Georgia vs Jordan: Annual CO₂ emissions from land-use change, annual growth rate
Georgia
5.57 % change on previous year
in 2024
Jordan
5.04 % change on previous year
in 2024
Georgia rank
37th
Jordan rank
40th
Annual CO₂ emissions from land-use change, annual growth rate over time
- Georgia
- Jordan
How they compare
Georgia currently reports 5.57 % change on previous year against 5.04 % change on previous year in Jordan, a difference of 0.53 % change on previous year.
That makes Georgia's figure about 1.1 times Jordan's.
The two have swapped places 58 times across 169 shared years of data; in 1851 it was Georgia ahead.
Georgia ranks 37th and Jordan ranks 40th of 188 countries.
Across the 18 decades both report, Georgia averaged higher in 6 and Jordan in 12.
Head to head by decade
| Decade | Georgia | Jordan | Difference | Ahead |
|---|---|---|---|---|
| 1850s | -0.1917 % change on previous year | -5.7 % change on previous year | 5.51 % change on previous year | Georgia |
| 1860s | -0.1642 % change on previous year | -77.11 % change on previous year | 76.95 % change on previous year | Georgia |
| 1870s | -0.2103 % change on previous year | 13.71 % change on previous year | 13.92 % change on previous year | Jordan |
| 1880s | -0.4939 % change on previous year | 2.41 % change on previous year | 2.9 % change on previous year | Jordan |
| 1890s | -1.33 % change on previous year | 0.002 % change on previous year | 1.33 % change on previous year | Jordan |
| 1900s | -1.08 % change on previous year | 1.58 % change on previous year | 2.65 % change on previous year | Jordan |
| 1910s | -5.85 % change on previous year | -0.9548 % change on previous year | 4.9 % change on previous year | Jordan |
| 1920s | -11.91 % change on previous year | 1.46 % change on previous year | 13.37 % change on previous year | Jordan |
| 1930s | 63.04 % change on previous year | 5.85 % change on previous year | 57.18 % change on previous year | Georgia |
| 1940s | -47.87 % change on previous year | -1.8 % change on previous year | 46.07 % change on previous year | Jordan |
| 1950s | -8.57 % change on previous year | 26.97 % change on previous year | 35.54 % change on previous year | Jordan |
| 1960s | 4.45 % change on previous year | -8.11 % change on previous year | 12.56 % change on previous year | Georgia |
| 1970s | 4.59 % change on previous year | 2.55 % change on previous year | 2.04 % change on previous year | Georgia |
| 1980s | 4.04 % change on previous year | 0.3224 % change on previous year | 3.72 % change on previous year | Georgia |
| 1990s | 0.6436 % change on previous year | 91.36 % change on previous year | 90.71 % change on previous year | Jordan |
| 2000s | 26.02 % change on previous year | 57.04 % change on previous year | 31.02 % change on previous year | Jordan |
| 2010s | 0.1184 % change on previous year | 5.42 % change on previous year | 5.3 % change on previous year | Jordan |
| 2020s | 6.37 % change on previous year | 41.42 % change on previous year | 35.04 % change on previous year | Jordan |
Averages of every year both report within each decade.
Frequently asked questions
- Which has higher annual co₂ emissions from land-use change, annual growth rate, Georgia or Jordan?
- Georgia, at 5.57 % change on previous year against 5.04 % change on previous year in Jordan as of 2024.
- What is the difference in annual co₂ emissions from land-use change, annual growth rate between Georgia and Jordan?
- 0.53 % change on previous year, with Georgia ahead.
- How many years of comparable data are there for Georgia and Jordan?
- 169 years are reported by both, from 1851 to 2024.
- How do Georgia and Jordan rank globally for annual co₂ emissions from land-use change, annual growth rate?
- Georgia ranks 37th and Jordan ranks 40th of 188 countries.
- Where does this data come from?
- Statizoid (derived), published as Annual CO₂ emissions from land-use change, annual growth rate. Statizoid refreshes it automatically from the source and publishes the full history for both places.
Individual pages
About this data
The year-on-year percentage change in Annual CO₂ emissions from land-use change. Computed from consecutive annual observations; years either side of a gap are skipped rather than bridged.