A single glucose molecule produces about 38 molecules of ATP through the process of cellular respiration. However, this only represents approximately 34% of the chemical energy present in this molecule. The rest of the energy from glucose is .

Glucose phosphorylation

Explanation:

The majority of the energy in a molecule of glucose is lost as heatATP produced by aerobic cellular respiration is made by oxidative phosphorylation38 ATP particles can be made peroxidized glucose atom during cellular respiration (2 from glycolysis, 2 from the Krebs cycle, and around 34 from the electron transport system)The bonds between carbons in the glucose particle releases energy There are additionally high energy electrons captured caught as 2 NADH (electron bearers) which will be used later in the electron transport chain NAD+ is an electron transport particle inside the cristae of a cell's mitochondriaIn glycolysis, the starting procedure of a wide range of cellular respiration two atoms of ATP are utilized to connect 2 phosphate groups to a glucose particle, which is separated into 2 separate 3-carbon PGAL atoms

Hunting in the darksome fish rely on senses beyond sight. in the darkness of the marianas trench, a fish called the rattail has an extremely sensitive sense of smell. the fish uses scent, rather than sight, to steer toward food. once it's near food, the rattail uses a special organ on the bottom of its chin to guide itself by feel.marine snowone staple of the deep sea diet is "marine snow," flakes of organic, edible substances that sink down from the upper ocean. animals at the ocean's bottom find sustenance in everything from the bodies of dead creatures to fecal matter. marine snow is diverse enough to support numerous species. for instance, several species of snails and worms feed exclusively on deceased whales.microorganismsthe deep sea is an intricate ecosystem, and even the ocean floor itself plays a part. hydrothermal vents are cracks in the sea floor where erupting magma mixes with ocean water to produce plumes of hot, sulfur-rich chemicals. some microbes can use these chemicals for energy, sustaining their existence and that of the animals who depend on their roles in the deep sea food chain.