Search results
Results From The WOW.Com Content Network
The resource curse, also known as the paradox of plenty or the poverty paradox, is the hypothesis that countries with an abundance of natural resources (such as fossil fuels and certain minerals) have lower economic growth, lower rates of democracy, or poorer development outcomes than countries with fewer natural resources. [1]
Natural resources can be a substantial part of a country's wealth; [7] however, a sudden inflow of money caused by a resource extraction boom can create social problems including inflation harming other industries ("Dutch disease") and corruption, leading to inequality and underdevelopment, this is known as the "resource curse".
Analysis Utility Branch Dose–response curves: Graph that shows the magnitude of the response of an organism, as a function of exposure (or doses) to a stimulus or stressor (usually a chemical) after a certain exposure time [2]
The resource consumption rate of a nation does not usually correspond with the primary resource availability, this is called resource curse. Unsustainable consumption by the steadily growing human population may lead to resource depletion and a shrinking of the earth's carrying capacity .
Advancing technology: Increasing technology sophistication enables faster rates of natural resource extraction. For example, in the past, it could take a long time to log a small amount of trees using only saws. Due to better technology, the rates of deforestation have greatly increased. [6]
The resource curse is the paradoxical lack of growth in countries with strong natural resources. Dutch disease is one mechanism which might contribute to this lack of growth. I think this article does a good job of illustrating the differences. Dutch disease is listed as one of three explanations for the resource curse.--
List of environmental studies topics; List of examples of convergent evolution; List of introduced species; List of life zones by region; List of long-living organisms; List of old growth forests; List of organisms by chromosome count; List of parasitic organisms; List of symbiotic relationships; List of unsolved problems in biology; Lists of ...
where N j is the density of species j, R is the density of the resource, a is the rate at which species j eats the resource, d is species js death rate, and r is the rate at which resources grow when not consumed. It is easy to show that when species j is at equilibrium by itself (i.e., dN j /dt = 0), that the equilibrium resource density, R* j, is