A Green Hydrogen Energy System: Optimal control strategies for integrated hydrogen storage and power generation with wind energy

Schrotenboer, Albert H.; Veenstra, Arjen A.T.; Broek, Michiel A. J. uit het; Ursavas, Evrim

doi:10.1016/j.rser.2022.112744

Cited by 148 publications

(34 citation statements)

References 52 publications

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“…Water is one of the stable substances which requires a large amount of energy to break its molecules; therefore, solar and wind energy would be appropriate for its splitting into hydrogen and oxygen in the long run. [12,13] Green hydrogen generation from solar energy is shown in Figure 2. It is estimated that 1000 g of H 2 can be obtained with 39 kW h of electricity from %9 L of water provided the electrolyzer works with 100% efficiency at 25 °C and 1 atm pressure.…”

Section: Green Hydrogenmentioning

confidence: 99%

Hydrogen Production, Purification, Storage, Transportation, and Their Applications: A Review

2023

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The world is looking for clean and green energy as substitution for fossil fuels to minimize the greenhouse effect and climate changes threatening our existence. Solar energy, wind energy, and hydrogen gas‐based energy are few examples of promising sources of energy alternatives to fossil fuels. Hydrogen gas‐based energy is in focus today due to its availability in plenty of combined forms such as water, hydrocarbons, natural gases, etc. However, its storage and transportation are major challenges due to the low volumetric density and explosive nature of hydrogen. The scientific community is in search of suitable, economically viable, and energy‐efficient storage systems and transportation of hydrogen gas. Based on numerous studies, surface adsorption of hydrogen by high surface area nanoporous solids such as carbon and metal–organic framework (MOF)‐based nanofiber materials are most suitable for storage applications. Electrospinning process provides a gateway for the preparation of lightweight, highly porous nanofibers for efficient hydrogen adsorption. Herein, the production and use of electrospun polymer nanofibers and MOFs for the storage and transportation of hydrogen are presented.

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Section: Green Hydrogenmentioning

confidence: 99%

Hydrogen Production, Purification, Storage, Transportation, and Their Applications: A Review

2023

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“…where P LOAD (t) and H LOAD (t) are the electrical and thermal loads of the system at time t, respectively; P WTQ (t) is the abandoned air volume of the system at time t. Among them, the scenario considering the thermal inertia of the building does not need to consider the thermal power balance constraint, and eqn (3)(4)(5)(6)(7)(8)(9)(10)(11) applies to the scenario not considering the thermal inertia of the building.…”

Section: Constraintsmentioning

confidence: 99%

Integrated energy system operation considering building thermal inertia and hydrogen storage systems

Wang¹,

Qin²,

Wang³

et al. 2023

Sustainable Energy Fuels

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“…Second, the flexible and corresponding characteristics of hydrogen production from electrolytic water are brought into play to smooth out the fluctuation of renewable energy output [13]. Third, making full use of abandoned wind and light resources can improve the renewable energy consumption rate [14]. Based on the above analysis, it can be found that the cost of green hydrogen is the bottleneck of development.…”

Section: Literature Review 21 Coupling Of Green Hydrogen Market and E...mentioning

confidence: 99%

What Is the Policy Effect of Coupling the Green Hydrogen Market, National Carbon Trading Market and Electricity Market?

Wang

Feng

et al. 2022

Sustainability

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Green hydrogen has become the key to social low-carbon transformation and is fully linked to zero carbon emissions. The carbon emissions trading market is a policy tool used to control carbon emissions using a market-oriented mechanism. Building a modular carbon trading center for the hydrogen energy industry would greatly promote the meeting of climate targets. Based on this, a “green hydrogen market—national carbon trading market–electricity market” coupling mechanism is designed. Then, the “green hydrogen market—national carbon trading market–electricity market” mechanism is modeled and simulated using system dynamics. The results are as follows: First, coupling between the green hydrogen market, carbon trading market and electricity market can be realized through green hydrogen certification and carbon quota trading. It is found that the coupling model is feasible through simulation. Second, simulation of the basic scenario finds that multiple-market coupling can stimulate an increase in carbon price, the control of thermal power generation and an increase in green hydrogen production. Finally, the proportion of the green hydrogen certification, the elimination mechanism of outdated units and the quota auction mechanism will help to form a carbon pricing mechanism. This study enriches the green hydrogen trading model and establishes a multiple-market linkage mechanism.

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A Green Hydrogen Energy System: Optimal control strategies for integrated hydrogen storage and power generation with wind energy

Cited by 148 publications

References 52 publications

Hydrogen Production, Purification, Storage, Transportation, and Their Applications: A Review

Hydrogen Production, Purification, Storage, Transportation, and Their Applications: A Review

Integrated energy system operation considering building thermal inertia and hydrogen storage systems

What Is the Policy Effect of Coupling the Green Hydrogen Market, National Carbon Trading Market and Electricity Market?

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