2029) • Cylinder • Merchant • On-Site • On-Board 5.4 North America Hydrogen Storage Market, by Application (2021-2029) • Chemicals • Oil Refining • Industrial • Transportation • Metal Working 5.5 North America Hydrogen Storage Market, by Country (2021-2029) • United States • Canada • Mexico 6. Europe Hydrogen Storage Market (2021-2029) 6.1. European Hydrogen Storage Market, by Physical State (2021-2029) 6.2. European Hydrogen Storage Market, by Technology (2021-2029) 6.3. European Hydrogen Storage Market, by Type of Storage (2021-2029) 6.4. European Hydrogen Storage Market, by Application (2021-2029) 6.5. European Hydrogen Storage Market, by Country (2021-2029) • UK • France • Germany • Italy • Spain • Sweden • Austria • Rest Of Europe 7. Asia Pacific Hydrogen Storage Market (2021-2029) 7.1. Asia Pacific Hydrogen Storage Market, by Physical State (2021-2029) 7.2. Asia Pacific Hydrogen Storage Market, by Technology (2021-2029) 7.3. Asia Pacific Hydrogen Storage Market, by Type of Storage (2021-2029) 7.4. Asia Pacific Hydrogen Storage Market, by Application (2021-2029) 7.5. Asia Pacific Hydrogen Storage Market, by Country (2021-2029) • China • India • Japan • South Korea • Australia • ASEAN • Rest Of APAC 8. Middle East and Africa Hydrogen Storage Market (2021-2029) 8.1 Middle East and Africa Hydrogen Storage Market, by Physical State (2021-2029) 8.2. Middle East and Africa Hydrogen Storage Market, by Technology (2021-2029) 8.3. Middle East and Africa Hydrogen Storage Market, by Type of Storage (2021-2029) 8.4. Middle East and Africa Hydrogen Storage Market, by Application (2021-2029) 8.5. Middle East and Africa Hydrogen Storage Market, by Country (2021-2029) • South Africa • GCC • Egypt • Nigeria • Rest Of ME&A 9. South America Hydrogen Storage Market (2021-2029) 9.1. South America Hydrogen Storage Market, by Physical State (2021-2029) 9.2. South America Hydrogen Storage Market, by Technology (2021-2029) 9.3. South America Hydrogen Storage Market, by Type of Storage (2021-2029) 9.4. South America Hydrogen Storage Market, by Application (2021-2029) 9.5. South America Hydrogen Storage Market, by Country (2021-2029) • Brazil • Argentina • Rest Of South America 10. Company Profile: Key players 10.1 Pragma Industries 10.1.1. Company Overview 10.1.2. Financial Overview 10.1.3. Global Presence 10.1.4. Capacity Portfolio 10.1.5. Business Strategy 10.1.6. Recent Developments 10.2 Hydrogenious Technologies 10.3 Air Liquide Group 10.4 Hydrocell 10.5 Texaco Ovonic Hydrogen Systems L.L.C. 10.6 Air Products 10.7 Praxair, Inc. 10.8 Worthington Industries, Inc. 10.9 Luxfer Holdings Plc 10.10 Linde 10.11 Panasonic, 10.12 Toshiba 10.13 General Motors 10.14 H2ME 10.15 INOXCVA 10.16 VRV S.p.A 10.17 Hexagon Composites ASA 10.18 Hbank Technologies Inc. 10.19 Mcphy Energy S.A 10.20 Hydrexia 10.21 Plug Power 10.22 Areva 10.23 Hexagon Composites 10.24 SiGNa Chemistry