Cayman Islands vs Chinese Taipei: Food GHG emissions by system stage (Share of total) - End_of_Life

Cayman Islands
24.21
in 2015
Chinese Taipei
23.84
in 2015
Cayman Islands rank
40th
Chinese Taipei rank
42nd

Food GHG emissions by system stage (Share of total) - End_of_Life over time

  • Cayman Islands
  • Chinese Taipei
010203040199020022015

How they compare

Cayman Islands currently reports 24.21 against 23.84 in Chinese Taipei, a difference of 0.37.

The two have swapped places 2 times across 26 shared years of data; in 1990 it was Cayman Islands ahead.

Cayman Islands ranks 40th and Chinese Taipei ranks 42nd of 203 countries.

Cayman Islands has averaged higher in every one of the 3 decades both report.

Head to head by decade

Decade Cayman Islands Chinese Taipei Difference Ahead
1990s 37.73 19.08 18.64 Cayman Islands
2000s 34.11 20.62 13.49 Cayman Islands
2010s 27.11 23.17 3.94 Cayman Islands

Averages of every year both report within each decade.

Frequently asked questions

Which has higher food ghg emissions by system stage (share of total) - end_of_life, Cayman Islands or Chinese Taipei?
Cayman Islands, at 24.21 against 23.84 in Chinese Taipei as of 2015.
What is the difference in food ghg emissions by system stage (share of total) - end_of_life between Cayman Islands and Chinese Taipei?
0.37, with Cayman Islands ahead.
How many years of comparable data are there for Cayman Islands and Chinese Taipei?
26 years are reported by both, from 1990 to 2015.
How do Cayman Islands and Chinese Taipei rank globally for food ghg emissions by system stage (share of total) - end_of_life?
Cayman Islands ranks 40th and Chinese Taipei ranks 42nd of 203 countries.
Where does this data come from?
Crippa, M., Solazzo, E., Guizzardi, D., Monforti-Ferrario, F., Tubiello, F.N. and Leip, A. EDGAR-FOOD data. Figshare, doi:10.6084/m9.figshare.13476666 (2021), published as Food GHG emissions by system stage (Share of total) - End_of_Life. Statizoid refreshes it automatically from the source and publishes the full history for both places.

Individual pages

Share, cite or embed this page

Cite this page

Cayman Islands vs Chinese Taipei: Food GHG emissions by system stage (Share of total) - End_of_Life. Statizoid, drawing on Crippa, M., Solazzo, E., Guizzardi, D., Monforti-Ferrario, F., Tubiello, F.N. and Leip, A. EDGAR-FOOD data. Figshare, doi:10.6084/m9.figshare.13476666 (2021). Retrieved 09 September 2026, from https://reference.statizoid.com/compare/food-ghg-emissions-by-system-stage-share-of-total-end-of-life/cayman-islands/taiwan/

Embed or link this data

Paste this into a page to link back to these figures. The data itself is free to reuse under CC BY 4.0 (World Bank Open Data); please keep the attribution.

<a href="https://reference.statizoid.com/compare/food-ghg-emissions-by-system-stage-share-of-total-end-of-life/cayman-islands/taiwan/">Cayman Islands vs Chinese Taipei: Food GHG emissions by system stage (Share of total) - End_of_Life</a> — Statizoid

About this data

Indicator
Food GHG emissions by system stage (Share of total) - End_of_Life
Source
Crippa, M., Solazzo, E., Guizzardi, D., Monforti-Ferrario, F., Tubiello, F.N. and Leip, A. EDGAR-FOOD data. Figshare, doi:10.6084/m9.figshare.13476666 (2021)
Licence
CC BY 4.0 (World Bank Open Data)
Coverage
203 places, 5,278 data points, 1990–2015
Last refreshed

Food GHG emissions disaggregated by system stage are generated from EDGAR-FOOD, a global emission inventory of GHGs from the food systems. EDGAR-FOOD has been developed to aid the understanding of the activities underlying the energy demand and use, agriculture and land use change emissions associated with the production, distribution, consumption and disposal of food through the various stages and sectors of the composite global food system. These data were complemented with data from the FAOSTAT database on GHG emissions from land use related to agriculture (FAO, 2020). EDGAR-FOOD represents the first database consistently covering each stage of the food chain for all countries with yearly frequency for the period 1990-2015. Details regarding the methodology applied are available in Crippa et al. (2021).