Sugar cane — Burning crop residues (Emissions N2O), annual growth rate in Ecuador
Ecuador: Sugar cane — Burning crop residues (Emissions N2O), annual growth rate was -33.33 % change on previous year in 2023. ◆ Volatile
Latest (2023)
-33.33 % change on previous year
Change on year
down 145.8%
World rank
93rd
of 100 countries
All-time high
92.31 % change on previous year
in 1998
All-time low
-45.83 % change on previous year
in 1996
Years of data
62
1962–2023
Sugar cane — Burning crop residues (Emissions N2O), annual growth rate in Ecuador, 1962–2023
Source: Statizoid (derived). Measured in % change on previous year.
Analysis
In 2023, sugar cane — burning crop residues (emissions n2o), annual growth rate in Ecuador stood at -33.33 % change on previous year.
The figure is down 145.8% on the previous year and down 577.8% over ten years.
Over the whole period, sugar cane — burning crop residues (emissions n2o), annual growth rate in Ecuador peaked at 92.31 % change on previous year in 1998 and was at its lowest, -45.83 % change on previous year, in 1996.
That places Ecuador 93rd out of 100 countries with data for 2023, putting it in the bottom quarter.
The series is highly variable year to year, so single readings are best treated with caution.
Sugar cane — Burning crop residues (Emissions N2O), annual growth rate in Ecuador, year by year
| Year | % change on previous year | Change |
|---|---|---|
| 1962 | 0 % change on previous year | — |
| 1963 | 13.79 % change on previous year | — |
| 1964 | 30.3 % change on previous year | +119.7% |
| 1965 | 2.33 % change on previous year | -92.3% |
| 1966 | 15.91 % change on previous year | +584.1% |
| 1967 | -3.92 % change on previous year | -124.6% |
| 1968 | 12.24 % change on previous year | -412.2% |
| 1969 | -29.09 % change on previous year | -337.6% |
| 1970 | -2.56 % change on previous year | -91.2% |
| 1971 | 0 % change on previous year | -100.0% |
| 1972 | 5.26 % change on previous year | — |
| 1973 | 2.5 % change on previous year | -52.5% |
| 1974 | 12.2 % change on previous year | +387.8% |
| 1975 | 13.04 % change on previous year | +7.0% |
| 1976 | -25 % change on previous year | -291.7% |
| 1977 | 28.21 % change on previous year | -212.8% |
| 1978 | -6 % change on previous year | -121.3% |
| 1979 | 0 % change on previous year | -100.0% |
| 1980 | 4.26 % change on previous year | — |
| 1981 | -4.08 % change on previous year | -195.9% |
| 1982 | -10.64 % change on previous year | +160.6% |
| 1983 | -14.29 % change on previous year | +34.3% |
| 1984 | 11.11 % change on previous year | -177.8% |
| 1985 | 0 % change on previous year | -100.0% |
| 1986 | 10 % change on previous year | — |
| 1987 | 0 % change on previous year | -100.0% |
| 1988 | -18.18 % change on previous year | — |
| 1989 | 0 % change on previous year | -100.0% |
| 1990 | 8.33 % change on previous year | — |
| 1991 | 2.56 % change on previous year | -69.2% |
| 1992 | 5 % change on previous year | +95.0% |
| 1993 | 7.14 % change on previous year | +42.9% |
| 1994 | 6.67 % change on previous year | -6.7% |
| 1995 | 0 % change on previous year | -100.0% |
| 1996 | -45.83 % change on previous year | — |
| 1997 | 0 % change on previous year | -100.0% |
| 1998 | 92.31 % change on previous year | — |
| 1999 | -40 % change on previous year | -143.3% |
| 2000 | 16.67 % change on previous year | -141.7% |
| 2001 | 2.86 % change on previous year | -82.9% |
| 2002 | -2.78 % change on previous year | -197.2% |
| 2003 | 8.57 % change on previous year | -408.6% |
| 2004 | 10.53 % change on previous year | +22.8% |
| 2005 | 2.38 % change on previous year | -77.4% |
| 2006 | -2.33 % change on previous year | -197.7% |
| 2007 | 4.76 % change on previous year | -304.8% |
| 2008 | 0 % change on previous year | -100.0% |
| 2009 | 11.36 % change on previous year | — |
| 2010 | 0 % change on previous year | -100.0% |
| 2011 | -20.41 % change on previous year | — |
| 2012 | 10.26 % change on previous year | -150.3% |
| 2013 | 6.98 % change on previous year | -32.0% |
| 2014 | -4.35 % change on previous year | -162.3% |
| 2015 | 6.82 % change on previous year | -256.8% |
| 2016 | 2.13 % change on previous year | -68.8% |
| 2017 | 4.17 % change on previous year | +95.8% |
| 2018 | -10 % change on previous year | -340.0% |
| 2019 | 22.22 % change on previous year | -322.2% |
| 2020 | 14.55 % change on previous year | -34.5% |
| 2021 | -6.35 % change on previous year | -143.7% |
| 2022 | -13.56 % change on previous year | +113.6% |
| 2023 | -33.33 % change on previous year | +145.8% |
Averages by decade
| Decade | Average | Lowest | Highest | Years |
|---|---|---|---|---|
| 1960s | 5.2 % change on previous year | -29.09 % change on previous year | 30.3 % change on previous year | 8 |
| 1970s | 2.76 % change on previous year | -25 % change on previous year | 28.21 % change on previous year | 10 |
| 1980s | -2.18 % change on previous year | -18.18 % change on previous year | 11.11 % change on previous year | 10 |
| 1990s | 3.62 % change on previous year | -45.83 % change on previous year | 92.31 % change on previous year | 10 |
| 2000s | 5.2 % change on previous year | -2.78 % change on previous year | 16.67 % change on previous year | 10 |
| 2010s | 1.78 % change on previous year | -20.41 % change on previous year | 22.22 % change on previous year | 10 |
| 2020s | -9.67 % change on previous year | -33.33 % change on previous year | 14.55 % change on previous year | 4 |
Countries ranked near Ecuador
- 90 Mozambique -26.32 % change on previous year compare
- 91 Cuba -31.17 % change on previous year compare
- 92 Kenya -31.48 % change on previous year compare
- 94 Panama -35.29 % change on previous year compare
- 95 Antigua and Barbuda -100 % change on previous year compare
- 95 Spain -100 % change on previous year compare
- 95 Iraq -100 % change on previous year compare
- 95 Saint Kitts and Nevis -100 % change on previous year compare
- 95 Puerto Rico -100 % change on previous year compare
- 95 Portugal -100 % change on previous year compare
More climate change data for Ecuador
- Nutrient nitrogen N (total) — Synthetic fertilizers (Agricultural) 218.44 million kg (2050)
- Emissions from livestock — Emissions (CO2eq) 19,195 kt (2050)
- Emissions from livestock — Emissions (CO2eq) from N2O 4,758 kt (2050)
- Emissions from livestock — Emissions (CO2eq) from CH4 14,437 kt (2050)
- Emissions from livestock — Emissions 17.95 kt (2050)
- Emissions from livestock — Emissions 515.62 kt (2050)
- Emissions from crops — Emissions (CO2eq) 3,911 kt (2050)
- Emissions from crops — Emissions (CO2eq) from N2O 1,488 kt (2050)
- Emissions from crops — Emissions (CO2eq) from CH4 2,423 kt (2050)
- Emissions from crops — Emissions 5.62 kt (2050)
Frequently asked questions
- What is sugar cane — burning crop residues (emissions n2o), annual growth rate in Ecuador?
- Sugar cane — burning crop residues (emissions n2o), annual growth rate in Ecuador was -33.33 % change on previous year in 2023, according to Statizoid (derived).
- What is the highest sugar cane — burning crop residues (emissions n2o), annual growth rate recorded in Ecuador?
- The highest recorded value was 92.31 % change on previous year in 1998.
- What is the lowest sugar cane — burning crop residues (emissions n2o), annual growth rate recorded in Ecuador?
- The lowest recorded value was -45.83 % change on previous year in 1996.
- How does Ecuador rank for sugar cane — burning crop residues (emissions n2o), annual growth rate?
- Ecuador ranks 93rd out of 100 countries with data for 2023.
- Is sugar cane — burning crop residues (emissions n2o), annual growth rate rising or falling in Ecuador?
- Over the last ten years it is down 577.8%. The long-run trend across the full record is volatile.
- Where does this Ecuador data come from?
- The figures come from Statizoid (derived), published as part of Sugar cane — Burning crop residues (Emissions N2O), annual growth rate. Statizoid updates them automatically from the source API.
Download this data
CSV · JSON — 62 observations, free to reuse under Derived by Statizoid from the sources named on the page.
How this figure is calculated
The year-on-year percentage change in Sugar cane — Burning crop residues (Emissions N2O). Computed from consecutive annual observations; years either side of a gap are skipped rather than bridged.
Computed from
- Sugar cane — Burning crop residues Food and Agriculture Organization of the United Nations
Statizoid computes this series; the underlying measurements belong to the publishers named above. The arithmetic is applied to every country and year where both inputs report, and nothing is estimated unless the page says so.
About this data
The year-on-year percentage change in Sugar cane — Burning crop residues (Emissions N2O). Computed from consecutive annual observations; years either side of a gap are skipped rather than bridged.