Annual CO₂ Emissions Growth (abs) 1925
Annual CO₂ emissions growth measures the increase in carbon output. Compare countries, explore trends, and view interactive maps.
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Complete Data Rankings
Rank | ||
|---|---|---|
1 | United States | 46,498,944 |
2 | France | 7,192,432 |
3 | Germany | 6,272,768 |
4 | Netherlands | 2,997,152 |
5 | Japan | 2,663,728 |
6 | Belgium | 1,784,368 |
7 | Romania | 1,703,760 |
8 | Australia | 1,441,282 |
9 | South Africa | 1,176,144 |
10 | Peru | 1,159,677 |
11 | Iran | 696,160 |
12 | Greece | 681,504 |
13 | Spain | 663,184 |
14 | North Korea | 597,039 |
15 | Indonesia | 494,640 |
16 | Taiwan | 494,640 |
17 | Malaysia | 458,000 |
18 | Vietnam | 337,088 |
19 | Switzerland | 304,112 |
20 | Serbia | 298,500 |
21 | Argentina | 293,019 |
22 | Trinidad and Tobago | 289,456 |
23 | Venezuela | 286,544 |
24 | Colombia | 285,024 |
25 | Zimbabwe | 260,144 |
26 | Poland | 238,160 |
27 | Cuba | 132,261 |
28 | Croatia | 112,712 |
29 | Bosnia and Herzegovina | 103,225 |
30 | Nigeria | 102,592 |
31 | New Zealand | 98,928 |
32 | Portugal | 91,600 |
33 | Slovenia | 85,485 |
34 | North Macedonia | 59,112 |
35 | Egypt | 54,960 |
36 | South Korea | 33,169 |
37 | Brazil | 22,470 |
38 | Ecuador | 20,370 |
39 | Montenegro | 11,479 |
40 | Algeria | 3,664 |
41 | Panama | 3,475 |
42 | Dominican Republic | 2,898 |
43 | El Salvador | 102 |
44 | Philippines | 0 |
45 | Paraguay | -3 |
46 | Haiti | -282 |
47 | Honduras | -307 |
48 | Armenia | -1,555 |
49 | Guatemala | -1,762 |
50 | Tajikistan | -2,300 |
51 | Georgia | -2,596 |
52 | Kyrgyzstan | -4,006 |
53 | Latvia | -4,700 |
54 | Turkmenistan | -5,963 |
55 | Costa Rica | -6,005 |
56 | Estonia | -7,090 |
57 | Republic of Moldova | -7,245 |
58 | Nicaragua | -7,256 |
59 | Lithuania | -7,330 |
60 | Azerbaijan | -9,372 |
61 | Uzbekistan | -18,310 |
62 | Belarus | -19,621 |
63 | Bolivia | -30,931 |
64 | Bulgaria | -32,976 |
65 | Finland | -32,976 |
66 | Congo, Democratic Republic of the | -43,968 |
67 | Kazakhstan | -46,683 |
68 | Turkey | -84,272 |
69 | Norway | -131,904 |
70 | Ukraine | -136,464 |
71 | Chile | -158,015 |
72 | Uruguay | -350,203 |
73 | Russia | -430,248 |
74 | India | -543,020 |
75 | Ireland | -652,192 |
76 | Slovakia | -717,827 |
77 | Austria | -1,102,864 |
78 | Hungary | -1,132,176 |
79 | Italy | -1,212,784 |
80 | Sweden | -1,522,904 |
81 | Denmark | -1,619,488 |
82 | Canada | -2,136,112 |
83 | Czech Republic | -2,231,692 |
84 | China | -2,891,244 |
85 | Mexico | -11,427,872 |
86 | United Kingdom | -27,241,152 |
- #1
United States
- #2
France
- #3
Germany
- #4
Netherlands
- #5
Japan
- #6
Belgium
- #7
Romania
- #8
Australia
- #9
South Africa
- #10
Peru
Analysis: These countries represent the highest values in this dataset, showcasing significant scale and impact on global statistics.
- #86
United Kingdom
- #85
Mexico
- #84
China
- #83
Czech Republic
- #82
Canada
- #81
Denmark
- #80
Sweden
- #79
Italy
- #78
Hungary
- #77
Austria
Context: These countries or territories have the lowest values, often due to geographic size, administrative status, or specific characteristics.
Analysis & Context
Leading Countries in Annual CO₂ Emissions Growth (abs) in 1925
The country with the highest Annual CO₂ Emissions Growth (abs) in 1925 was the United States, with an increase of 46,498,944 metric tons. The global range of emissions growth varied significantly, with a minimum of -27,241,152 metric tons, reflecting a diverse environmental impact across 86 countries with available data. The average emissions growth across these countries was 284,770.94 metric tons, highlighting the stark contrast between the emissions profiles of different nations.
Understanding the Disparities: Economic and Industrial Factors
The stark differences in Annual CO₂ Emissions Growth (abs) can largely be attributed to the varying stages of industrialization among countries. The United States, leading with an emissions growth of 46,498,944, was experiencing significant industrial expansion during this period, characterized by the rise of manufacturing and fossil fuel consumption. In contrast, countries like the United Kingdom and Germany faced substantial decreases in emissions growth, with declines of -27,241,152 and -11,359,133 respectively. This reduction can be linked to post-World War I economic adjustments and a shift towards more sustainable practices in some sectors.
Moreover, countries such as France and Canada also reported notable increases in emissions growth, at 7,192,432 and 13,461,536 respectively. Both nations were enhancing their industrial capacities, albeit at different scales, which contributed to higher carbon outputs. The industrial policies and energy strategies adopted by these countries played a crucial role in shaping their emissions profiles during this period.
Year-over-Year Trends: Significant Movers in 1925
The year 1925 saw notable fluctuations in emissions growth across various countries. The most significant increase was recorded by the United States, with a staggering rise of 243,846,784 metric tons, which reflects ongoing industrialization and energy consumption patterns. In stark contrast, the United Kingdom experienced a drastic drop of -49,414,080 metric tons, indicative of a shift away from coal-dependent industries and an early pivot towards more sustainable energy sources.
Other notable changes included Germany, which saw a decrease of -113,591,332 metric tons, possibly due to economic constraints following the war and a focus on rebuilding with an emphasis on efficiency. On the other hand, countries like North Korea exhibited a remarkable increase of 548,442 metric tons, suggesting a unique context of industrialization irrespective of global trends.
Environmental Implications and Future Outlook
The data from 1925 provides crucial insights into the environmental challenges posed by carbon emissions growth. The sharp increases in emissions from industrialized nations underscore the urgent need for sustainable practices as global industrial activities expanded. The contrasting trends observed in countries like the United Kingdom and Germany illustrate the potential for significant reductions in emissions through policy changes and technological advancements.
As nations move forward, the lessons from 1925 remain relevant. Countries with high emissions growth must consider strategies for sustainable development, balancing economic growth with environmental stewardship. The data emphasizes that while industrial growth can drive emissions up, proactive measures can lead to meaningful reductions, shaping a more sustainable future.
Data Source
Global Carbon Budget
Just over 20 years ago the Global Carbon Project (GCP) was created to bring together a global consortium of scientists to establish a common and mutually agreed understanding of the Earth carbon cycle.
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