the process that releases energy from food.
Internal Respiration."Internal respiration is the diffusion of gases between blood and interstitial fluid across the endothelial cells of capillary walls."Says my Anatomy Book.
Cellular respiration is essential because it converts biochemical energy from nutrients into adenosine triphosphate (ATP), which powers various cellular processes. This process not only provides energy necessary for growth, repair, and maintenance of cells but also enables organisms to perform vital functions such as movement, reproduction, and response to the environment. Additionally, cellular respiration helps regulate metabolic pathways and maintain homeostasis in living organisms.
Photosynthesis 6H2O 6CO2--->C6H12O6 6O2 Respiration 1.Glycolisis:- C6H12O6 2ATP 2NAD --->2Pyruvate 2NADH 4ATP Kreb cycle:- 2Pyruvate 8NAD Co enzyme A 2FAD ---> 2Acetaldehyde Co.A 6CO2 8NADH 2ATP 2FADH2 ETC:- 10NADH 2FADH2 ---> 34ATP H2O
External respiration is to breathe and facilitate gas exchange in the lungs or an analogous body cavity, depending on the organisms anatomy. Cellular respiration is the process of oxidative phosphorylation, where ATP energy is generated from biomolecules by the cell. In aerobes, the process involves a series of electron steps and oxygen is the terminal electron acceptor
death and llife x
Glycolisis,Kreb cycle,Electron transport chain
The answer is that they both smell like moldy cheese!MMMMM fine-moon'cheese!
Because of the resparetion. Resparation means breathe. Leaves breathe in thecarbon dioxide and breathe out the oxygen.
Photosynthesis and respiration are interconnected processes in living organisms. During photosynthesis, plants and some microorganisms convert sunlight into chemical energy, producing oxygen as a byproduct. In contrast, respiration involves the breakdown of organic molecules to release energy, using oxygen and producing carbon dioxide as a waste product. Together, these processes form a balance in the carbon cycle, with photosynthesis removing carbon dioxide from the atmosphere and respiration returning it.
As you may know, during photosynthesis, plants produce stored energy in the form of sugar. In order to access this energy store the sugar must be broken down to release the energy (ATP) and this is cellular respiration.
Cellular respiration is also known as oxidative metabolism. Carbon Dioxide and water is produced. But you have to consume oxygen and sugar.
Cellular respiration is the process by which the chemical energy of molecules is released and partially captured in the form of ATP(Adeninetriphosphate, a form of energy release). Carbohydrates, fats, and proteins can all be used as fuels in cellular respiration, but glucose is most commonly used as an example to examine the reactions and pathways involved.
Internal Respiration."Internal respiration is the diffusion of gases between blood and interstitial fluid across the endothelial cells of capillary walls."Says my Anatomy Book.
Resparation is basically the release of energy but if you are talking about breathing in and out then the air fills in our lungs and enters the alveoli and a gas exchange happens. Oxygen diffuses into the low oxygnated blood and the carbon dixoide diffuses out, that carbon dixoide is brethed out and the oxygnated blood is sent to the rest of the body e.g organs and muscles wich use it as a source of energy.
Cellular respiration is a combination of several biochemical processes broadly classified in two steps, namely glycolysis and Kreb's cycle. Therefore, several scientist have discovered these steps leading to break down of glucose in to carbon dioxide and water molecules and releasing energy in the form of ATP molecules. However, Hans Kreb won Noble prize in discovering the pathway, named after him as Kreb's cycle.
Resparation is the creation of energy, in order to do this the body needs oxygen and glucose. Foods are broken down by the stomach and glucose and carbohydrates are absorbed into the bloodstream to the mitocondria (energy creating cells). The oxygen comes from the lungs and meets the glucose at the mitocondria.