Energy conversion - GCAM - Revision history

Matthew Binsted at 17:38, 16 June 2022

2022-06-16T17:38:50Z

← Older revision		Revision as of 19:38, 16 June 2022
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	Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in the documentation are electricity, refining, gas processing, hydrogen production, and district services. For more detail on these sectors, see GCAM's section on [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation energy transformation].		Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in the documentation are electricity, refining, gas processing, hydrogen production, and district services. For more detail on these sectors, see GCAM's section on [http://jgcri.github.io/gcam-doc/supply_energy.html#energy-transformation energy transformation], and [https://jgcri.github.io/gcam-doc/details_energy.html#energy-transformation energy transformation details].

	In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies].		In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies].

Matthew Binsted at 17:35, 4 September 2020

2020-09-04T17:35:57Z

← Older revision		Revision as of 19:35, 4 September 2020
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	Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in the documentation are electricity, refining, gas processing, hydrogen production, and district services. For more detail on these sectors, see GCAM's section on [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation energy transformation].		Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in the documentation are electricity, refining, gas processing, hydrogen production, and district services. For more detail on these sectors, see GCAM's section on [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation energy transformation].

	In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is $~~1975~~ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies].		In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies].

Matthew Binsted at 19:07, 1 September 2020

2020-09-01T19:07:33Z

← Older revision		Revision as of 21:07, 1 September 2020
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	\|DocumentationCategory=Energy conversion		\|DocumentationCategory=Energy conversion
	}}		}}
	Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in ~~GCAM's~~ documentation are electricity, refining, gas processing, hydrogen production, and district services.		Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in the documentation are electricity, refining, gas processing, hydrogen production, and district services. For more detail on these sectors, see GCAM's section on [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation energy transformation].

	In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is $1975 per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies~~] [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>~~].		In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is $1975 per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies].

Matthew Binsted at 17:47, 27 August 2020

2020-08-27T17:47:53Z

← Older revision		Revision as of 19:47, 27 August 2020
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	Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in GCAM's documentation are electricity, refining, gas processing, hydrogen production, and district services.		Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in GCAM's documentation are electricity, refining, gas processing, hydrogen production, and district services.

	In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies] [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>].		In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is $1975 per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies] [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>].

Matthew Binsted at 16:42, 24 August 2020

2020-08-24T16:42:49Z

← Older revision		Revision as of 18:42, 24 August 2020
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	\|DocumentationCategory=Energy conversion		\|DocumentationCategory=Energy conversion
	}}		}}
	Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in ~~this~~ documentation are electricity, refining, gas processing, hydrogen production, and district services.		Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in GCAM's documentation are electricity, refining, gas processing, hydrogen production, and district services.

	In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies] [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>].		In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies] [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>].

Matthew Binsted at 16:37, 24 August 2020

2020-08-24T16:37:28Z

← Older revision		Revision as of 18:37, 24 August 2020
Line 5:		Line 5:
	Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in this documentation are electricity, refining, gas processing, hydrogen production, and district services.		Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in this documentation are electricity, refining, gas processing, hydrogen production, and district services.

	In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in choice function. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in energy technologies [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>].		In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in [https://jgcri.github.io/gcam-doc/choice.html choice function]. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in [https://jgcri.github.io/gcam-doc/en_technologies.html energy technologies] [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>].

Matthew Binsted at 19:16, 18 August 2020

2020-08-18T19:16:33Z

← Older revision		Revision as of 21:16, 18 August 2020
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	\|DocumentationCategory=Energy conversion		\|DocumentationCategory=Energy conversion
	}}		}}
			Broadly, the energy transformation sectors in GCAM consist of all supplysectors between the energy resources and the final demands, where the latter are identified by the final-energy keywords “buildings”, “industry”, or “transportation”. Energy transformation sectors consume energy goods which are supplied either by resources or other energy transformation sectors, and they produce energy goods which are consumed either by other energy transformation sectors or by final demand sectors. This category is also considered to include a number of “pass-through” supplysectors whose purpose is explicit tracking of cost mark-ups and efficiency losses in the inter-sectoral transportation of energy goods. The main energy transformation sectors highlighted in this documentation are electricity, refining, gas processing, hydrogen production, and district services.

			In energy transformation sectors, the output unit and input unit are EJ (per year), the price unit is 1975$ per GJ of output, and the subsector nest is used for competition between different fuels (or feedstocks). The competition between subsectors takes place according to a calibrated logit sharing function, detailed in choice function. Within the subsectors, there may be multiple competing technologies, where technologies typically represent either different efficiency levels, and/or the application of carbon dioxide capture and storage (CCS). The parameters relevant for technologies in GCAM are identified and explained in energy technologies [http://jgcri.github.io/gcam-doc/energy.html#energy-transformation <nowiki>[1]</nowiki>].

Rineke Oostenrijk: Text replacement - "CGAM" to "GCAM"

2020-03-02T12:04:45Z

Text replacement - "CGAM" to "GCAM"

← Older revision		Revision as of 14:04, 2 March 2020
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Rineke Oostenrijk: Text replacement - "|IsDocumentationOf=GAMS" to "|IsDocumentationOf=CGAM"

2020-03-02T11:18:58Z

Text replacement - "|IsDocumentationOf=GAMS" to "|IsDocumentationOf=CGAM"

← Older revision		Revision as of 13:18, 2 March 2020
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Rineke Oostenrijk: Rineke Oostenrijk moved page Energy conversion - GAMS to Energy conversion - GCAM without leaving a redirect: Text replacement - "GAMS" to "GCAM"

2019-12-17T15:37:51Z

Rineke Oostenrijk moved page Energy conversion - GAMS to Energy conversion - GCAM without leaving a redirect: Text replacement - "GAMS" to "GCAM"

← Older revision	Revision as of 17:37, 17 December 2019
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