Total Renewable Groundwater Resources by Country 2005
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 | United States | 1,383 Cubic meters per year |
2 | China | 828.8 Cubic meters per year |
3 | Russia | 788 Cubic meters per year |
4 | Brazil | 645.6 Cubic meters per year |
5 | Colombia | 510 Cubic meters per year |
6 | Indonesia | 457.4 Cubic meters per year |
7 | Myanmar | 453.7 Cubic meters per year |
8 | India | 432 Cubic meters per year |
9 | Congo, Democratic Republic of the | 421 Cubic meters per year |
10 | Canada | 370 Cubic meters per year |
11 | Peru | 303 Cubic meters per year |
12 | Venezuela | 227 Cubic meters per year |
13 | Papua New Guinea | 211.6 Cubic meters per year |
14 | Philippines | 180 Cubic meters per year |
15 | Mexico | 150 Cubic meters per year |
16 | Chile | 140 Cubic meters per year |
17 | Ecuador | 134 Cubic meters per year |
18 | Bolivia | 130 Cubic meters per year |
19 | Argentina | 128 Cubic meters per year |
20 | Congo | 122 Cubic meters per year |
21 | France | 120 Cubic meters per year |
22 | Guyana | 103 Cubic meters per year |
23 | Cameroon | 100 Cubic meters per year |
24 | Norway | 96 Cubic meters per year |
25 | Suriname | 90 Cubic meters per year |
26 | Nigeria | 87 Cubic meters per year |
27 | Australia | 72 Cubic meters per year |
28 | Vietnam | 71.42 Cubic meters per year |
29 | Turkey | 67.8 Cubic meters per year |
30 | Malaysia | 64 Cubic meters per year |
31 | Gabon | 62 Cubic meters per year |
32 | Nicaragua | 59 Cubic meters per year |
33 | Angola | 58 Cubic meters per year |
34 | Central African Republic | 56 Cubic meters per year |
35 | Madagascar | 55 Cubic meters per year |
36 | Pakistan | 55 Cubic meters per year |
37 | Iran | 49.3 Cubic meters per year |
38 | Zambia | 47 Cubic meters per year |
39 | Germany | 45.7 Cubic meters per year |
40 | Liberia | 45 Cubic meters per year |
41 | Italy | 43 Cubic meters per year |
42 | Thailand | 41.9 Cubic meters per year |
43 | Paraguay | 41.64 Cubic meters per year |
44 | Honduras | 39 Cubic meters per year |
45 | Guinea | 38 Cubic meters per year |
46 | Laos | 37.9 Cubic meters per year |
47 | Côte d'Ivoire | 37.84 Cubic meters per year |
48 | Costa Rica | 37.31 Cubic meters per year |
49 | Kazakhstan | 33.85 Cubic meters per year |
50 | Guatemala | 33.7 Cubic meters per year |
51 | Tanzania | 30 Cubic meters per year |
52 | Spain | 29.9 Cubic meters per year |
53 | Uganda | 29 Cubic meters per year |
54 | Japan | 27 Cubic meters per year |
55 | Ghana | 26.3 Cubic meters per year |
56 | Sierra Leone | 25 Cubic meters per year |
57 | Iceland | 24 Cubic meters per year |
58 | Uruguay | 22.9 Cubic meters per year |
59 | Ukraine | 22 Cubic meters per year |
60 | Bangladesh | 21.122 Cubic meters per year |
61 | Panama | 21 Cubic meters per year |
62 | Ethiopia | 20 Cubic meters per year |
63 | Mali | 20 Cubic meters per year |
64 | Nepal | 20 Cubic meters per year |
65 | Sweden | 20 Cubic meters per year |
66 | Cambodia | 17.6 Cubic meters per year |
67 | Georgia | 17.23 Cubic meters per year |
68 | Mozambique | 17 Cubic meters per year |
69 | Belarus | 15.9 Cubic meters per year |
70 | Guinea-Bissau | 14 Cubic meters per year |
71 | Kyrgyzstan | 13.69 Cubic meters per year |
72 | Slovenia | 13.5 Cubic meters per year |
73 | South Korea | 13.3 Cubic meters per year |
74 | North Korea | 13 Cubic meters per year |
75 | Poland | 12.5 Cubic meters per year |
76 | Solomon Islands | 11.92 Cubic meters per year |
77 | Bosnia and Herzegovina | 11.57 Cubic meters per year |
78 | Chad | 11.5 Cubic meters per year |
79 | Croatia | 11 Cubic meters per year |
80 | Ireland | 10.8 Cubic meters per year |
81 | Afghanistan | 10.65 Cubic meters per year |
82 | Greece | 10.3 Cubic meters per year |
83 | Equatorial Guinea | 10 Cubic meters per year |
84 | Morocco | 10 Cubic meters per year |
85 | United Kingdom | 9.8 Cubic meters per year |
86 | Burkina Faso | 9.5 Cubic meters per year |
87 | Uzbekistan | 8.8 Cubic meters per year |
88 | Romania | 8.46 Cubic meters per year |
89 | Bhutan | 8.1 Cubic meters per year |
90 | Sri Lanka | 7.8 Cubic meters per year |
91 | Belize | 7.51 Cubic meters per year |
92 | Burundi | 7.47 Cubic meters per year |
93 | Rwanda | 7 Cubic meters per year |
94 | Azerbaijan | 6.51 Cubic meters per year |
95 | Cuba | 6.48 Cubic meters per year |
96 | Bulgaria | 6.4 Cubic meters per year |
97 | Albania | 6.2 Cubic meters per year |
98 | Syrian Arab Republic | 6.174 Cubic meters per year |
99 | El Salvador | 6.15 Cubic meters per year |
100 | Mongolia | 6.1 Cubic meters per year |
101 | Austria | 6 Cubic meters per year |
102 | Hungary | 6 Cubic meters per year |
103 | Tajikistan | 6 Cubic meters per year |
104 | Zimbabwe | 6 Cubic meters per year |
105 | Togo | 5.7 Cubic meters per year |
106 | Jamaica | 5.472 Cubic meters per year |
107 | Fiji | 5.273 Cubic meters per year |
108 | South Africa | 4.8 Cubic meters per year |
109 | Latvia | 4.7 Cubic meters per year |
110 | Netherlands | 4.5 Cubic meters per year |
111 | Vanuatu | 4.377 Cubic meters per year |
112 | Armenia | 4.311 Cubic meters per year |
113 | Denmark | 4.3 Cubic meters per year |
114 | Dominican Republic | 4.161 Cubic meters per year |
115 | Estonia | 4 Cubic meters per year |
116 | Portugal | 4 Cubic meters per year |
117 | Kenya | 3.5 Cubic meters per year |
118 | Senegal | 3.5 Cubic meters per year |
119 | Somalia | 3.3 Cubic meters per year |
120 | Iraq | 3.28 Cubic meters per year |
121 | Lebanon | 3.2 Cubic meters per year |
122 | Malawi | 2.5 Cubic meters per year |
123 | Niger | 2.5 Cubic meters per year |
124 | Switzerland | 2.5 Cubic meters per year |
125 | Finland | 2.2 Cubic meters per year |
126 | Saudi Arabia | 2.2 Cubic meters per year |
127 | Haiti | 2.157 Cubic meters per year |
128 | Namibia | 2.1 Cubic meters per year |
129 | Benin | 1.8 Cubic meters per year |
130 | Slovakia | 1.73 Cubic meters per year |
131 | Botswana | 1.7 Cubic meters per year |
132 | Tunisia | 1.595 Cubic meters per year |
133 | Algeria | 1.517 Cubic meters per year |
134 | Egypt | 1.5 Cubic meters per year |
135 | Yemen | 1.5 Cubic meters per year |
136 | Czech Republic | 1.43 Cubic meters per year |
137 | Oman | 1.3 Cubic meters per year |
138 | Republic of Moldova | 1.3 Cubic meters per year |
139 | Israel | 1.225 Cubic meters per year |
140 | Lithuania | 1.1 Cubic meters per year |
141 | Comoros | 1 Cubic meters per year |
142 | Belgium | 0.9 Cubic meters per year |
143 | Mauritius | 0.893 Cubic meters per year |
144 | Timor-Leste | 0.886 Cubic meters per year |
145 | State of Palestine | 0.75 Cubic meters per year |
146 | Eswatini | 0.66 Cubic meters per year |
147 | Trinidad and Tobago | 0.614 Cubic meters per year |
148 | Libya | 0.6 Cubic meters per year |
149 | Jordan | 0.54 Cubic meters per year |
150 | Eritrea | 0.5 Cubic meters per year |
151 | Gambia | 0.5 Cubic meters per year |
152 | Lesotho | 0.5 Cubic meters per year |
153 | Cyprus | 0.41 Cubic meters per year |
154 | Turkmenistan | 0.405 Cubic meters per year |
155 | Mauritania | 0.3 Cubic meters per year |
156 | Cabo Verde | 0.124 Cubic meters per year |
157 | United Arab Emirates | 0.12 Cubic meters per year |
158 | Bahrain | 0.112 Cubic meters per year |
159 | Brunei Darussalam | 0.1 Cubic meters per year |
160 | Luxembourg | 0.08 Cubic meters per year |
161 | Barbados | 0.074 Cubic meters per year |
162 | Qatar | 0.058 Cubic meters per year |
163 | Malta | 0.05 Cubic meters per year |
164 | Maldives | 0.03 Cubic meters per year |
165 | Kuwait | 0.02 Cubic meters per year |
166 | Saint Kitts and Nevis | 0.02 Cubic meters per year |
167 | Djibouti | 0.015 Cubic meters per year |
168 | Nauru | 0.01 Cubic meters per year |
169 | Antigua and Barbuda | 0 Cubic meters per year |
170 | Bahamas | 0 Cubic meters per year |
171 | Cook Islands | 0 Cubic meters per year |
172 | Dominica | 0 Cubic meters per year |
173 | Faroe Islands | 0 Cubic meters per year |
174 | Grenada | 0 Cubic meters per year |
175 | Kiribati | 0 Cubic meters per year |
176 | New Zealand | 0 Cubic meters per year |
177 | Niue | 0 Cubic meters per year |
178 | North Macedonia | 0 Cubic meters per year |
179 | Saint Lucia | 0 Cubic meters per year |
180 | Saint Vincent and the Grenadines | 0 Cubic meters per year |
181 | Samoa | 0 Cubic meters per year |
182 | Sao Tome and Principe | 0 Cubic meters per year |
183 | Seychelles | 0 Cubic meters per year |
184 | Singapore | 0 Cubic meters per year |
185 | South Sudan | NaN Cubic meters per year |
186 | Sudan | NaN Cubic meters per year |
187 | Tonga | 0 Cubic meters per year |
188 | Tuvalu | 0 Cubic meters per year |
↑Top 10 Countries
- #1
United States
- #2
China
- #3
Russia
- #4
Brazil
- #5
Colombia
- #6
Indonesia
- #7
Myanmar
- #8
India
- #9
Congo, Democratic Republic of the
- #10
Canada
Analysis: These countries represent the highest values in this dataset, showcasing significant scale and impact on global statistics.
↓Bottom 10 Countries
- #188
Tuvalu
- #187
Tonga
- #186
Sudan
- #185
South Sudan
- #184
Singapore
- #183
Seychelles
- #182
Sao Tome and Principe
- #181
Samoa
- #180
Saint Vincent and the Grenadines
- #179
Saint Lucia
Context: These countries or territories have the lowest values, often due to geographic size, administrative status, or specific characteristics.
Analysis & Context
Total renewable groundwater resources by country is a crucial measurement that captures the volume of groundwater naturally replenished and available for use. This data holds immense importance as it reflects the capacity of countries to sustain their populations and ecosystems through renewable water sources. In 2005, an analysis of 186 countries revealed significant disparities in groundwater resources, emphasizing both the potential for sustainable water management and the challenges inherent in achieving it. This article delves into various aspects of groundwater distribution, the role of climate, and the implications for sustainability.
Climate and Groundwater Availability
Climate plays a pivotal role in the distribution and replenishment of groundwater resources. Regions with abundant rainfall, such as equatorial areas and parts of the temperate zone, often enjoy higher volumes of renewable groundwater. For instance, the United States tops the list with 1383 cubic meters per year, largely due to its diverse climate zones that include significant precipitation, contributing to groundwater recharge. Similarly, Brazil, with 645.6 cubic meters per year, benefits from the Amazon basin's extensive rainfall, making it one of the richest regions in renewable water resources.
The contrast is stark when compared to arid or semi-arid regions where renewable groundwater is minimal or nonexistent. Countries like Kiribati, New Zealand, and Tonga reported zero cubic meters per year in 2005, highlighting the acute challenges they face in sourcing sustainable water supplies. Such disparities underscore the critical need for efficient water management and innovative solutions to enhance groundwater replenishment in drier climates.
Regional Disparities in Groundwater Resources
The distribution of renewable groundwater resources is not uniform across the globe, with significant regional variations. In Asia, China and India are notable examples, reporting 828.8 and 432 cubic meters per year, respectively. These figures reflect their vast geographical areas and diverse climates, which include significant monsoon influences that enhance water availability. Despite these resources, both countries face challenges in managing their groundwater sustainably due to high population densities and agricultural demands.
In contrast, countries in Africa, such as the Democratic Republic of the Congo, which possesses 421 cubic meters per year, have substantial groundwater potential but often lack the infrastructure necessary to harness and distribute these resources effectively. This highlights broader developmental challenges where natural wealth in water resources does not necessarily translate to accessibility or efficient utilization.
Sustainability Implications and Policy Considerations
The disparities in renewable groundwater resources have significant implications for sustainability. Nations with abundant groundwater resources, like the United States and Brazil, are better positioned to support their populations and ecosystems sustainably. However, this does not eliminate the need for prudent management to prevent over-extraction and contamination that could compromise these resources in the future.
Conversely, countries with limited or zero renewable groundwater must adopt innovative approaches and policies to secure water supplies. This may include investing in technologies for water conservation, enhancing artificial recharge techniques, or exploring alternative water sources such as desalination. International cooperation and shared learning, especially in the context of climate change, are essential to support countries facing severe water shortages.
The availability of renewable groundwater resources significantly impacts economic activities and social well-being. In nations like Canada, which reported 370 cubic meters per year, water resources support extensive agricultural activities, industrial growth, and urban development. The economic benefits of robust groundwater supplies are evident in enhanced food security, industrial outputs, and overall economic resilience.
However, the social implications of limited groundwater are profound in regions with scarce water supply. Countries with minimal resources experience heightened vulnerability to water scarcity, affecting health, sanitation, and overall quality of life. Addressing these challenges requires a multifaceted approach, integrating policy advances, technological innovation, and community engagement to build resilience against water-related adversities.
Global Perspectives and Future Outlook
Looking ahead, the global perspective on renewable groundwater resources will likely be shaped by continued climate variability and increasing demands from population growth and economic development. While 2005 data shows no year-over-year changes in the recorded figures, the potential for fluctuations due to climate events or policy shifts remains.
Efforts to enhance water sustainability must focus on improving data accuracy, investing in water infrastructure, and promoting policies that encourage equitable water distribution. The international community must collaborate to address the impending challenges posed by water scarcity, ensuring that all nations can leverage their groundwater resources effectively for sustainable development.
Insights by country
Mongolia
Mongolia ranks 100th out of 188 countries in terms of total renewable groundwater resources as of the year 2005. The country possesses 6.1 cubic meters per year of renewable groundwater resources, which is a critical statistic given its vast, arid landscapes and sparse population density.
This limited availability of groundwater resources can be attributed to Mongolia's geographical features, including its high elevation and continental climate, which contribute to low precipitation levels. The reliance on groundwater is particularly significant in rural areas where access to surface water is limited.
Furthermore, Mongolia's growing population and economic development have intensified pressure on these water resources, as agriculture and livestock farming rely heavily on groundwater for sustainability. The country faces challenges in managing these resources effectively, making this statistic a vital consideration for future water resource planning and environmental management.
Iran
In 2005, Iran was ranked 37th out of 188 countries in terms of total renewable groundwater resources, with a recorded value of 49.3 cubic meters per year. This statistic underscores the significant role groundwater plays in Iran's water supply, particularly given the country's arid climate and reliance on agriculture.
The relatively high ranking reflects both the natural endowments of the region and the extensive use of groundwater in agricultural practices, which are vital for food security in a country where more than 60% of the population depends on farming. However, challenges such as over-extraction, pollution, and climate change pose serious risks to the sustainability of these groundwater resources.
Additionally, it is worth noting that Iran's water management policies and practices have faced criticism for inefficiencies and misallocation, which could exacerbate the pressures on its groundwater systems. The country's ongoing struggle with water scarcity highlights the importance of sustainable water resource management to ensure long-term availability.
Spain
In 2005, Spain ranked 52nd out of 188 countries regarding total renewable groundwater resources, with a reported volume of 29.9 cubic meters per year. This statistic highlights Spain's significant reliance on groundwater for agricultural and domestic use, particularly in regions with limited surface water resources.
The relatively high ranking can be attributed to Spain's geographic diversity, which includes arid and semi-arid areas where groundwater serves as a crucial resource. Factors such as climate variability, population density, and agricultural practices exert pressure on these renewable groundwater supplies, necessitating effective management to ensure sustainability.
Moreover, Spain's groundwater resources play a vital role in supporting its extensive agricultural sector, which is among the largest in Europe. The country is particularly known for its production of olives, grapes, and citrus fruits, which are heavily dependent on irrigation drawn from groundwater sources.
Niue
In 2005, Niue was ranked 177 out of 188 countries in terms of total renewable groundwater resources, with an astonishing value of 0 cubic meters per year. This statistic highlights the island's significant challenges regarding freshwater availability, primarily due to its small land area and limited natural freshwater sources.
The absence of renewable groundwater resources in Niue can be attributed to its geological composition, which is largely made up of limestone and coral, limiting the capacity to store and recharge groundwater. Additionally, the island's tropical climate, characterized by seasonal rainfall, further complicates the situation, as rainwater is often the primary source of freshwater, necessitating careful management to meet the needs of its population.
Niue's situation underscores the importance of sustainable water management practices, especially in small island nations where freshwater resources are scarce. It is also notable that, as a member of the Pacific Islands Forum, Niue collaborates with regional partners to address water security and resilience against climate change, which poses ongoing threats to its freshwater systems.
Niger
Niger ranks 123rd out of 188 countries in terms of total renewable groundwater resources as of 2005. The country has an estimated 2.5 cubic meters of renewable groundwater resources per year, indicating a limited availability of this vital resource.
This scarcity of groundwater can be attributed to several factors, including Niger's predominantly arid climate, which is characterized by low rainfall and high evaporation rates. The country is situated in the Sahel region, where desertification and climate change have further exacerbated water shortages.
Moreover, the high population growth rate in Niger places additional pressure on available water resources, impacting agricultural productivity and access to clean drinking water. As a result, Niger faces significant challenges in managing its water resources to meet the needs of its population.
Paraguay
In 2005, Paraguay ranked 43rd out of 188 countries regarding total renewable groundwater resources, with a notable value of 41.64 cubic meters per year. This statistic highlights the significant availability of groundwater in a country that is largely characterized by its agricultural sector, which heavily relies on such resources for irrigation and livestock.
The abundant groundwater resources in Paraguay can be attributed to its geographical features, including the presence of extensive aquifers and a favorable climate that supports water recharge. Additionally, the country’s relatively low population density and extensive natural landscapes contribute to the sustainability of its groundwater supply.
Interestingly, Paraguay's renewable groundwater resources play a crucial role in not only supporting local agriculture but also in providing drinking water for its population. The management and conservation of these resources are vital, especially in light of challenges such as climate change and potential over-extraction, which could threaten this valuable asset in the future.
Burkina Faso
In 2005, Burkina Faso ranked 86th out of 188 countries in terms of total renewable groundwater resources. The country has approximately 9.5 cubic meters of renewable groundwater resources per year, highlighting its reliance on this vital resource for agricultural and domestic use.
This statistic is significant considering Burkina Faso's climate, which is characterized by a predominantly arid environment, making groundwater a critical component for sustaining livelihoods. Factors influencing this groundwater availability include geological formations, rainfall patterns, and the country's overall water management practices.
Additionally, Burkina Faso faces challenges such as population growth, climate change, and land degradation, which can further strain its groundwater resources. The importance of sustainable water management strategies is thus underscored, as they are essential for ensuring the long-term availability of this critical resource for the country's development.
Bosnia and Herzegovina
Bosnia and Herzegovina ranks 77th out of 188 countries for total renewable groundwater resources as of the year 2005. The country has a total renewable groundwater resource of 11.57 cubic meters per year, reflecting its relatively abundant freshwater resources compared to many other nations.
This statistic can be attributed to the country's diverse geography, which includes mountainous regions, numerous rivers, and significant rainfall, contributing to its groundwater reservoirs. However, the management and quality of these resources can be influenced by various factors, including urbanization, pollution, and the impacts of climate change.
Interestingly, the availability of renewable groundwater resources is crucial for Bosnia and Herzegovina, as it supports agriculture, drinking water supply, and industrial processes. The country’s reliance on these resources emphasizes the importance of sustainable water management practices to ensure long-term availability and quality.
North Macedonia
In 2005, North Macedonia was ranked 178 out of 188 countries in terms of total renewable groundwater resources, reporting a value of 0 cubic meters per year. This statistic indicates a significant scarcity of renewable groundwater resources within the country, which can have serious implications for agricultural and domestic water supply.
The lack of renewable groundwater resources may be attributed to several factors, including the country's geographical characteristics, climate variability, and historical water management practices. North Macedonia is situated in a region with a Mediterranean climate, which can lead to limited water availability, especially during dry seasons.
Furthermore, the reliance on surface water sources and the challenges of water pollution and over-extraction further exacerbate the difficulties in managing water resources effectively. This situation highlights the need for sustainable water resource management strategies to ensure the availability of water for future generations.
Saint Vincent and the Grenadines
In 2005, Saint Vincent and the Grenadines ranked 180th out of 188 countries in terms of total renewable groundwater resources, reporting a total of 0 cubic meters per year. This statistic indicates a significant limitation in the availability of renewable groundwater for the country's needs.
The absence of renewable groundwater resources can be attributed to various geographical and climatic factors, including the island's relatively small land area and the nature of its volcanic terrain, which can affect water retention and aquifer recharge. Moreover, the country's reliance on rainfall for water supply makes it vulnerable to seasonal variations and climate change impacts.
Additionally, it is noteworthy that Saint Vincent and the Grenadines has a population of approximately 110,000 people, which increases the demand for water resources. The government has been focusing on improving water management practices and exploring alternative water sources to address these challenges.
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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