Related to biochemistry.\nI am a student of M.Sc. Botany.
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do you mean interactions BETWEEN nucleic acids and proteins?  If so there's a lot of ways you can study that - you can do a footprint analysis - digest the nucleic acid in the presence of the protein and see what piece gets protected to see where the protein binds if you know the identity of the two interacting molecules.  If you don't know their identity you can try a gel-shift assay where DNA will move at different rates on a gel in the presence and absence of various proteins.  If you know the protein but not the DNA you can try an affinity column with the protein immobilized and then try to determine which DNA sequences bind.  You can also try to determine the crystal structure of a co-crystal if you have a lot of the two materials.  good luck!
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these are called the classical "work horses" of plant and aniamal cells respectivly.  Regardless chlorplast is reposnsible the energy conversionin photsysnthesis and mitochondia is used in cell metabolism to provide energy through ATP-ADP energy relationships. Any basic science book would do this and so would a Wikepedia or googlesearch. I woudl suggest you go there to get spsecifics, or try the library in your neighbourhood
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Biochemistry (bones are biological) and chemistry (reaction between the molecules that make up the bone, and the vinegar and baking soda).\n\nCellular and molecular biology and microbiology don't really count, since it's you're not trying to examine how it affects individual cells.
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flowering plants! we just learned this in my biology 110 class at penn state! oh, my professor would be so  proud :)
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1.The estimation of the photosynthetic rate and diffusive conductance of a leaf depends on the accurate measurement of a number of physical properties of the leaf, the air around it, and the light falling on it.\n\n2. Electron transport chains in mitochondria\nThe cells of all eukaryotes (all animals, plants, fungi, algae – in other words, all living things except bacteria and archaea) contain intracellular organelles called mitochondria that produce ATP. Energy sources such as glucose are initially metabolized in the cytoplasm. The products are imported into mitochondria. Mitochondria continue the process of catabolism using metabolic pathways including the Krebs cycle, fatty acid oxidation and amino acid oxidation.\n\nThe end result of these pathways is the production of two energy-rich electron donors, NADH and FADH2. Electrons from these donors are passed through an electron transport chain to oxygen, which is reduced to water. This is a multi-step redox process that occurs on the mitochondrial inner membrane. The enzymes that catalyze these reactions have the remarkable ability to simultaneously create a proton gradient across the membrane, producing a thermodynamically unlikely high-energy state with the potential to do work. Although electron transport occurs with great efficiency, a small percentage of electrons are prematurely leaked to oxygen, resulting in the formation of the toxic free radical, superoxide.\n\nThe similarity between intracellular mitochondria and free-living bacteria is striking. The known structural, functional and DNA similarities between mitochondria and bacteria provide strong evidence that mitochondria evolved from intracellular prokaryotic symbionts that took up residence in primitive eukaryotic cells.
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Too many to list and explain here, without copying and pasting  --and why should I do all your uni work for you? ;-)\n\nI will recommend a couple of good text books through.  Well worth a purchase or just get them on loan from your library...\n\nAlberts et al, Molecular Biology of the Cell\nStryer, Biochemistry\n\nIt's been since I bought mine.  Think I got editions 2 & 7 back in 1996 and I know both have been updated a couple of times since.  These are still a GREAT basic resourse for this sort of question.
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i think u should check wikipedia\n\nhttp://en.wikipedia.org/wiki/Lycoperdales
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pollination is the transfer of pollen from the anther to the stigma of a plant.  Fertillization is the creation by the physical union of male and female gametes, pollen and ovule in a plant
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Your Ph.D guide will be able to help you out. I am sure you will be able to understand the botanical terminology in the following text.\nThere are hundreds of species of Eucalyptus growing world wide mostly located in xeric conditions. The gross anatomical features include the following:\n      1) Cuticularised epidermis, with some times sunken stomata. Multiple epidermis can also be found in some cases.\n      2) Well developed palisade with plenty of chloroplasts.\n      3) Well developed mechanical tissue.\n      4) Presence of oil glands.\nAll these features are ecological adaptations to the dry habitat. \nYour university will be in position to tell you about the previous work done on the subject. A good library will give you the books. Go for ‘Ecological anatomy of dicotyledonous plants‘ or ‘Anatomy of Dicotyledonous Plants‘.
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Glucose and proteins are not ions.
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I know of one good site I'd recommend:\n\nhttp://www.biospace.com/
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(C) Amino acids are L; sugars are D.\n\nThe majority of biologically significant A.A are in the L configuration, the majority of biologically significant sugars are in the D configuration.
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http://www.newton.dep.anl.gov/newton/askasci/1993/biology/bio021.htm
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Go to your biology book and look it up or go to wikepedia
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Not a whole lot... but I can see how. Fluid in some plants can be electrolytic.
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Chromosones record genetic information. And aren't even organelles, they're part of the nucleus. ---> X\nNucleus ----> X\n\nMitochondria turn sugar into AtP (energy).\nChlorpasts store solar energy in the form of sugar.\n\nMitochondria function whenever oxygen is present and sugar is available.\nChloroplasts whenever CO2 and sun-light are available.
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B) Oxygen\n\nhttp://www.aspb.org/publications/biotext/sumrys/ch12.cfm\n\nWhich is a major reason green plants are our friends!  They take in our waste gas (CO2) in the process of photosynthesis which produces THEIR waste gas, O2, which WE need.\nNow look up the word "symbiosis" as a term to describe that relationship!\n(Glycogen is produced in animals, not plants.)