GITNUXREPORT 2026

Hydrogen Industry Statistics

Today's hydrogen industry is still dominated by polluting production, but major investment is flowing into a cleaner future.

Rajesh Patel

Rajesh Patel

Team Lead & Senior Researcher with over 15 years of experience in market research and data analytics.

First published: Feb 13, 2026

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Key Statistics

Statistic 1

Steel production via hydrogen-based DRI could require 15-20 Mt H2 by 2050.

Statistic 2

Heavy-duty trucks: Hydrogen fuel cell trucks range 500-1000 km, vs 400 km battery.

Statistic 3

Shipping: Hydrogen could meet 20% of energy needs by 2050, saving 4 GtCO2.

Statistic 4

Aviation: Synthetic kerosene from H2 could cover 10% of fuels by 2050.

Statistic 5

Power generation: Hydrogen turbines tested at 100% H2 combustion by GE.

Statistic 6

Residential heating: H2 boilers achieve 90% efficiency in trials.

Statistic 7

Ammonia production consumes 55 Mt H2 yearly, 30% of total demand.

Statistic 8

Methanol production uses 10 Mt H2 annually globally.

Statistic 9

Fuel cell vehicles: 65,000 FCEVs on roads globally in 2023, mostly in Asia.

Statistic 10

Hydrogen buses: Over 1,000 operational worldwide in 2023.

Statistic 11

Trains: 50 hydrogen trains in Germany covering 3 million km since 2018.

Statistic 12

Forklifts: 50,000 H2 fuel cell forklifts in use, mainly US warehouses.

Statistic 13

Data centers: H2 fuel cells provide backup power for 100 MW capacity in pilots.

Statistic 14

Glass industry: H2 can replace 30% natural gas in furnaces.

Statistic 15

Cement: Hydrogen plasma process reduces CO2 by 90% in trials.

Statistic 16

Mining: H2 haul trucks prototyped for 100% zero-emission operations.

Statistic 17

Green hydrogen for fertilizers could decarbonize 1.7 GtCO2/year.

Statistic 18

The global hydrogen market size was valued at $155.38 billion in 2022.

Statistic 19

Hydrogen market projected to grow at 8.7% CAGR to $317.39 billion by 2030.

Statistic 20

Green hydrogen production costs dropped 15% from 2020-2022 to $3-6/kg.

Statistic 21

Investments in hydrogen reached $25 billion globally in 2022.

Statistic 22

The US Hydrogen Hubs program allocated $7 billion for 7 regional hubs.

Statistic 23

Europe's hydrogen demand expected to reach 10 Mt by 2030.

Statistic 24

Asia-Pacific holds 40% share of global hydrogen market revenue.

Statistic 25

Cost of blue hydrogen with CCS is $1.5-3/kg in favorable locations.

Statistic 26

Traded hydrogen volume was negligible in 2022, but projected 5 Mt by 2030.

Statistic 27

Refining sector consumes 35% of global hydrogen, ammonia 30%.

Statistic 28

Hydrogen derivatives market (e-fuels) to reach $1 trillion by 2050.

Statistic 29

Levelized cost of hydrogen (LCOH) for green H2 in Europe: €3.5-7/kg by 2030.

Statistic 30

Global electrolyzer market revenue hit $1.2 billion in 2022.

Statistic 31

South Korea's hydrogen economy roadmap targets 5 Mt consumption by 2030.

Statistic 32

Hydrogen storage market valued at $15.5 billion in 2023, CAGR 12.5%.

Statistic 33

Over 1,300 hydrogen projects announced globally totaling 400 Mt capacity by 2030.

Statistic 34

Private investments in H2 startups exceeded $10 billion since 2015.

Statistic 35

Transport sector to drive 20% of hydrogen demand growth by 2030.

Statistic 36

Refineries use 50 Mt hydrogen annually worldwide.

Statistic 37

Chemicals industry (ammonia, methanol) consumes 45 Mt H2 per year.

Statistic 38

Green H2 avoids 830 MtCO2/year if replacing all grey H2.

Statistic 39

EU REPowerEU plan targets 20 Mt H2 imports + 10 Mt domestic by 2030.

Statistic 40

US IRA tax credit: $3/kg for clean H2 with 4 kgCO2e/kg lifecycle emissions.

Statistic 41

Japan subsidies cover 50% capex for FCEVs up to 2030.

Statistic 42

Global H2 standards harmonized under ISO 14687 for fuel quality.

Statistic 43

China 14th FYP mandates 200,000 t/a green H2 capacity by 2025.

Statistic 44

Australia H2 Headstart: $500M for 3 export projects.

Statistic 45

Over 50 countries have national H2 strategies as of 2023.

Statistic 46

H2 could contribute 10% to energy transition, abating 6 GtCO2/year by 2050.

Statistic 47

Life cycle GHG of green H2: <1 kgCO2e/kg with renewables.

Statistic 48

Blue H2 emissions: 10-20 gCO2e/MJ with 90% CCS capture.

Statistic 49

H2 energy share in Net Zero: 14% of final energy by 2050.

Statistic 50

Water use for green H2: 9 L/kg H2 from electrolysis.

Statistic 51

Land use for solar-powered H2: 1-2 ha per MW electrolyzer.

Statistic 52

H2 safety record: No public fatalities from H2 vehicles in 25M km.

Statistic 53

Recycling H2 fuel cells recovers 95% Pt group metals.

Statistic 54

Global H2 certifications issued: Over 100 MtCO2e avoided tracked.

Statistic 55

EU Fit for 55: H2 in industry reduces emissions by 42 MtCO2 by 2030.

Statistic 56

H2 role in SDGs: Supports 8 goals including clean energy (7) and climate (13).

Statistic 57

Global low-carbon H2 production needs $1.2T investment to 2050.

Statistic 58

H2 leakage impact: 11.6x GWP over 100 years, monitored <1% loss.

Statistic 59

In 2022, global hydrogen production reached approximately 95 million tonnes (Mt), with over 99% derived from fossil fuels including natural gas via steam methane reforming (SMR) and coal gasification.

Statistic 60

China accounted for 31% of global hydrogen production in 2020, producing around 24 Mt primarily from coal.

Statistic 61

Steam methane reforming (SMR) represents 76% of dedicated hydrogen production worldwide, emitting about 830 MtCO2 annually.

Statistic 62

The cost of grey hydrogen (from natural gas without CCS) ranged from $1.50 to $2.50 per kg in 2021 in the US and Europe.

Statistic 63

Coal-based hydrogen production dominates in Asia, contributing 45% of global output and emitting 400 MtCO2 per year.

Statistic 64

Electrolysis currently accounts for only 0.1% of global hydrogen production, limited by high electricity costs.

Statistic 65

In 2023, low-emissions hydrogen production was less than 1 Mt globally, mostly from byproduct electrolysis.

Statistic 66

The US produced 10 Mt of hydrogen in 2021, mainly for ammonia and refining sectors.

Statistic 67

Europe's hydrogen production was 2.5 Mt in 2020, with 70% from SMR.

Statistic 68

Australia plans to produce 13.5 Mt of hydrogen by 2050, focusing on exports.

Statistic 69

Japan's hydrogen production capacity is targeted to reach 20 Mt by 2050 via imports and domestic electrolysis.

Statistic 70

India's current hydrogen production is 6.5 Mt annually, 55% from coal.

Statistic 71

The Middle East produces 5 Mt hydrogen yearly, leveraging cheap natural gas.

Statistic 72

Byproduct hydrogen from chlor-alkali plants totals 10 Mt globally per year.

Statistic 73

Water electrolysis efficiency for PEM electrolyzers is 60-70% based on higher heating value (HHV).

Statistic 74

Alkaline electrolysis capital costs fell to $800-1,500/kW in 2022.

Statistic 75

Global electrolyzer manufacturing capacity is 15 GW annually as of 2023.

Statistic 76

Saudi Arabia's NEOM project aims for 2.9 Mt green hydrogen by 2026.

Statistic 77

The EU's IPCEI Hy2Tech approved 40 hydrogen projects worth €7 billion.

Statistic 78

Capacity factors for wind-powered electrolysis average 30-50%.

Statistic 79

PEM fuel cell stack cost reduced to $60/kW in 2022 from $275/kW in 2008.

Statistic 80

Solid oxide electrolyzer (SOEC) efficiency reaches 80-90% HHV.

Statistic 81

Compressed H2 storage at 700 bar achieves 5.6% wt capacity.

Statistic 82

Liquid hydrogen density is 70 kg/m³ at -253°C.

Statistic 83

Metal hydrides store up to 7 wt% H2 at near ambient conditions.

Statistic 84

H2 purity requirements: 99.97% for PEM fuel cells.

Statistic 85

Auto-thermal reforming (ATR) improves SMR efficiency by 10-15%.

Statistic 86

CCUS capture rates for blue H2 reach 95% in advanced plants.

Statistic 87

Photoelectrochemical water splitting efficiency lab record: 19%.

Statistic 88

Biological H2 production yields 10-20 mL/L/h in bioreactors.

Statistic 89

Anion exchange membrane (AEM) electrolyzers cost $500-1000/kW.

Statistic 90

H2 sensors detect down to 0.05% vol with IoT integration.

Statistic 91

Direct air capture + H2 synthesis for e-fuels at $4-6/kg.

Statistic 92

H2 turbines: Siemens SGT5-4000F tested at 60% H2 blend.

Statistic 93

Fuel cell durability: 8,000 hours for automotive PEMFCs.

Statistic 94

H2 pipeline compatibility: Existing NG pipes handle 20% H2 blend.

Statistic 95

Salt cavern storage capacity: Up to 10 TWh globally available.

Statistic 96

H2 liquefaction energy penalty: 30-40% of H2 LHV.

Statistic 97

AI-optimized electrolyzers improve stack life by 20%.

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Hidden behind the clean promise of hydrogen lies a stark reality: while global production hit a staggering 95 million tonnes in 2022, over 99% of it still comes from polluting fossil fuels, casting a long shadow over its role in our energy future.

Key Takeaways

  • In 2022, global hydrogen production reached approximately 95 million tonnes (Mt), with over 99% derived from fossil fuels including natural gas via steam methane reforming (SMR) and coal gasification.
  • China accounted for 31% of global hydrogen production in 2020, producing around 24 Mt primarily from coal.
  • Steam methane reforming (SMR) represents 76% of dedicated hydrogen production worldwide, emitting about 830 MtCO2 annually.
  • The global hydrogen market size was valued at $155.38 billion in 2022.
  • Hydrogen market projected to grow at 8.7% CAGR to $317.39 billion by 2030.
  • Green hydrogen production costs dropped 15% from 2020-2022 to $3-6/kg.
  • Steel production via hydrogen-based DRI could require 15-20 Mt H2 by 2050.
  • Heavy-duty trucks: Hydrogen fuel cell trucks range 500-1000 km, vs 400 km battery.
  • Shipping: Hydrogen could meet 20% of energy needs by 2050, saving 4 GtCO2.
  • PEM fuel cell stack cost reduced to $60/kW in 2022 from $275/kW in 2008.
  • Solid oxide electrolyzer (SOEC) efficiency reaches 80-90% HHV.
  • Compressed H2 storage at 700 bar achieves 5.6% wt capacity.
  • Green H2 avoids 830 MtCO2/year if replacing all grey H2.
  • EU REPowerEU plan targets 20 Mt H2 imports + 10 Mt domestic by 2030.
  • US IRA tax credit: $3/kg for clean H2 with 4 kgCO2e/kg lifecycle emissions.

Today's hydrogen industry is still dominated by polluting production, but major investment is flowing into a cleaner future.

Applications and End-Use Statistics

  • Steel production via hydrogen-based DRI could require 15-20 Mt H2 by 2050.
  • Heavy-duty trucks: Hydrogen fuel cell trucks range 500-1000 km, vs 400 km battery.
  • Shipping: Hydrogen could meet 20% of energy needs by 2050, saving 4 GtCO2.
  • Aviation: Synthetic kerosene from H2 could cover 10% of fuels by 2050.
  • Power generation: Hydrogen turbines tested at 100% H2 combustion by GE.
  • Residential heating: H2 boilers achieve 90% efficiency in trials.
  • Ammonia production consumes 55 Mt H2 yearly, 30% of total demand.
  • Methanol production uses 10 Mt H2 annually globally.
  • Fuel cell vehicles: 65,000 FCEVs on roads globally in 2023, mostly in Asia.
  • Hydrogen buses: Over 1,000 operational worldwide in 2023.
  • Trains: 50 hydrogen trains in Germany covering 3 million km since 2018.
  • Forklifts: 50,000 H2 fuel cell forklifts in use, mainly US warehouses.
  • Data centers: H2 fuel cells provide backup power for 100 MW capacity in pilots.
  • Glass industry: H2 can replace 30% natural gas in furnaces.
  • Cement: Hydrogen plasma process reduces CO2 by 90% in trials.
  • Mining: H2 haul trucks prototyped for 100% zero-emission operations.
  • Green hydrogen for fertilizers could decarbonize 1.7 GtCO2/year.

Applications and End-Use Statistics Interpretation

The hydrogen revolution presents itself as an industrial shapeshifter, quietly promising to forge our steel, propel our ships, and fertilize our fields while asking, with a hint of smugness, if we'd also like our trucks to go farther, our cement cleaner, and our backup generators greener.

Market and Economic Statistics

  • The global hydrogen market size was valued at $155.38 billion in 2022.
  • Hydrogen market projected to grow at 8.7% CAGR to $317.39 billion by 2030.
  • Green hydrogen production costs dropped 15% from 2020-2022 to $3-6/kg.
  • Investments in hydrogen reached $25 billion globally in 2022.
  • The US Hydrogen Hubs program allocated $7 billion for 7 regional hubs.
  • Europe's hydrogen demand expected to reach 10 Mt by 2030.
  • Asia-Pacific holds 40% share of global hydrogen market revenue.
  • Cost of blue hydrogen with CCS is $1.5-3/kg in favorable locations.
  • Traded hydrogen volume was negligible in 2022, but projected 5 Mt by 2030.
  • Refining sector consumes 35% of global hydrogen, ammonia 30%.
  • Hydrogen derivatives market (e-fuels) to reach $1 trillion by 2050.
  • Levelized cost of hydrogen (LCOH) for green H2 in Europe: €3.5-7/kg by 2030.
  • Global electrolyzer market revenue hit $1.2 billion in 2022.
  • South Korea's hydrogen economy roadmap targets 5 Mt consumption by 2030.
  • Hydrogen storage market valued at $15.5 billion in 2023, CAGR 12.5%.
  • Over 1,300 hydrogen projects announced globally totaling 400 Mt capacity by 2030.
  • Private investments in H2 startups exceeded $10 billion since 2015.
  • Transport sector to drive 20% of hydrogen demand growth by 2030.
  • Refineries use 50 Mt hydrogen annually worldwide.
  • Chemicals industry (ammonia, methanol) consumes 45 Mt H2 per year.

Market and Economic Statistics Interpretation

The hydrogen industry, once a molecule trapped in potential, is now a $155 billion teenager on a caffeine-fueled growth spurt, rapidly shedding its green price tag while sprinting toward a future where it promises to power everything from our cars to our chemistry, provided we can build a $1 trillion market for something we currently hardly trade at all.

Policy Environment and Sustainability Statistics

  • Green H2 avoids 830 MtCO2/year if replacing all grey H2.
  • EU REPowerEU plan targets 20 Mt H2 imports + 10 Mt domestic by 2030.
  • US IRA tax credit: $3/kg for clean H2 with 4 kgCO2e/kg lifecycle emissions.
  • Japan subsidies cover 50% capex for FCEVs up to 2030.
  • Global H2 standards harmonized under ISO 14687 for fuel quality.
  • China 14th FYP mandates 200,000 t/a green H2 capacity by 2025.
  • Australia H2 Headstart: $500M for 3 export projects.
  • Over 50 countries have national H2 strategies as of 2023.
  • H2 could contribute 10% to energy transition, abating 6 GtCO2/year by 2050.
  • Life cycle GHG of green H2: <1 kgCO2e/kg with renewables.
  • Blue H2 emissions: 10-20 gCO2e/MJ with 90% CCS capture.
  • H2 energy share in Net Zero: 14% of final energy by 2050.
  • Water use for green H2: 9 L/kg H2 from electrolysis.
  • Land use for solar-powered H2: 1-2 ha per MW electrolyzer.
  • H2 safety record: No public fatalities from H2 vehicles in 25M km.
  • Recycling H2 fuel cells recovers 95% Pt group metals.
  • Global H2 certifications issued: Over 100 MtCO2e avoided tracked.
  • EU Fit for 55: H2 in industry reduces emissions by 42 MtCO2 by 2030.
  • H2 role in SDGs: Supports 8 goals including clean energy (7) and climate (13).
  • Global low-carbon H2 production needs $1.2T investment to 2050.
  • H2 leakage impact: 11.6x GWP over 100 years, monitored <1% loss.

Policy Environment and Sustainability Statistics Interpretation

The green hydrogen hype train is leaving the station, armed with a staggering 830 million tons of potential CO₂ savings per year and an international rulebook, but it's going to need a trillion-dollar ticket and a watchful eye on leaks to actually reach its ambitious destination.

Production Statistics

  • In 2022, global hydrogen production reached approximately 95 million tonnes (Mt), with over 99% derived from fossil fuels including natural gas via steam methane reforming (SMR) and coal gasification.
  • China accounted for 31% of global hydrogen production in 2020, producing around 24 Mt primarily from coal.
  • Steam methane reforming (SMR) represents 76% of dedicated hydrogen production worldwide, emitting about 830 MtCO2 annually.
  • The cost of grey hydrogen (from natural gas without CCS) ranged from $1.50 to $2.50 per kg in 2021 in the US and Europe.
  • Coal-based hydrogen production dominates in Asia, contributing 45% of global output and emitting 400 MtCO2 per year.
  • Electrolysis currently accounts for only 0.1% of global hydrogen production, limited by high electricity costs.
  • In 2023, low-emissions hydrogen production was less than 1 Mt globally, mostly from byproduct electrolysis.
  • The US produced 10 Mt of hydrogen in 2021, mainly for ammonia and refining sectors.
  • Europe's hydrogen production was 2.5 Mt in 2020, with 70% from SMR.
  • Australia plans to produce 13.5 Mt of hydrogen by 2050, focusing on exports.
  • Japan's hydrogen production capacity is targeted to reach 20 Mt by 2050 via imports and domestic electrolysis.
  • India's current hydrogen production is 6.5 Mt annually, 55% from coal.
  • The Middle East produces 5 Mt hydrogen yearly, leveraging cheap natural gas.
  • Byproduct hydrogen from chlor-alkali plants totals 10 Mt globally per year.
  • Water electrolysis efficiency for PEM electrolyzers is 60-70% based on higher heating value (HHV).
  • Alkaline electrolysis capital costs fell to $800-1,500/kW in 2022.
  • Global electrolyzer manufacturing capacity is 15 GW annually as of 2023.
  • Saudi Arabia's NEOM project aims for 2.9 Mt green hydrogen by 2026.
  • The EU's IPCEI Hy2Tech approved 40 hydrogen projects worth €7 billion.
  • Capacity factors for wind-powered electrolysis average 30-50%.

Production Statistics Interpretation

The global hydrogen industry is currently a massive, polluting behemoth, with over 99% of its 95-million-tonne output being fossil-fuel-derived, yet it is flirting with a greener future through fledgling technologies and ambitious plans that currently account for less than one percent of the total.

Technology and Innovation Statistics

  • PEM fuel cell stack cost reduced to $60/kW in 2022 from $275/kW in 2008.
  • Solid oxide electrolyzer (SOEC) efficiency reaches 80-90% HHV.
  • Compressed H2 storage at 700 bar achieves 5.6% wt capacity.
  • Liquid hydrogen density is 70 kg/m³ at -253°C.
  • Metal hydrides store up to 7 wt% H2 at near ambient conditions.
  • H2 purity requirements: 99.97% for PEM fuel cells.
  • Auto-thermal reforming (ATR) improves SMR efficiency by 10-15%.
  • CCUS capture rates for blue H2 reach 95% in advanced plants.
  • Photoelectrochemical water splitting efficiency lab record: 19%.
  • Biological H2 production yields 10-20 mL/L/h in bioreactors.
  • Anion exchange membrane (AEM) electrolyzers cost $500-1000/kW.
  • H2 sensors detect down to 0.05% vol with IoT integration.
  • Direct air capture + H2 synthesis for e-fuels at $4-6/kg.
  • H2 turbines: Siemens SGT5-4000F tested at 60% H2 blend.
  • Fuel cell durability: 8,000 hours for automotive PEMFCs.
  • H2 pipeline compatibility: Existing NG pipes handle 20% H2 blend.
  • Salt cavern storage capacity: Up to 10 TWh globally available.
  • H2 liquefaction energy penalty: 30-40% of H2 LHV.
  • AI-optimized electrolyzers improve stack life by 20%.

Technology and Innovation Statistics Interpretation

The hydrogen industry is finally growing up, shedding its astronomical costs and toy-like efficiencies for practical numbers, with electrolyzers hitting near-perfect efficiencies, storage getting clever with everything from squashable gasses to chemical sponges, and even AI now babysitting the equipment to make the whole show affordable and reliable enough to matter.

Sources & References