Hydrogen production through renewable and non-renewable energy processes and their impact on climate change

The Overall Influence of Using Thermal Energy, Biomass, Geothermal Application, Green Building Architecture on Reducing Industrial Pollution Throughout the Globe

“…The abundant nature of biomass energy increases the reliability of the renewable energy sources along with enhancing the carbon neutral activity. The cause of climate change and global warming to some extent depends on the GHG production that can be minimized by the utilization of biomass energy to maintain the sustainability of the environment [9]. Biomass originated from the plant and considering the correlation of the plant and planet, biomass production as a renewable source is going on that also reflects on the eco environmental balance management.…”

An inclusive review and perspective on Cu-based materials for electrochemical water splitting

“…Natural gas makes up 40% of the total, oil makes up 30%, coal makes up 18%, water electrolysis makes up 4%, and biomass can make up as much as 1% of the total. 14–17…”

“…Natural gas makes up 40% of the total, oil makes up 30%, coal makes up 18%, water electrolysis makes up 4%, and biomass can make up as much as 1% of the total. [14][15][16][17] The development of methods for the large-scale production of hydrogen will make it possible to extract hydrogen from substances that already contain hydrogen on their own. The production of hydrogen can be divided into two categories: those that concentrate on the material from which hydrogen is extracted and those that concentrate on the energy source that drives the extraction process.…”

Metallic plasmons significantly boosted visible-light photocatalytic hydrogen evolution from water splitting

“…[4][5][6] In the past few decades, non-renewable sources have been used to produce H 2 ; however, this depletes fossil fuel supplies and causes serious environmental issues. 7 In 1972, Fujishima et al 8 discovered photo-electrocatalytic H 2 generation from water splitting over a TiO 2 electrode. Recently, researchers have developed various semiconductor-based photocatalysts for H 2 evolution, including conjugated polymers, 9 nitrides, 10 suldes, 11 and oxides; 12 because of their low efficiency, poor stability, low charge separation, and high cost, such materials are restricted in practical applications.…”