myosin

Phylogenetic analyses of myosin motor domain (MD) sequences have shown that there are at least 79 myosin classes, with several subclasses under each class.

The bundle has mechanical integrity and leads to a distant location in the cell, and the myosin 10 can detect that the actin is bundled.

Having trisomy 21 or exons in your myosin genes don't give you superpowers in another part of your life.

A robotic arm helps understand the mechanics of an arm, but not cell metabolism, myosin motors, etc.

Another possibility is that the myosin heavy chain, or a related regulatory function, induces larger jaws.

Protein machines like ATP synthase [2] (which creates the ATP used by myosin to create movement) provide an answer 1.

A lot of cellular transport is dependent on directed transport via the cytoskeleton and myosin.

This causes the muscle filaments (actin and myosin) to bind together, resulting in muscle contraction.

How myosin and other protein machines work at the atomic level is actually pretty well-known!

For example, myosin 10 has evolved to walk along specific bundles of actin, but not so well along single actin filaments.

They are much simpler, but there's a lot of crazy stuff about how myosin works we don't understand.

The DNA injected is a plasmid with a myosin promoter supposedly introduced via electroporation through the call membrane and then presumably into the nucleus.

Myosin - a muscle protein - changes it shape during its power stroke.

Myosin is a very cool protein because it’s a physical and direct link between the microscopic world of atoms and electrical charges and the macroscopic world of moving bodies.

Myosin was originally the one everybody was going to focus on, but the structural biophysics were challenging (for a long time the only model was a C-alpha structure in the PDB).