Total Renewable Groundwater Resources by Country 1967
Total renewable groundwater represents the combined volume of internally generated and externally sourced groundwater that is naturally replenished and available for use.
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Complete Data Rankings
Rank | ||
|---|---|---|
1 | China | 828.8 Cubic meters per year |
2 | Brazil | 645.6 Cubic meters per year |
3 | Colombia | 510 Cubic meters per year |
4 | Congo, Democratic Republic of the | 421 Cubic meters per year |
5 | Canada | 370 Cubic meters per year |
6 | Chile | 140 Cubic meters per year |
7 | Bolivia | 130 Cubic meters per year |
8 | Argentina | 128 Cubic meters per year |
9 | Congo | 122 Cubic meters per year |
10 | Cameroon | 100 Cubic meters per year |
11 | Australia | 72 Cubic meters per year |
12 | Angola | 58 Cubic meters per year |
13 | Central African Republic | 56 Cubic meters per year |
14 | Côte d'Ivoire | 37.84 Cubic meters per year |
15 | Costa Rica | 37.31 Cubic meters per year |
16 | Bangladesh | 21.122 Cubic meters per year |
17 | Cambodia | 17.6 Cubic meters per year |
18 | Chad | 11.5 Cubic meters per year |
19 | Afghanistan | 10.65 Cubic meters per year |
20 | Bhutan | 9.5 Cubic meters per year |
21 | Burkina Faso | 9.5 Cubic meters per year |
22 | Belize | 7.51 Cubic meters per year |
23 | Burundi | 7.47 Cubic meters per year |
24 | Cuba | 6.48 Cubic meters per year |
25 | Bulgaria | 6.4 Cubic meters per year |
26 | Albania | 6.2 Cubic meters per year |
27 | Austria | 6 Cubic meters per year |
28 | Denmark | 4.3 Cubic meters per year |
29 | Benin | 1.8 Cubic meters per year |
30 | Algeria | 1.517 Cubic meters per year |
31 | Antigua and Barbuda | 0 Cubic meters per year |
32 | Armenia | NaN Cubic meters per year |
33 | Azerbaijan | NaN Cubic meters per year |
34 | Botswana | 1.7 Cubic meters per year |
35 | Comoros | 1 Cubic meters per year |
36 | Belgium | 0.9 Cubic meters per year |
37 | Cyprus | 0.41 Cubic meters per year |
38 | Cabo Verde | 0.124 Cubic meters per year |
39 | Bahrain | 0.112 Cubic meters per year |
40 | Brunei Darussalam | 0.1 Cubic meters per year |
41 | Barbados | 0.074 Cubic meters per year |
42 | Bahamas | 0 Cubic meters per year |
43 | Belarus | NaN Cubic meters per year |
44 | Bosnia and Herzegovina | NaN Cubic meters per year |
45 | Cook Islands | 0 Cubic meters per year |
46 | Croatia | NaN Cubic meters per year |
47 | Czech Republic | NaN Cubic meters per year |
48 | Indonesia | 457.4 Cubic meters per year |
49 | India | 432 Cubic meters per year |
50 | Ecuador | 134 Cubic meters per year |
51 | France | 120 Cubic meters per year |
52 | Guyana | 103 Cubic meters per year |
53 | Gabon | 62 Cubic meters per year |
54 | Iran | 49.3 Cubic meters per year |
55 | Germany | 45.7 Cubic meters per year |
56 | Italy | 43 Cubic meters per year |
57 | Honduras | 39 Cubic meters per year |
58 | Guinea | 38 Cubic meters per year |
59 | Laos | 37.9 Cubic meters per year |
60 | Guatemala | 33.7 Cubic meters per year |
61 | Japan | 27 Cubic meters per year |
62 | Ghana | 26.3 Cubic meters per year |
63 | Iceland | 24 Cubic meters per year |
64 | Guinea-Bissau | 14 Cubic meters per year |
65 | Ireland | 10.8 Cubic meters per year |
66 | Greece | 10.3 Cubic meters per year |
67 | Equatorial Guinea | 10 Cubic meters per year |
68 | El Salvador | 6.15 Cubic meters per year |
69 | Hungary | 6 Cubic meters per year |
70 | Fiji | 5.273 Cubic meters per year |
71 | Dominican Republic | 4.161 Cubic meters per year |
72 | Kenya | 3.5 Cubic meters per year |
73 | Finland | 2.2 Cubic meters per year |
74 | Haiti | 2.157 Cubic meters per year |
75 | Egypt | 1.5 Cubic meters per year |
76 | Djibouti | 0.015 Cubic meters per year |
77 | Dominica | 0 Cubic meters per year |
78 | Eritrea | NaN Cubic meters per year |
79 | Estonia | NaN Cubic meters per year |
80 | Jamaica | 5.472 Cubic meters per year |
81 | Iraq | 3.28 Cubic meters per year |
82 | Israel | 1.225 Cubic meters per year |
83 | Eswatini | 0.66 Cubic meters per year |
84 | Ethiopia | NaN Cubic meters per year |
85 | Gambia | 0.5 Cubic meters per year |
86 | Faroe Islands | 0 Cubic meters per year |
87 | Georgia | NaN Cubic meters per year |
88 | Jordan | 0.54 Cubic meters per year |
89 | Grenada | 0 Cubic meters per year |
90 | Kazakhstan | NaN Cubic meters per year |
91 | Kuwait | 0.02 Cubic meters per year |
92 | Kiribati | 0 Cubic meters per year |
93 | Kyrgyzstan | NaN Cubic meters per year |
94 | Latvia | NaN Cubic meters per year |
95 | Myanmar | 453.7 Cubic meters per year |
96 | Peru | 303 Cubic meters per year |
97 | Papua New Guinea | 211.6 Cubic meters per year |
98 | Philippines | 180 Cubic meters per year |
99 | Mexico | 150 Cubic meters per year |
100 | Norway | 96 Cubic meters per year |
101 | Nigeria | 87 Cubic meters per year |
102 | Malaysia | 64 Cubic meters per year |
103 | Nicaragua | 59 Cubic meters per year |
104 | Madagascar | 55 Cubic meters per year |
105 | Pakistan | 55 Cubic meters per year |
106 | Liberia | 45 Cubic meters per year |
107 | Paraguay | 41.64 Cubic meters per year |
108 | Panama | 21 Cubic meters per year |
109 | Mali | 20 Cubic meters per year |
110 | Nepal | 20 Cubic meters per year |
111 | Mozambique | 17 Cubic meters per year |
112 | North Korea | 13 Cubic meters per year |
113 | Poland | 12.5 Cubic meters per year |
114 | Morocco | 10 Cubic meters per year |
115 | Romania | 8.46 Cubic meters per year |
116 | Rwanda | 7 Cubic meters per year |
117 | Mongolia | 6.1 Cubic meters per year |
118 | Netherlands | 4.5 Cubic meters per year |
119 | Lebanon | 3.2 Cubic meters per year |
120 | Malawi | 2.5 Cubic meters per year |
121 | Niger | 2.5 Cubic meters per year |
122 | Oman | 1.3 Cubic meters per year |
123 | Mauritius | 0.893 Cubic meters per year |
124 | Libya | 0.6 Cubic meters per year |
125 | Lesotho | 0.5 Cubic meters per year |
126 | Lithuania | NaN Cubic meters per year |
127 | Portugal | 4 Cubic meters per year |
128 | Namibia | 2.1 Cubic meters per year |
129 | Mauritania | 0.3 Cubic meters per year |
130 | Luxembourg | 0.08 Cubic meters per year |
131 | Qatar | 0.058 Cubic meters per year |
132 | Malta | 0.05 Cubic meters per year |
133 | Maldives | 0.03 Cubic meters per year |
134 | Saint Kitts and Nevis | 0.02 Cubic meters per year |
135 | Nauru | 0.01 Cubic meters per year |
136 | New Zealand | 0 Cubic meters per year |
137 | Niue | 0 Cubic meters per year |
138 | North Macedonia | NaN Cubic meters per year |
139 | Republic of Moldova | NaN Cubic meters per year |
140 | Russia | NaN Cubic meters per year |
141 | United States | 1,383 Cubic meters per year |
142 | Venezuela | 227 Cubic meters per year |
143 | Suriname | 90 Cubic meters per year |
144 | Vietnam | 71.42 Cubic meters per year |
145 | Turkey | 67.8 Cubic meters per year |
146 | Zambia | 47 Cubic meters per year |
147 | Thailand | 41.9 Cubic meters per year |
148 | Tanzania | 30 Cubic meters per year |
149 | Spain | 29.9 Cubic meters per year |
150 | Uganda | 29 Cubic meters per year |
151 | Sierra Leone | 25 Cubic meters per year |
152 | Uruguay | 22.9 Cubic meters per year |
153 | Sweden | 20 Cubic meters per year |
154 | South Korea | 13.3 Cubic meters per year |
155 | Solomon Islands | 11.92 Cubic meters per year |
156 | United Kingdom | 9.8 Cubic meters per year |
157 | Sri Lanka | 7.8 Cubic meters per year |
158 | Syrian Arab Republic | 6.174 Cubic meters per year |
159 | Zimbabwe | 6 Cubic meters per year |
160 | Togo | 5.7 Cubic meters per year |
161 | South Africa | 4.8 Cubic meters per year |
162 | Vanuatu | 4.377 Cubic meters per year |
163 | Senegal | 3.5 Cubic meters per year |
164 | Somalia | 3.3 Cubic meters per year |
165 | Switzerland | 2.5 Cubic meters per year |
166 | Saudi Arabia | 2.2 Cubic meters per year |
167 | Tunisia | 1.595 Cubic meters per year |
168 | Timor-Leste | 0.886 Cubic meters per year |
169 | State of Palestine | 0.75 Cubic meters per year |
170 | Trinidad and Tobago | 0.614 Cubic meters per year |
171 | Saint Lucia | 0 Cubic meters per year |
172 | Saint Vincent and the Grenadines | 0 Cubic meters per year |
173 | Samoa | 0 Cubic meters per year |
174 | Sao Tome and Principe | 0 Cubic meters per year |
175 | Seychelles | 0 Cubic meters per year |
176 | Singapore | 0 Cubic meters per year |
177 | Slovakia | NaN Cubic meters per year |
178 | Slovenia | NaN Cubic meters per year |
179 | South Sudan | NaN Cubic meters per year |
180 | Sudan | NaN Cubic meters per year |
181 | Tajikistan | NaN Cubic meters per year |
182 | Yemen | 1.5 Cubic meters per year |
183 | United Arab Emirates | 0.12 Cubic meters per year |
184 | Tonga | 0 Cubic meters per year |
185 | Turkmenistan | NaN Cubic meters per year |
186 | Tuvalu | 0 Cubic meters per year |
187 | Ukraine | NaN Cubic meters per year |
188 | Uzbekistan | NaN Cubic meters per year |
↑Top 10 Countries
- #1
China
- #2
Brazil
- #3
Colombia
- #4
Congo, Democratic Republic of the
- #5
Canada
- #6
Chile
- #7
Bolivia
- #8
Argentina
- #9
Congo
- #10
Cameroon
Analysis: These countries represent the highest values in this dataset, showcasing significant scale and impact on global statistics.
↓Bottom 10 Countries
- #188
Uzbekistan
- #187
Ukraine
- #186
Tuvalu
- #185
Turkmenistan
- #184
Tonga
- #183
United Arab Emirates
- #182
Yemen
- #181
Tajikistan
- #180
Sudan
- #179
South Sudan
Context: These countries or territories have the lowest values, often due to geographic size, administrative status, or specific characteristics.
Analysis & Context
The measurement of "Total Renewable Groundwater Resources by Country" for the year 1967 offers a crucial perspective on the global availability of naturally replenished groundwater. This metric, expressed in cubic meters per year, encapsulates the volume of groundwater resources that are internally generated or externally sourced and available for sustainable use. The significance of this data lies in its influence on environmental sustainability, agricultural development, and water management policies across the globe.
Global Geographic Insights in 1967
In 1967, the global distribution of renewable groundwater resources highlighted significant geographic disparities. The United States led with an astonishing 1383 cubic meters per year, reflecting its vast and varied landscape conducive to groundwater replenishment. Close behind, China with 828.8 cubic meters demonstrated the influence of its extensive river systems and regional climatic variations. Other countries such as Brazil (645.6 cubic meters) and Colombia (510 cubic meters) showcased the abundance of renewable resources linked to their expansive rainforest regions.
Conversely, a group of countries, including Antigua and Barbuda, Bahamas, and several Pacific island nations, reported minimal to no renewable groundwater resources. These findings underscore the varying climatic and geological conditions that inhibit natural groundwater recharge, which can affect these countries' reliance on alternative water sources.
Environmental Context and Sustainability
The environmental context of 1967 underscores the importance of sustainable water resource management. While countries like Indonesia (457.4 cubic meters) and India (432 cubic meters) were beneficiaries of significant groundwater resources, the sustainable management of these resources was imperative in preventing over-extraction and ensuring long-term availability. In regions like the Democratic Republic of the Congo, which reported 421 cubic meters, the dense vegetation and tropical climate naturally supported abundant groundwater renewal.
This era marked a growing awareness of the ecological balance necessary to maintain groundwater levels, emphasizing the need for policies that balance agricultural demands with ecological preservation. Groundwater sustainability was not only a matter of environmental stewardship but also essential for the socio-economic development of the regions dependent on these resources.
Policy Impacts and International Collaboration
1967 was a formative year in recognizing the impacts of policy on groundwater resource management. Countries with abundant resources, like Canada (370 cubic meters) and Peru (303 cubic meters), began to explore strategies for effective water governance. Internationally, the dialogue around water rights and resource sharing started to gain momentum, especially in regions where shared water basins required cooperative management to prevent conflict and ensure equitable distribution.
The policies enacted during this time largely shaped the frameworks for contemporary water management, focusing on efficient water use, pollution control, and the equitable distribution of resources. Such frameworks were crucial for countries facing water scarcity, as they looked to international collaboration to address their challenges.
Historical Trends and Future Outlook
Analyzing historical data from 1967 provides insights into temporal trends of renewable groundwater resources. The data shows a lack of significant year-over-year changes, with most countries reporting stable levels. This stability highlighted the natural resilience of groundwater systems at the time, though modern-day challenges such as climate change and increased water demand now threaten this equilibrium.
Moving forward, understanding these historical benchmarks is crucial for developing adaptive strategies in response to changing climatic conditions and growing populations. The lessons drawn from 1967 can aid in the design of future policies that prioritize sustainable water usage, support technological innovation in water conservation, and foster international cooperation to secure groundwater resources for future generations.
In conclusion, the global statistics of total renewable groundwater resources in 1967 reveal a complex interplay of environmental conditions, policy impacts, and international dynamics. These insights continue to inform present-day strategies for managing one of our planet's most vital resources.
Insights by country
Malawi
In 1967, Malawi ranked 106th out of 188 countries in terms of total renewable groundwater resources, with a reported value of 2.5 cubic meters per year. This statistic highlights the limited freshwater availability in the country, which is crucial for agricultural and domestic use in a region heavily dependent on rain-fed systems.
The relatively low groundwater resources can be attributed to several factors, including Malawi's geographical features, climate variability, and population pressures. The country experiences a significant reliance on its lakes and rivers, with groundwater serving as a supplementary resource.
In addition to its groundwater challenges, Malawi has faced issues such as deforestation and land degradation, which can further impact the sustainability of its water resources. Understanding and managing renewable groundwater resources is essential for ensuring water security in Malawi, especially in the context of increasing climate change impacts.
Seychelles
Seychelles ranked 177th out of 188 countries in terms of total renewable groundwater resources in the year 1967. The total renewable groundwater resources for Seychelles were recorded at 0 cubic meters per year, indicating a significant lack of groundwater availability for the population and agricultural needs.
This statistic can be attributed to the country's unique geographical characteristics, including its small land area and limited freshwater aquifers. The majority of Seychelles' water supply is derived from rainwater harvesting and surface water sources, which can be insufficient during dry periods.
As a small island nation, Seychelles faces challenges related to climate change and rising sea levels, which can further impact freshwater resources. Despite these challenges, the country has made efforts to promote sustainable water management and conservation practices to ensure water security for its residents.
Saudi Arabia
In 1967, Saudi Arabia ranked 110th out of 188 countries in terms of total renewable groundwater resources, with a measured value of 2.2 cubic meters per year. This statistic reflects the scarcity of freshwater resources in a predominantly arid region, where the availability of renewable groundwater is critically low.
The limited groundwater resources can be attributed to several factors, including the country's desert climate, rapid population growth, and increasing agricultural demands, which place considerable stress on existing water supplies. The reliance on non-renewable aquifers has been a significant concern, prompting efforts towards more sustainable water management practices.
Additionally, Saudi Arabia's water scarcity challenges have led to the implementation of advanced technologies such as desalination to supplement its water supply, making the country one of the world's leaders in this field. In the context of global water resources, Saudi Arabia's situation underscores the urgent need for innovative solutions to address water scarcity in arid regions.
Liberia
Liberia ranked 39th out of 188 countries in terms of total renewable groundwater resources in the year 1967, with a significant availability of 45 cubic meters per year. This statistic highlights the country's relatively rich water resources, which are crucial for agricultural, domestic, and industrial uses.
The availability of groundwater resources in Liberia can be attributed to its tropical climate, which supports a variety of ecosystems and contributes to the replenishment of aquifers. Additionally, the country's extensive river systems and rainfall patterns play a vital role in maintaining these groundwater levels.
It is noteworthy that access to groundwater is essential for Liberia's development, particularly in rural areas where surface water sources may be limited or contaminated. This statistic underscores the importance of sustainable management of water resources to support the country's population, which was around 1.5 million in 1967, and to facilitate its economic growth.
Vietnam
In 1967, Vietnam ranked 27th out of 188 countries in terms of total renewable groundwater resources, with an impressive figure of 71.42 cubic meters per year. This substantial groundwater resource is crucial for the nation, particularly given its agricultural economy, which relies heavily on irrigation and water supply for crops.
The high availability of renewable groundwater resources in Vietnam can be attributed to its diverse geography, which includes mountains, plains, and extensive river systems. Additionally, the country's tropical monsoon climate contributes to significant precipitation, replenishing groundwater supplies and supporting both rural and urban water needs.
Interestingly, groundwater serves as a vital source of drinking water and irrigation for approximately 60% of Vietnam's population, demonstrating the importance of this resource in sustaining livelihoods. However, as industrialization and urbanization continue to increase, managing these water resources sustainably will be critical to prevent depletion and contamination.
Spain
In 1967, Spain ranked 50th out of 188 countries in terms of total renewable groundwater resources, with an estimated value of 29.9 cubic meters per year. This statistic highlights the country's significant reliance on groundwater for various uses, including agriculture, which has historically been a vital sector in Spain's economy.
The relatively moderate level of renewable groundwater resources can be attributed to Spain's diverse climate and geography, which includes both arid and temperate regions. Factors such as population growth, agricultural demands, and the implementation of irrigation practices have influenced the utilization and conservation of these water resources over the years.
Additionally, Spain's ranking reflects its position in the Mediterranean region, where water scarcity can be a critical issue. As a result, the country has developed various water management strategies, including the construction of reservoirs and the promotion of efficient irrigation technologies to sustain its agricultural output and meet the needs of its growing population.
Netherlands
In 1967, the Netherlands ranked 96th out of 188 countries in terms of total renewable groundwater resources, with a reported value of 4.5 cubic meters per year. This figure reflects the country's geographical and hydrological characteristics, which are influenced by its low-lying topography and extensive water management systems.
The relatively limited amount of renewable groundwater resources can be attributed to various factors, including the country’s high population density and significant agricultural activities that demand substantial water usage. Furthermore, the Netherlands has invested heavily in flood management and water conservation techniques, which may have impacted the natural replenishment rates of groundwater resources.
Interestingly, the Netherlands is renowned for its advanced water management practices, including the construction of dikes and polders, which help mitigate the effects of sea level rise and flooding, crucial in a country where a significant portion of land lies below sea level.
Sao Tome and Principe
Sao Tome and Principe ranked 176th out of 188 countries in terms of total renewable groundwater resources in the year 1967. The nation reported a total of 0 cubic meters per year of renewable groundwater resources, indicating a significant scarcity of this vital resource.
This lack of renewable groundwater can be attributed to the islands' small land area, limited freshwater aquifers, and climatic conditions that affect water availability. Sao Tome and Principe's tropical climate and high rainfall do contribute to surface water resources, but the geographical limitations hinder substantial groundwater recharge.
In broader context, the management of water resources in Sao Tome and Principe has been a challenge, impacting agriculture and domestic water supply. The country has historically relied on rainwater and surface water sources, making the sustainable management of these resources crucial for its development and food security.
Nepal
Nepal ranked 60th out of 188 countries in terms of total renewable groundwater resources in the year 1967. The country had an estimated total renewable groundwater resource of 20 cubic meters per year, highlighting its significant freshwater resources in the context of South Asia.
This statistic reflects Nepal's diverse hydrological conditions, primarily influenced by the numerous rivers and monsoon patterns that contribute to groundwater recharge. The mountainous terrain and varying altitudes also play a crucial role in the distribution and availability of groundwater across different regions.
Factors that might have contributed to the relatively high renewable groundwater resources include the country's extensive rainfall during the monsoon season and the presence of numerous aquifers. Additionally, the geography of Nepal allows for significant infiltration of rainwater into the soil, which is essential for replenishing groundwater supplies.
Czech Republic
In 1967, the Czech Republic was ranked 155th out of 188 countries in terms of total renewable groundwater resources. Notably, the actual value of renewable groundwater resources for the country during this year was recorded as null cubic meters per year, indicating a lack of available data or a minimal amount of groundwater resources considered renewable at that time.
This low ranking may reflect various factors including the geological characteristics of the region, historical land use practices, and potential over-extraction of water resources for agricultural and industrial uses. Additionally, the socio-political context of the time, given that Czechoslovakia was under a communist regime, may have influenced water management policies and data reporting.
It is also worth noting that the overall availability of groundwater resources is crucial for sustaining agriculture, drinking water supplies, and industrial activities, making this statistic significant for understanding the environmental and economic context of the Czech Republic during the mid-20th century.
Data Source
Food and Agriculture Organization of the United Nations (FAO)
The Food and Agriculture Organization (FAO) is a specialized agency of the United Nations that leads international efforts to defeat hunger.
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