In eukaryotic cells that are very metabolically active (such as liver or muscle cells) you will find a lot of mitochondria.
These will produce ATP via the electron transfer chain to be used as cellular energy.
Active cells such as muscle and liver cells have more mitochondria than others because they use up a lot more energy to carry out their roles and stay alive. Thus needing the extra mitochondria to produce more energy.
The number of mitochondria indicates the energy need of a particular cell; meaning, if a cell has a large number of mitonchoria, that cell (for example a muscle cell) must have a high demand for energy.
The shape of nerve cells makes them great for communicating signals between the brain and the rest of the body. Their great lenght helps these signals reach the brain quickly. A nerve cell's branching structure can connect several parts of the body at once
The main transport fluid in your body is your blood. This fluid is found throughout the body in great amounts.
Two important properties of microscopes that enable cytologists to study cells in great detail are magnification, which allows them to see small structures in cells, and resolution, which allows them to distinguish between closely spaced objects within a cell. These properties help cytologists observe and analyze the intricate structures and functions of cells.
a large surface area
gravitational pull
The inner membrane is folded on itself multiple times in structures called "christae". These folds dramatically increase the surface area within the mitochondrion, which increases how much energy the organelle can make.
The inner membrane is folded on itself multiple times in structures called "christae". These folds dramatically increase the surface area within the mitochondrion, which increases how much energy the organelle can make.
The inner membrane is folded on itself multiple times in structures called "christae". These folds dramatically increase the surface area within the mitochondrion, which increases how much energy the organelle can make.
Because the energy released by nuclear fission is extremely great compared with the energy released by coal burning.
Cells that expend a great deal of energy, such as skeletal muscle cells, would have increased quantities of mitochondria. Mitochondria are the powerhouses of the cell, responsible for producing ATP through aerobic respiration. Additionally, these cells would likely contain higher levels of enzymes involved in energy metabolism and a greater supply of substrates like glycogen to support their energy demands during contraction.
YES But only if you don't consider the massive amounts of energy required to make the wind turbine and get it into position. The actual energy conversion from wind to electricity is not great but it is free.
YES But only if you don't consider the massive amounts of energy required to make the wind turbine and get it into position. The actual energy conversion from wind to electricity is not great but it is free.
a muscle cell will need alot of mitochondria for energy as it uses up a lot when the muscle contracts and relaxes rapidlyAny cells which would require a great deal of energy to fulfill their function, such as muscles.
The two processes in the extraction of aluminium that require large amounts of energy are electrolysis of alumina to produce aluminium metal and the production of alumina from bauxite through the Bayer process. Both processes involve high temperatures and consume significant amounts of electricity.
yes if you place the photo-voltaic cells inside office buildings and instead use inside light not solar or sun light. A great percentage of light in the worlds buildings can be recycled by simple using light energy and not only recycling solar energy but office light also.