Feasibility Study of the Hydrogen Production Using Solar Thermal
Abstract
Nowadays, more CO2 is emitted to the atmosphere than what can be absorbed, which contributes to global warming. Thus, a new balance in this quantities must be found to compensate these emissions. This goal can be achieved by reducing the CO2 emitted through more renewable energies, more energy efficiency, cleaner transport, greener farming and circular economy; while compensating the emissions we can’t avoid. These can be accomplished by protecting our ecosystems and investing in innovation and research. One of the most powerful and encouraging renewable source is the hydrogen and its applications. Currently, H2 is used mainly in the chemical industry for the
production of ammonia and methanol. Nevertheless, in the near future hydrogen is expected to become a significant fuel that will largely contribute to the quality of atmospheric air. Hydrogen as a chemical element (H) is the most abundant one on the earth and as molecular dihydrogen (H2) can be obtained from both renewable
and nonrenewable sources.
Feasibility Study of the Hydrogen Production Using Solar Thermal
Abstract
Nowadays, more CO2 is emitted to the atmosphere than what can be absorbed, which contributes to global warming. Thus, a new balance in this quantities must be found to compensate these emissions. This goal can be achieved by reducing the CO2 emitted through more renewable energies, more energy efficiency, cleaner transport, greener farming and circular economy; while compensating the emissions we can’t avoid. These can be accomplished by protecting our ecosystems and investing in innovation and research. One of the most powerful and encouraging renewable source is the hydrogen and its applications. Currently, H2 is used mainly in the chemical industry for the
production of ammonia and methanol. Nevertheless, in the near future hydrogen is expected to become a significant fuel that will largely contribute to the quality of atmospheric air. Hydrogen as a chemical element (H) is the most abundant one on the earth and as molecular dihydrogen (H2) can be obtained from both renewable
and nonrenewable sources.
Alarp for Engineers: A Technical Safety Guide
This document explains the UK legal obligation to reduce risks So Far As Is Reasonably Practicable (SFAIRP), which is more commonly known as As Low As Reasonably Practicable (ALARP), in an engineering context. Nevertheless, the principles and methodologies discussed here could be regarded as sound practice, regardless of a country’s legislative regime.
Alarp for Engineers: A Technical Safety Guide
This document explains the UK legal obligation to reduce risks So Far As Is Reasonably Practicable (SFAIRP), which is more commonly known as As Low As Reasonably Practicable (ALARP), in an engineering context. Nevertheless, the principles and methodologies discussed here could be regarded as sound practice, regardless of a country’s legislative regime.
Transformers
This module presents the following topics:
•Principle of Operation
•Types of Transformers
•Operating Considerations and Limitations
Transformers
This module presents the following topics:
•Principle of Operation
•Types of Transformers
•Operating Considerations and Limitations