Ecosystem resilience is the inherent ability to absorb various disturbances and reorganize while undergoing state changes to maintain critical functions. Ecosystem resilience is the capacity of an ecosystem to deal with pressures and demands, either by resisting, recovering or adapting to them whilst retaining their ability to deliver ecosystem services and benefits now and into the future. The main and most important factors in ecosystem resilience are namely: redundancy and modularity. Ecological redundancy is the functional compensation due to several species which perform similar functions in an ecosystem. Modularity is defined as the interconnectedness of the components of a system. Genetic diversity serves as a way for populations to adapt to changing environments. With more variation, it is more likely that some individuals in a population will possess variations of alleles that are suited for the environment. Those individuals are more likely to survive to produce offspring bearing that allele. The greatest biodiversity is found in the tropical regions of the world, particularly among tropical rainforests and coral reefs. Biodiversity is increased by genetic change and evolutionary processes and reduced by habitat destruction, population decline and extinction. Maintaining high genetic diversity allows species to adapt to future environmental changes and avoid inbreeding. Inbreeding, which happens when there are small, isolated populations, can reduce a species' ability to survive and reproduce. The idea of natural selection is that traits that can be passed down allow organisms to adapt to the environment better than other organisms of the same species. This enables better survival and reproduction compared with other members of the species, leading to evolution. Genetic diversity of plants, animals and other living organisms is what enables them to survive and thrive in this world. The capacity of species to adapt to new circumstances, whether this is resource scarcity, a changing environment or other disturbances to their natural environment, depends on genetic diversity. This is known as genetic diversity. It strengthens the ability of species and populations to resist diseases, pests, changes in climate and other stresses. Gene variations underpin their capacity to evolve and their flexibility to adapt. Biodiversity supports food security and sustained livelihoods through overall genetic diversity. Genes regulate all biological processes on the planet and increase the ability of organisms to cope with environmental stressors. The whole area of agricultural productivity and development depend on genetic diversity. The plant as well as animal genetic resources play important role in the economy of a country. Genetic diversity is the whole basis for a sustainable life system in the earth.
Genetic diversity serves as a way for populations to adapt to changing environments. With more variation, it is more likely that some individuals in a population will possess variations of alleles that are suited for the environment. Those individuals are more likely to survive to produce offspring bearing that allele. Greater biodiversity in ecosystems, species, and individuals leads to greater stability. As species with high genetic diversity and many populations that are adapted to a wide variety of conditions are more likely to be able to weather disturbances, disease, and climate change. Maintaining high genetic diversity allows species to adapt to future environmental changes and avoid inbreeding. Inbreeding, which happens when there are small, isolated populations, can reduce a species' ability to survive and reproduce. Biologically diverse communities are also more likely to contain species that confer resilience to that ecosystem because as a community accumulates species, there is a higher chance of any one of them having traits that enable them to adapt to a changing environment. Genetic diversity is a measure of the genetic variation among individuals in a population. Populations with high genetic diversity are better able to respond to environmental change than populations with lower genetic diversity. All the biological data and variation that makes life on our planet work is encoded in DNA. This is known as genetic diversity. It strengthens the ability of species and populations to resist diseases, pests, changes in climate and other stresses. Genetic diversity acts as a way for populations to adapt and respond to changing conditions and environments. Ecosystems that are more complex are more resilient, or better able to tolerate and recover from disturbances, than ecosystems that are less complex. To help illustrate why this is, imagine a complex ecosystem with many components and many interactions between those components. Genetic Diversity refers to the range of different inherited traits within a species. In a species with high genetic diversity, there would be many individuals with a wide variety of different traits. Genetic diversity is critical for a population to adapt to changing environments. Genetic diversity is important because it could ensure that certain groups of individuals, species, or populations will be able to adapt to certain environmental factors. Besides having to deal with environmental conditions, genetic diversity renders them the ability to resist emerging diseases and epidemics.