What is the equations for both photosythesis and cellular respiration?
413595
12H2O+ 6CO2 =C6H12O6+602 (chlorophyll & sunlight)-this is for photosynthesis\n\nC6H12O6 + 6O2 = 6CO2+6H2O + energy -this is for aerobic respiration where free molecular oxygen is required.\n\nphotosynthesis shows a constructive process so it is anabolism,on the other hand respiration is breakdown process,catabolism
926620
"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
115621
since glucose is a monosaccharide, it is a simple sugar with a formula of C6H12O6. Now, to make glucose very easily, here's a hint. Since glucose is a product of photosynthesis (along with oxygen) just get a plant, put it under a UV light, and voila, glucose. The chemical formula for photosynthesis is (6)H2O + (6) CO2 + Light = C6H12O6 + (6)O2
605716
Photosynthesis, Respiration, Acid Rain, Carbon Cycle, Nitrogen Cycle, Ozone, Methanol, Carbonic Acid...\n\nThe sources listed are very good, some may be over your head, but, look them over.
721054
sunlight+water+carbon dioxde(co2) ===> glucose(c6h12o6?) + oxygen
768016
Photosynthesis , basically occurs in two distinct phases. 1) Light reaction & 2) Dark reaction\n            Both are part of photosynthesis\n6CO2 + 12H2 O -> LIGHT &   CHLOROPLAST> = C6 H12 O6 + 6H2 O + 6O2\nThe above is the often quoted equation of the process\n            1) Light reaction or the Hill’s reaction occurs in the grana of a chloroplast.\n  Sun’s light energy is used to convert ADP in to ATP …………. (i)\n   NADP is converted in to NADP. H2…………………………… (ii)\n It can occur only in the presence of light, hence the name.\n2) Dark reaction or Calvin’s cycle occurs in the stroma of a chloroplast.\n   Light plays no role in it. Hence  called dark reaction.\n  With the help of the two products of light reaction, i.e. ATP & NADP.H2 glucose is manufactured from CO2 and H2 O  i. e. carbon dioxide gas and water.\nThe CO2   in the above equation comes from the atmosphere and enters through the stomata on the leaves.\nThe H2 O  in above equation comes from the soil through the roots, stem and xylem elements.\n A single molecule of Glucose (C6 H12 O6) requires all the six molecules of carbon dioxide gas but only 50% of water ( Only 6 out of 12 H2 O molecules entering the reaction (see the equation)\nRemaining 50% water ( The water you are talking about, I presume) and the O2 gas is released back in the atmosphere as a byproduct ( and not waste product) . There is no room for waste in the nature.\nIt is wholly man made and he is paying for that and will continue to pay dearly  for his tampering with the Nature!\n\n\nEdit---> The 50% water that is released in the atmosphere through the stomata comes from the soil...................(1)\n\n              This is recombined water, after spltting of the orginal water molecules in to hydrogen and oxygen to extract electrons \nfor the manufacture of ATP and NADP.H2...................(2)\n\nIn short, all the molecules out of the 12 original are utilised \none way or the other..................(3)
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I dont know what u mean by that but i could still help you.Did u mean this?\nCELLULAR RESPIRATION\n\nC6H12O6 + 6 O2  6CO2 + 6H2O + ATP\ncheck out:\nwww.biology.about.com
964937
Cellular respiration is the process in which the chemical bonds of energy-rich molecules such as glucose are converted into energy usable for life processes. Oxidation of organic material—in a bonfire, for example—is an exothermic reaction that releases a large amount of energy rather quickly. The equation for the oxidation of glucose is:\n\nC6H12O6 + 6O2 → 6CO2 + 6H2O + Energy released (2830 kJ mol−1) \nIn a fire there is a massive uncontrolled release of energy as light and heat. Cellular respiration is the same process but it occurs in gradual steps that result in the conversion of the energy stored in glucose to usable chemical energy in the form of ATP. ATP is known as the universal currency because when the phosphoanhydride bonds in ATP are hydrolyzed in an exergonic reaction, the energy yield is 30kJ per mole under standard conditions. Waste products (CO2 + H2O) are released through exhaled air, sweat and urine.
586250
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.
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Photosystems I and II in plant cells both absorb light energy from the sun to perform photosynthesis. Neither system absorbs green wavelength of light, which is why plant leaves look green.\nPhotosystem I absorbs 700 nanometer wavelengths the best while Photosystem II absorbs 680nm wavelengths the best.\n\nIn Photosynthesis, Photosystem II comes before photosystem I. (the numbering is mixed up because P1 was discovered before P2). First, in P2, water is split by light energy and the electrons released by the reaction travel to an electron acceptor which produce ATP. P1 does the same thing as P2 but in addition, its electron acceptor also receives the electrons used by P2.\n\nThese two photosystems make up the light reaction part of photosynthesis. The energy (ATP) made in this reaction drives the dark reaction part of photosynthesis, where carbon dioxide is converted to glucose sugar.
904836
carbon dioxide from the air combining with ribulose 1,5 bisphosphate
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The overall reaction for photosynthesis is...\n\nCO2 + H2O-----> O2 +C6H12O6\n\nO2 is a gas\nC6H12)6 is an oorganic molecule glucose (a solid)
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If you want me to use those specific terms it sounds like you're going to just copy what I write for your assignment.  I'd be happy to explain the process to you, by I'm not going to write your homework paper.\n\nThe idea is that plants produce food using energy from the sun, and all other life either directly eats plants or eats things that eat plants.  So all life (except some protists, that, like plants, can make their own food) lives on energy that the plants have harvested from the sun.\n\nI hope you already know what the laws of thermodynamics, photosynthesis, and respiration are.  If not, pay more attention in class or look them up on Wikipedia.  You should be able to figure out how to phrase the explaination in a way that uses those terms on your own.
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Are you are asking,"What is photosynthesis and oxygen exchange?"\nPhotosynthesis is when the plant uses sunlight as energy to live and grow.The plant takes the sunlight energy to produce and move nutrients taken from the ground.\nOxygen exchange is when a plant takes in carbon dioxide and releases oxygen back into the atmosphere.That replenishes the air.
744647
C(3)H(8)+5O(2)=>3CO(2)+4H(2)O\nfuel+oxygen=>carbon dioxide+water\ncombustion \nbrackets-subscript
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http://en.wikipedia.org/wiki/Photosynthesis#Factors_affecting_photosynthesis\n\n=)
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Using the Michaelis-Menten equation.\n\nMore details on teh attached link\n\nhttp://www.le.ac.uk/by/teach/biochemweb/tutorials/michment2print.html\n\nGood luck