what is the atom found in all organic molecules?
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Here is a model image of a carbon molecule:\nhttp://www.lloydminsterheavyoil.com/carbon.jpg
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If I remember my chemistry correctly, an organic molecule is one containing carbon and at least one other element.  So, a non-organic substance would be anything else.
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organic compounds have covalent bonds in them thay have carbon attached to the other elements by sharing an electron or two depending upon the nature of bond so they dont have free electrons for  conduction of electricity\nfor conduction to take place in organic compounds they will hasve to overcome these bonding forces and require high energy
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LOL!\n\nLet's guess which types of molecules your homework listed.\n\nI will guess...  A water molecule.
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Quantum numbers are used to describe every single electron in an atom or molecule. Each electron is assigned it's own set of four different quantum numbers. no electron in the same atom or molecule can have the same set of quantum numbers.\n\nIn atoms:\nn = the principle quantum number. It is an integer, starting with 1, then 2, then 3, and so forth. This tells the principle energy level that the electron occupies. On the periodic table, the row number tells the higest principle quantum number an electron in that elemet can have. For example, the lone electron in hydrogen is always in the n = 1 energy level. However, an element like iodine in the 5th row can have electrons all the way up to the n + 5 energy level.\n\nl is the angular momentum quantum number. It is an integer that ranges from 0 to n-1. This number determines the shape of the electrons orbital. 0 is a sphere. 1 is dumbell shapped. 2 is two dumbells. 3 is 6 dumbells. These orbital shapes are usually represented with letters: 0 = s, 1 = p, 2 = d, 3 = f, 4 = g, and so on. s,p,d,f are the most commonly seen. Since l can range from 0 to n-1, n determines which orbital shapes the electrons in a given atom can have. In the first row, only s is possible. The second row adds p orbitals, and the third row adds d orbitals. Even though no atoms in the third row have occupied d orbitals in the ground state, they are still avaliable for bonding or excited state electrons (which explains why sulfer can and often does form more than 4 bonds)\n\nm is the magnetic quantum number. It simple tells the orientation of the orbitals. It ranges from -l to l. s orbitals have l = 0, so there is only one orientation. p orbitals have l = 1, so there are three, corresponding to m = -1, m= 0, and m = 1. d orbitals have 5 orientations, and f orbitals have 7. The number of orientations is also equal to the number of each type of orbital an atom (1 s orbital, 3 p orbitals, 5 d orbitals, 7 f orbitals) per energy level.\n\nm sub s (written as an m with a subscript s) is thespin quantum number. Every orbital can hold two electrons, however due to Pauli's Exclusion Principle, they can't have the same set of quantum numbers. The spin quantum number is either +1/2 or - 1/2, and it determines the direction of the electron's "spin." This isn't spin in the normal sense, as electrons don't spin like tops.
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Molecules came from atoms combining. Atoms came from protons, neutrons, and electrons combining. Protons and neutrons came from quarks combining. Quarks and electrons came from condensation from the high energy vacuum. Where that came is still a bit up in the air, but look at the website below:\n\nhttp://www.sciencedaily.com/releases/2006/05/060515232747.htm
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Carbon is "special" for organic chemistry because of its ability to form molecules of arbitrary numbers of carbon atoms and other elements, primarily hydrogen, nitrogen and oxygen. Carbon can have up to four single bonds. Besides, it can have double or triple bonds, allowing for even more variations than its heavier homologue Silicon.\n\nOne of my old chemistry professors gave three "fundamental theorems" for organic chemistry:\n\n- Carbon always has four bonds\n- Nucleophile will react with electrophile (slightly  negative ends with slightly positive ones)\n- Whenever the opportunity to form a ring of five or six atoms offers itself during a reaction, it will be taken.\n\nBetter than 95% of organic chemistry can be deduced using these rules.
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A proton, neutron, and electron is what makes up an atom.  a molecule however is defined as two or more atoms linked by chemical bonds which are linked atom.  Covalent bonds consist of shared pairs of electrons Electronegativity: unequal sharing of electrons...U can find more info on askjeeves.com
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It depends on what you have, if you know the mole of the molecule, you can determine the mass by converting molar mass (g/mol) into mass (g). The mole of the molecule can be found on the periodic table, but first you need to know the molecule formula of the compound. Then add it up.
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Protons, Neutrons, and electrons
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Atoms don't get pulled around by electrons. The electrons orbit around the nucleus of an atom. The electrostatic attraction between the protons in the nucleus and the electrons is what keeps the electrons orbiting. When atoms form molecules, it is electrons that hold the atoms bonded to one another... electrons are "shared" by the various nuclei in the molecule. In other words, the electron orbits (orbitals) from neighboring atoms overlap, and the electrons can move freely within the system of overlapped orbitals.
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By calculating. -_-\n\n1 mol is approximated to 6 x 10^23 molecules/atoms.\n\nThis can also be rephrased as:\n\n6 x 10^23 molecules make 1 mol of the compound.\nTherefore Q molecules make [1/(6x10^23) x Q] mol of the compound.
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An atom is the smallest unit of any observable thing you can have. Atoms make up almost everything we can see.\n\nIt's name is Greek for 'Indivisable' but we have since found that atoms are made of protons, neutrons and electrons (and the first two are made of even smaller particles).\n\nAn element is a substance that is entirely comprised by only one type of atom. Gold, Tin and Oxygen are elements because they are made entirely of Gold, Tin and Oxygen atoms.\n\nMolecules and Compounds are similar in that they are made up of two or more atoms of different elements in a precise and defined ratio. Atoms in compounds can be ionically bonded. Molecules are, generally, covalently bonded.
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Organic compounds are ones containing carbon.  Methane is nothing more than a single carbon atom surrounded by four hydrogen atoms, making the molecule very much reduced.  The methane there can be used to react with other reagents to build larger organic molecules with methane as a building block.
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An atom is the smallest chemical entity and the part of an element which preserves its chemical character. \n\nIts parts are Protons, Neutrons, Electrons.
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Yes and No...\n\nAll Organic Compounds contain Carbon, but not all compounds containing Carbon are Organic.\n\nas quoted from my source, listed below...\n\n"An organic compound is any member of a large class of chemical compounds whose molecules contain carbon, with the exception of carbides, carbonates, carbon oxides and gases containing carbon.The study of organic compounds is termed organic chemistry. Many of these compounds, such as proteins, fats, and carbohydrates (sugars), are also of prime importance in biochemistry.\n\nThe dividing line between organic and inorganic is contended and historically arbitrary; generally speaking, however, organic compounds are defined as those compounds which have carbon-hydrogen bonds, and inorganic compounds, those without. Thus carbonic acid is inorganic, whereas formic acid, the first fatty acid, is organic, although it could as well be called "carbonous acid" and its anhydride, carbon monoxide, is inorganic"
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There isn't one standard answer to this question.\nThe most common definition of a molecule is the smallest unit of a material that retains it's chemical attributes.\nmolecules interact with each other by electrostatic (electric) interaction :\n1. charged molecules interact by repulsion or attraction of monopoles.\n2. A charged and uncharged molecule interact by monopole-dipole interaction\n3. 2 uncharged molecules that have a permanent dipole interact by dipole/dipole interaction. A special case of this is hydrogen bonds between two hydrogen bearing molecules.\n3. molecules that do not posses dipoles interact by induced dipole/induced dipole interactions. An example of this is the formation of a solid from Argon atoms (molecules).