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Fermantation occurs when there is lack of oxygen

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Fermentation occur so when there's a lack of oxygen

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* Energy is produced in the form of ATP.
* When rib cage and the diaphragm work faster.

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Fermentation your cells store energy in the form of ATP. When muscles contract, they break down ATP in a reaction that provides energy. However, muscle cells only store enough ATP to fuel a few seconds of maximal contraction. To keep working, they must replenish their ATP supply. They can do this for a short period of time by breaking down another high-energy compound called creatine phosphate. Because stores of creatine phosphate are also limited, this energy system, called the phosphagen system, can only sustain maximal muscle output for about 10 seconds. The phosphagen system is the primary energy source during very short, rapid bursts of activity, such as a sprint

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Muscles have large stores of a carbohydrate, called glycogen, which can be used to make ATP from glucose. But this takes about 12 chemical reactions so it supplies energy more slowly than from creatine phosphate. Oxygen is not needed because it takes the heart and lungs some time to get increased oxygen supply to the muscles. A by-product of making ATP without using oxygen is lactic acid. You know when your muscles are building up lactic acid because it causes tiredness and soreness . Fermentation is used to begin glycolysis, it replaces NADH+.

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Increased Energy Requirements

Your body needs oxygen at all times. Oxygen and glucose are your body's basic energy building blocks. It requires them to make your heart pump blood, to keep your lungs inhaling and exhaling, and to allow every other organ and cell to function. Every one of these activities uses up energy that must be replaced in part by taking in more oxygen.

When you exercise, your muscles move more vigorously than when you are at rest. Their metabolic rate increases. They need more energy, so they produce more of the chemical energy molecule ATP. You need oxygen to produce ATP, so the more ATP you produce, the more oxygen your body requires

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mFermentation. The production of ATP without oxygen continues through the anaerobic process of glycolysis  and fermentation. Fermentation doesnt make ATP, but it allows glycolysis to continue by providing a steady amount of NAD

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Latifa and zohra and mahshid and benny and rawan and maryam 

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Latifa and zohra and mahshid and benny and rawan and maryam 

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-energy is produced by atp

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Fermention and glycolysis because its the production of ATP without Oxygen

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A2.).  When you exercise, your muscles move more vigorously than when you are at rest. Their metabolic rate increases. They need more energy, so they produce more of the chemical energy molecule ATP. You need oxygen to produce ATP, so the more ATP you produce, the more oxygen your body requires.

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How can we produce energy when we have low oxygen supply?

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How can we produce energy when we have low oxygen supply?

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Increased Energy Requirements

Your body needs oxygen at all times. Oxygen and glucose are your body's basic energy building blocks. It requires them to make your heart pump blood, to keep your lungs inhaling and exhaling, and to allow every other organ and cell to function. Every one of these activities uses up energy that must be replaced in part by taking in more oxygen.

When you exercise, your muscles move more vigorously than when you are at rest. Their metabolic rate increases. They need more energy, so they produce more of the chemical energy molecule ATP. You need oxygen to produce ATP, so the more ATP you produce, the more oxygen your body requires

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A1.).  The carbohydrates used during exercise this are stored as glycogen both in the muscles, and around the liver.  These stores are limited, and as they begin to run out the proportion of energy provided by fat rises (though you cannot metabolise fat unless there is at least some carbohydrate as well).  Once your glycogen stores have run out, your body begins to break down muscle proteins to provide energy and to maintain blood sugar levels.

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How are we able to produce energy while exercising?

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How are we able to produce energy while exercising?

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Your cells store energy in the form of ATP. When muscles contract, they break down ATP in a reaction that provides energy. However, muscle cells only store enough ATP to fuel a few seconds of maximal contraction. To keep working, they must replenish their ATP supply. They can do this for a short period of time by breaking down another high-energy compound called creatine phosphate. Because stores of creatine phosphate are also limited, this energy system, called the phosphagen system, can only sustain maximal muscle output for about 10 seconds. The phosphagen system is the primary energy source during very short, rapid bursts of activity, such as a sprint.

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-energy is provided to

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How does glycolysis continue

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alanood producing energy with low oxygen supply.

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alanood producing energy with low oxygen supply.

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the body reacts by sending signals to the lungs to take in more oxygen and releasing CO2

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Energy is provided to the body once ATP is broken down to ADP

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hala shabab aba snapatkom :))

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when a car gets fuel it breaks it down in order to run its the same thing w humans we eat food break it down and release energy

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hala shabab

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How is the process of fuel combustion in a car engine similar to the way the cells in your body release energy stored in fuel ??

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How is the process of fuel combustion in a car engine similar to the way the cells in your body release energy stored in fuel ??

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Both cellular respiration and combustion require a core fuel for the process to happen at all. This fuel is stored energy, and the entire process of combustion or respiration is to convert that energy from its stored state -- in the fuel -- to another state that the engine, either mechanical or bionic, can use to power its other operations. While fossil fuels and sugar molecules have very different structures, they both have a series of molecular bonds that the energy harvesting process will break apart.❤️❤

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Both cellular respiration and combustion require a core fuel for the process to happen at all. This fuel is stored energy, and the entire process of combustion or respiration is to convert that energy from its stored state -- in the fuel -- to another state that the engine, either mechanical or bionic, can use to power its other operations. While fossil fuels and sugar molecules have very different structures, they both have a series of molecular bonds that the energy harvesting process will break apart.

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The car breaking down fuel is like a human breaking down food and absorbs energy

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While breaking apart the bonds to release the stored energy from the fuels -- either fossil fuels for combustion or sugars for respiration.In each case, a catalyst is required to start the reaction that will break the bonds apart. In the case of combustion, the catalyst is a spark. Fossil fuels are flammable, so the spark will ignite the fuel in a cylinder, breaking apart the bonds and releasing the energy. For respiration, enzymes are used to break the sugar molecule apart.

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Both cellular respiration and combustion require a core fuel for the process to happen at all. This fuel is stored energy, and the entire process of combustion or respiration is to convert that energy from its stored state -- in the fuel -- to another state that the engine, either mechanical or bionic, can use to power its other operations. While fossil fuels and sugar molecules have very different structures, they both have a series of molecular bonds that the energy harvesting process will break apart.

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alanood producing energy while exercising.

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alanood producing energy while exercising.

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the reactions that take place that produce a release of energy. both humans and cars need fuel to function. the fuel is stored energy. the reactions take place to make usable energy for the system.