what gas is needed to make glusose during photosynthesis??
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"The raw materials of photosynthesis, water and carbon dioxide, enter the cells of the leaf, and the products of photosynthesis, sugar and oxygen, leave the leaf."\n\nAnswer:  Carbon Dioxide
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Simply put:\n\n6CO2 + 6H2O -{photosyhnthesis}-> C6H12O6 (glucose) -{Respiration-> 6CO2 + 6H2O\n\nPhotosynthesis takes energy from sunlight; respiration gives energy to the organism.
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Well there is water, amount of carbon dioxide ( needed for light indepent stage of photosynthesis), light ofcourse and temperature ( enzymes are involved in photosynthesis and these operate at an optimum temp. 37 degree celcius)
550253
This time we use oxygen to burn the sugar:\n\nSugar + Oxygen = Carbon Dioxide + Water + Energy\n\nUsing glucose:\nC_6H_12O_6 + 6 O_2 -> 6 CO_2 + 6H_2O + Energy
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Simple one will be \nSunlight + Carbon dioxide (CO2) + Water (H2O)--> Glucose (C6H12O6) + Oxygen (O2).\nor \n6CO2 +12 H2O (light energy and chlorophyll) ---> C6H12O6 + 6O2\nRemember to use subscript whenever necessary.
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THe same way it functions in Animals.  When the plant needs to use energy it metabolizes it via cellular respiration (catabolic) in mitochondria.  The only difference is that Plants make their own energy (anabolic) harnessing the energy from sunlight with chloroplast. \n\nIn order to use this harnessed energy the plant also has to use mitochondria.\n\nGlucose catabolism (breakdown) occurs in two stages : glycolysis and cellular respiration.  do you want detail here (it's just textbook mumbo-jumbo from here on out).
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Biological systems have enzymes (and a handful of other reagents) which will use O2 and sugar to make energy--specifically, hexokinase (HK), phosphoglucose isomerase (PGI), phosphofructokinase (PFK), aldolase, triose phosphate isomerase (TIM), glyceraldehyde-3-phosphate dehydrogenase (GAPDH), phosphoglycerate kinase (PGK), phosphoglycerate mutase (PGM), endolase, and pyruvate kinase (PK).  The process undergone is called glycolysis.  The result is that glucose is consumed, making two pyruvate molecules (which in some systems can then enter the Citric Acid Cycle aka Kreb's Cycle) and ADP is turned into ATP, which is an energy source.\n\nAnd after memorizing this and subsequently forgeting all this useless detail some years ago, I nearly ralphed on my book reading this just now.  Bad memories.
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ATP energy is not released through the process of photosynthesis. Photosynthesis rather stores energy into glucose using carbon dioxide, water, and sun light. Cellular respiration releases the energy from the glucose to create 36 ATP molecules.\n\nHope this helps!
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because photosynthesis only produceses glucose and cells cannot use raw glucose but they can use ATP which is produced from cellular respiration, furthermore without cellular respiration photosynthesis could not occure due to the fact that it uses energy.
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A plant uses photosynthesis to produce glucose.\n\nSome of the glucose will be used in respiration to generate energy.
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Photosynthesis is the process by which plants, some bacteria, and some protistans use the energy from sunlight to produce sugar, which cellular respiration converts into ATP, the "fuel" used by all living things. The conversion of unusable sunlight energy into usable chemical energy, is associated with the actions of the green pigment chlorophyll. Most of the time, the photosynthetic process uses water and releases the oxygen that we absolutely must have to stay alive. Oh yes, we need the food as well!
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Photosynthesis (photo=light, synthesis=putting together), generally, is the synthesis of sugar from light, carbon dioxide and water, with oxygen as a waste product. It is arguably the most important biochemical pathway known; nearly all life depends on it. It is an extremely complex process, comprised of many coordinated biochemical reactions. It occurs in higher plants, algae, some bacteria, and some protists, organisms collectively referred to as photoautotrophs.\n\nPhotosynthesis uses the energy of light to make the sugar, glucose. A simple general equation for photosynthesis follows.\n\n6 CO2 + 12 H2O + light → C6H12O6 + 6 O2 + 6 H2O\ncarbon dioxide + water + light energy → glucose + oxygen + water\nPhotosynthesis occurs in two stages. In the first phase light-dependent reactions or photosynthetic reactions (also called the Light reactions) capture the energy of light and use it to make high-energy molecules. During the second phase, the light-independent reactions (also called the Calvin-Benson Cycle, and formerly known as the Dark Reactions) use the high-energy molecules to capture carbon dioxide (CO2) and make the precursors of glucose.
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Your body breaks down all sugars, from oligo(a lot)-saccharides(sugars) , to poly(many)saccharides(sugars), to di(two)saccharides(sugars), to mono(one)saccharides(sugars)- which it can use as fuel.
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carbon dioxide from the air combining with ribulose 1,5 bisphosphate
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carbohydrates is formed as a result of photosynthesis.The chlorophyll,a green colour pigment in leaves helps in converting co2 into carbohydrates.The carbohydrates is formed from two types of reactions namely light and dark reactions.There are many photosynthetic pigments involve in the conversion of co2 into carbohydrates.
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Hooooo.OK U want all explanation in yahoo answers?I Will try\n\nIN photosynthesis the sunlight energy is used by green plants to prepare food materials.\nn light reaction the sun light activates chlorophyll molecules so that they make NADDP2 and NADH2.These two in Calvin cycle reduce the co2+h2o in to glucose molecule\n\nIN respiration the reverse happens Of course in different steps\nGlucose molecule in respiration (it is a 6 carbon molecule6H12O6) passes through 3 phases to release the energy in the form of ATP(remember solar energy is taken in p.s to make glucose molecule)\n\nIn GLYCOLYSIS of respiration g;ucose divides in to two pyruvic acids which is aC3co,mpound (2X3=6CARBON glucose)\n\nIn KREBSCYCLE THE pyruvic acik(c3)com pound splits in to 3 co2 and while doing so , it producesNADPH2 nd NADH2\n\nINthe last phase the ELECTRON TRANSPORT  the reduced powers or NADH2 AND NADPH2  are oxidised  (at this stage it takes in oxygen_) in to energy(ATP)and co2\nso the end product in respiration is carbondioxide and energ y in the form of ATP
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The simple answer to your question is -- Yes, continuous exposure to an energetic enough light source and adequate supply of water and carbon dioxide WILL prohibit cellular respiration from taking place.  The reason for this is found in the processes that take place during both photosynthesis and cellular respiration.  \n\nFirst, photosynthesis takes place in two phases 1) photophosphorylation (which needs light to take place) and 2) carbon fixation (Calvin cycle – which can occur in the light or dark).  During photophosphorylation, energy in the form of light is captured and stored as NaDPH and/or ATP.  This is also the stage that utilizes the H+ proton from water molecules and releases oxygen as a by-product.  During the Calvin cycle, the carbon in carbon dioxide is “fixed” or assimilated into other products and some ATP is utilized to for the building blocks for the plant, such as glucose.  As I said before, as long at a photosynthetic plant has light, water, and CO2 (and other trace minerals of course), photosynthesis will continue.\n\nSo where does cellular respiration come it, and do plants even do it?  The answer is, yes, they do use cellular respiration and they do it when they need an alternate energy source when light is not present.  Keep in mind that cellular respiration is something akin to the opposite of photosynthesis and its purpose is to supply energy in the form of ATP by breaking down things like glucose.  This provides the needed maintenance energy at the expense of stored energy in the glucose.\n\nSo, why would constant exposure to light keep a plant from respiring?  The answer is – the plant has a constant source of ATP through the photophosphorylation phase of photosynthesis that there is no need to break down its stored “fuel” to provide maintenance energy.  In fact, if enough light is provided, the resulting photosynthesis will provide enough energy to meet maintenance needs and allow generation of building blocks and stored fuel.\n\nAs for the second part of your question, there are many reasons that a plant in natural light for only daylight hours might grow better than one continuously lit artificially.  Most likely though, this has to do with the availability of the necessary “ingredients” for growth mentioned above.  Especially of interest here is the INTENSITY of the light rather than the duration.  However, even if the intensity is high enough, if the other ingredients are lacking relative to the natural environment the plant will still suffer.\n\nHope that clarifies the issue for everyone.