Some viruses are very advanced in their evolution, compared to what they started as. However, in absolute terms and compared to most other biological entities, viruses are barely evolved at all; they are in fact not considered life at all, and are probably remnanats of the earliest complicated organic forms.
Yes
The plural form of virus is viruses. It is not "viri".
Fossils show the past history, bacteria and viruses show that it's still active.
The verb form is evolve (evolves, evolving, evolved).
Evolution
Yes
convergent evolution
On Mars, the most advanced life form (if there is any) would be bacteria, whilst on earth mammals are the most advanced.
exsoskeleton, flight
No but it depends where you get it from, get it from the main iobit site.
Yes they can. -Abhi jain (advanced academy)
Ribosomes are made up of cellular skeletal components viruses are essentially prokaryotic bacterium which had mutated during evolution
no the theory of evolution is a species becoming more advanced not over populated
Viruses can form crystals and they can survive in this form for many years. however the HIV that causes Aids cannot do this .
Viral evolution is a subfield of evolutionary Biology that is specifically concerned with the evolution of viruses. Many viruses, in particular RNA viruses, have short generation times and relatively high mutation rates (on the order of one point mutation or more per genome per round of replication for RNA viruses). This elevated mutation rate, when combined with natural selection, allows viruses to quickly adapt to changes in their host environment. Viral evolution is an important aspect of the epidemiology of viral diseases such as influenza, HIV, and hepatitis. It also causes problems in the development of successful vaccines and antiviral drugs, as resistant mutations often appear within weeks or months after the beginning of the treatment
Viral evolution is a subfield of evolutionary biology that is specifically concerned with the evolution of viruses. Many viruses, in particular RNA viruses, have short generation times and relatively high mutation rates (on the order of one point mutation or more per genome per round of replication for RNA viruses). This elevated mutation rate, when combined with natural selection, allows viruses to quickly adapt to changes in their host environment. Viral evolution is an important aspect of the epidemiology of viral diseases such as influenza, HIV, and hepatitis. It also causes problems in the development of successful vaccines and antiviral drugs, as resistant mutations often appear within weeks or months after the beginning of the treatment
Biological.