Annual CO₂ Emissions Growth (abs) 1913
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 | 99,837,700 |
2 | United Kingdom | 42,436,480 |
3 | Germany | 35,962,210 |
4 | France | 12,534,544 |
5 | Canada | 12,010,592 |
6 | Austria | 9,295,568 |
7 | China | 7,222,422 |
8 | Russia | 5,978,672 |
9 | Poland | 5,272,496 |
10 | Japan | 5,034,336 |
11 | Belgium | 3,238,976 |
12 | India | 2,945,272 |
13 | Mexico | 2,727,714 |
14 | Netherlands | 2,627,088 |
15 | Italy | 2,114,128 |
16 | Czech Republic | 2,059,812 |
17 | Ukraine | 1,896,282 |
18 | Sweden | 1,765,563 |
19 | South Africa | 1,634,144 |
20 | Australia | 1,590,138 |
21 | Spain | 1,436,288 |
22 | Serbia | 1,179,319 |
23 | Romania | 978,288 |
24 | Argentina | 779,452 |
25 | Hungary | 721,808 |
26 | Slovakia | 662,541 |
27 | Kazakhstan | 648,710 |
28 | Brazil | 629,438 |
29 | Iran | 600,896 |
30 | Switzerland | 490,976 |
31 | Croatia | 445,306 |
32 | Bosnia and Herzegovina | 407,825 |
33 | Slovenia | 337,733 |
34 | Belarus | 272,649 |
35 | Uzbekistan | 254,433 |
36 | Denmark | 241,824 |
37 | North Macedonia | 233,540 |
38 | Vietnam | 212,512 |
39 | Portugal | 205,184 |
40 | Finland | 179,536 |
41 | Peru | 165,929 |
42 | Azerbaijan | 130,230 |
43 | Taiwan | 113,584 |
44 | Lithuania | 101,868 |
45 | Republic of Moldova | 100,672 |
46 | Estonia | 98,516 |
47 | Turkmenistan | 82,866 |
48 | Latvia | 65,312 |
49 | Zimbabwe | 62,288 |
50 | Indonesia | 58,624 |
51 | Kyrgyzstan | 55,676 |
52 | Montenegro | 45,349 |
53 | North Korea | 45,125 |
54 | Malaysia | 43,968 |
55 | Norway | 40,304 |
56 | Turkey | 40,304 |
57 | Georgia | 36,075 |
58 | Tajikistan | 31,968 |
59 | Trinidad and Tobago | 25,648 |
60 | Colombia | 23,740 |
61 | Armenia | 21,620.016 |
62 | Honduras | 12,080 |
63 | Cuba | 9,811 |
64 | Venezuela | 9,123 |
65 | Ecuador | 6,400 |
66 | Dominican Republic | 5,381 |
67 | Philippines | 3,664 |
68 | El Salvador | 3,624 |
69 | South Korea | 2,507 |
70 | Costa Rica | 18 |
71 | Paraguay | 0 |
72 | Guatemala | -752 |
73 | Nicaragua | -1,636 |
74 | Panama | -1,852 |
75 | Haiti | -4,563 |
76 | Egypt | -43,968 |
77 | Bulgaria | -109,920 |
78 | Chile | -157,517 |
79 | Uruguay | -219,731 |
80 | New Zealand | -648,528 |
Analysis: These countries represent the highest values in this dataset, showcasing significant scale and impact on global statistics.
- #80
New Zealand
- #79
Uruguay
- #78
Chile
- #77
Bulgaria
- #76
Egypt
- #75
Haiti
- #74
Panama
- #73
Nicaragua
- #72
Guatemala
- #71
Paraguay
Context: These countries or territories have the lowest values, often due to geographic size, administrative status, or specific characteristics.
Analysis & Context
The United States led the world in Annual CO₂ Emissions Growth (abs) in 1913, with an increase of 99,837,700 metric tons. The global range of emissions growth varied significantly, with a minimum of -648,528 metric tons recorded in New Zealand and an average growth of 3,366,952.53 metric tons across 80 countries.
Industrialization and Its Impact on Emissions
The year 1913 marked a pivotal moment in the industrialization phase for many countries, particularly in Europe and North America. The United States, showcasing an emissions growth of 99,837,700 metric tons, was a clear leader, primarily due to its burgeoning manufacturing sector and reliance on coal as a primary energy source. This period saw significant industrial output, which directly correlated with increased carbon emissions.
In contrast, countries like Germany and the United Kingdom had notable increases of 35,962,210 and 42,436,480 metric tons, respectively. The UK’s emissions growth was particularly striking, reflecting a shift from coal to oil in various sectors, although coal remained a dominant energy source at the time. This transition, while leading to significant emissions, also marked the beginning of a gradual shift towards more diversified energy sources.
Geopolitical Influences on Emissions Growth
Geopolitical factors played a crucial role in shaping emissions growth in 1913. For example, the emissions increase in France of 12,534,544 metric tons can be attributed to its extensive use of coal and the expansion of its industrial base. Conversely, Poland experienced a sharp decline of -6,060,256 metric tons, influenced by the political instability of the time, which hampered industrial production and energy consumption.
Similarly, Russia saw a decrease of -2,140,040 metric tons as it grappled with internal challenges and a lack of infrastructure to support large-scale industrialization. These geopolitical dynamics illustrate the complex relationship between political stability and environmental impact during this transformative era.
Year-over-Year Changes: The Biggest Movers
The year-over-year changes in emissions growth reveal striking patterns among the top and bottom countries. The most significant increase was observed in the United Kingdom with a staggering growth of 67,901,312 metric tons, indicative of an industrial surge. However, this growth was paradoxically accompanied by a negative percentage change of -266.6%, suggesting that the increase was compounded by previous declines, reflecting the volatile shifts of the era.
On the other hand, Poland and Germany demonstrated the most substantial decreases, with emissions falling by -6,060,256 and -4,572,606 metric tons, respectively. These reductions highlight the impact of economic and political factors on emissions, where disruptions in production led to lower carbon outputs.
Environmental and Health Implications
The implications of such drastic changes in Annual CO₂ Emissions Growth (abs) extend beyond mere numbers. Increased emissions correlate strongly with environmental degradation and public health challenges. The significant emissions from industrialized nations like the United States and United Kingdom raised concerns about air quality and respiratory health among urban populations. The reliance on coal and other fossil fuels during this period set the stage for future environmental policies aimed at mitigating climate change.
Countries with negative emissions growth, such as New Zealand and Uruguay, may have benefited from less industrial activity, leading to better air quality and health outcomes. However, this also raises questions about economic growth and sustainability, as these countries may have faced challenges in developing their industrial sectors.
In conclusion, the data on Annual CO₂ Emissions Growth (abs) in 1913 provides a complex picture of the interplay between industrialization, geopolitics, and environmental health. As countries navigated their paths toward modernization, the consequences of their choices laid the groundwork for future discussions on sustainable development and climate change policy.
Data Source
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