One would be dinosaurs.
The fossil record is life's evolutionary epic that unfolded over four billion years as environmental conditions and genetic potential interacted in accordance with natural selection. It shows us the changes species have incurred over millions of years.
A fossil gene is a gene that has lost its function or has become non-functional over evolutionary time. These genes are remnants of ancestral genes that have accumulated mutations and are no longer actively involved in the biological processes of an organism. Fossil genes can provide insights into the evolutionary history of an organism and how its genome has changed over time.
Scientists combine evidence from fossil fuels, body structures, early development, and DNA and proteins to gain a comprehensive understanding of evolutionary relationships. By considering multiple sources of evidence, they can reconstruct the evolutionary history of organisms more accurately and discern patterns of relationships between different species. This multidisciplinary approach helps scientists build a more robust picture of how organisms have evolved over time.
An animal fossil can be buried in sedimentary rock layers such as sandstone, shale, or limestone that have accumulated over time. The fossilization process occurs when the remains of an animal are buried quickly after death, protecting them from decay and allowing for the formation of a fossil.
The fossil record independently confirms the general hypothesis of common descent, and allows palaeontologists and evolutionary biologists to confirm specific proposed phylogenies as well as specific hypotheses about the evolutionary past of various lineages.
Scientists determine evolutionary relationships between animal phyla using evidence from comparative anatomy, fossil records, molecular genetics, and embryology. By studying similarities and differences in these aspects across different animal groups, researchers can infer how they are related to each other in the tree of life.
Evidence used to support evolutionary theory includes the fossil record showing the progression of species over time, comparative anatomy and genetics showing shared traits among different species, and the observation of natural selection acting on populations leading to adaptation and speciation.
Fossil records!
Fossil evidence showing a shared evolutionary history between the two species. Genetic similarities, such as shared DNA sequences or homologous genes, indicating a common genetic ancestry. Similar embryonic development patterns or anatomical structures that suggest a shared evolutionary origin.
The fossil record, comparative anatomy, molecular genetic and molecular cell Biology, genetics, evolutionary development and evolutionary biology to name several disciplines with evidence for evolution and it's processes. Go here. talkorigins.org
Clues can be found out about the evolutionary relationships of animals by studying fossil records.
well it depends on wat fossil your talking about. fossil can be a shop. but an animal is a fossil when it is bones under the ground
The fossil record, comparative anatomy, molecular genetic and molecular cell biology, genetics, evolutionary development and evolutionary biology to name several disciplines with evidence for evolution and it's processes. Go here. talkorigins.org
examining the fossil records.
The fossil record is life's evolutionary epic that unfolded over four billion years as environmental conditions and genetic potential interacted in accordance with natural selection. It shows us the changes species have incurred over millions of years.
A fossil gene is a gene that has lost its function or has become non-functional over evolutionary time. These genes are remnants of ancestral genes that have accumulated mutations and are no longer actively involved in the biological processes of an organism. Fossil genes can provide insights into the evolutionary history of an organism and how its genome has changed over time.
Scientists combine evidence from fossil fuels, body structures, early development, and DNA and proteins to gain a comprehensive understanding of evolutionary relationships. By considering multiple sources of evidence, they can reconstruct the evolutionary history of organisms more accurately and discern patterns of relationships between different species. This multidisciplinary approach helps scientists build a more robust picture of how organisms have evolved over time.