Curriculum Project
... a. C6H14 make at least 2 isomers, same chemical formula but different structural formula. Name each of the isomers. b. C6H12 make at least 2 isomers, same chemical formula but different structural formula. Name each of the isomers. c. C6H10 using either two double or a triple bonds make at least 2 i ...
... a. C6H14 make at least 2 isomers, same chemical formula but different structural formula. Name each of the isomers. b. C6H12 make at least 2 isomers, same chemical formula but different structural formula. Name each of the isomers. c. C6H10 using either two double or a triple bonds make at least 2 i ...
Carbon and Molecular Diversity
... • Hydroxyl functional groups are polar (the oxygen end's electronegativity), and attract water. This helps dissolve in water those macromolecules, such as sugars, which have hydroxyl functional groups in their structure. • The naming convention for alcohols is to have the alcohol end in "ol" and the ...
... • Hydroxyl functional groups are polar (the oxygen end's electronegativity), and attract water. This helps dissolve in water those macromolecules, such as sugars, which have hydroxyl functional groups in their structure. • The naming convention for alcohols is to have the alcohol end in "ol" and the ...
1 Saturday X-tra X-Sheet: 8 Organic Molecules Hydrocarbons Key
... • Isomers – are two substances with the same molecular formula, but different structures. • Homologous series – is a group of organic compound all of which have the same general formula. • Functional groups – are individual atoms or group of atoms attached to carbon chains or rings that give organic ...
... • Isomers – are two substances with the same molecular formula, but different structures. • Homologous series – is a group of organic compound all of which have the same general formula. • Functional groups – are individual atoms or group of atoms attached to carbon chains or rings that give organic ...
Name: Date: Period: _____ Unit 2 Notes, Part 1 – The Basics of
... 15. The attractions between nearby water molecules are called hydrogen bonds. Hydrogen bonding occurs whenever a slightly positive hydrogen on one molecule is attracted to a slightly negative nitrogen, oxygen, or fluorine on another molecule (think H-NOF). These bonds are usually depicted with a do ...
... 15. The attractions between nearby water molecules are called hydrogen bonds. Hydrogen bonding occurs whenever a slightly positive hydrogen on one molecule is attracted to a slightly negative nitrogen, oxygen, or fluorine on another molecule (think H-NOF). These bonds are usually depicted with a do ...
Atomic Number and Mass Number
... the force of gravity (yes I changed it) attraction of water molecules to each other through hydrogen bonds material that dissolves in a solvent ...
... the force of gravity (yes I changed it) attraction of water molecules to each other through hydrogen bonds material that dissolves in a solvent ...
PowerPoint 簡報 - Solon City Schools
... In a hydroxyl group (–OH), a hydrogen atom is bonded to an oxygen atom, which in turn is bonded to the carbon skeleton of the organic molecule. (Do not confuse this functional group with the hydroxide ion, OH–). Hydroxyl groups are not highly reactive, but they readily form hydrogen bonds and contri ...
... In a hydroxyl group (–OH), a hydrogen atom is bonded to an oxygen atom, which in turn is bonded to the carbon skeleton of the organic molecule. (Do not confuse this functional group with the hydroxide ion, OH–). Hydroxyl groups are not highly reactive, but they readily form hydrogen bonds and contri ...
c - Down the Rabbit Hole
... • All living organisms Are made up of chemicals based mostly on the element carbon ...
... • All living organisms Are made up of chemicals based mostly on the element carbon ...
الرقم الجامعي
... B. In each case, identify the symmetry (σ, π, δ) and type of molecular orbital (bonding, non-bonding, antibonding) that your drawing corresponds to. (Label the axes x, y, z in each case) a. a dxz on atom A and a dxz on atom B b. an s orbital on atom A and a px orbital on atom B --------------------- ...
... B. In each case, identify the symmetry (σ, π, δ) and type of molecular orbital (bonding, non-bonding, antibonding) that your drawing corresponds to. (Label the axes x, y, z in each case) a. a dxz on atom A and a dxz on atom B b. an s orbital on atom A and a px orbital on atom B --------------------- ...
Amines - MCAT Cooperative
... carbonyl oxygen to create a hydroxyl group. o alpha glucose when the hydroxyl group is on the opposite side of the -CH2OH group (away) o beta glucose when the hydroxyl group is on the same side as the CH2OH group (by). o Isomers, such as these, which differ only in their configuration about their ca ...
... carbonyl oxygen to create a hydroxyl group. o alpha glucose when the hydroxyl group is on the opposite side of the -CH2OH group (away) o beta glucose when the hydroxyl group is on the same side as the CH2OH group (by). o Isomers, such as these, which differ only in their configuration about their ca ...
Tasty Models2
... There are all sorts of computer molecular modeling programs on the web. Many arefree to use and offer powerful construction and manipulation tools. Check out some of these free tools at http://ep.llnl.gov/msds/dvc/viewrs.html. For MACs running under OS X, iMOL is a powerful program that you can down ...
... There are all sorts of computer molecular modeling programs on the web. Many arefree to use and offer powerful construction and manipulation tools. Check out some of these free tools at http://ep.llnl.gov/msds/dvc/viewrs.html. For MACs running under OS X, iMOL is a powerful program that you can down ...
organic chemistry - Madison County Schools
... A group of atoms that give characteristics and properties to organic compounds. These functional groups may be aldehydes, alcohols, ethers, ketones, amino acids, amides, and others. We will study the alcohols because of their wide use in combustion reactions. ...
... A group of atoms that give characteristics and properties to organic compounds. These functional groups may be aldehydes, alcohols, ethers, ketones, amino acids, amides, and others. We will study the alcohols because of their wide use in combustion reactions. ...
Chapter 2
... b) is found only in molecules containing oxygen c) shares electrons equally between atoms d) ionizes e) has shared electrons pulled closer to the more electronegative atom 15. When the proton number and electron number are unequal, the atom or molecule _____. (Concept 2.3 ) a) forms a covalent bond ...
... b) is found only in molecules containing oxygen c) shares electrons equally between atoms d) ionizes e) has shared electrons pulled closer to the more electronegative atom 15. When the proton number and electron number are unequal, the atom or molecule _____. (Concept 2.3 ) a) forms a covalent bond ...
Chapter 4 Review - Blue Valley Schools
... Molecules that differ in the arrangement of their atoms about a double bond are called A B C D E ...
... Molecules that differ in the arrangement of their atoms about a double bond are called A B C D E ...
Organic and Biochemical Molecules 1. Compounds composed of
... 2. A compound is said to be saturated if it contains only singly bonded carbons. Such hydrocarbons are called alkanes. 3. A compound is said to be unsaturated if it contains doubly and triply bonded carbons. Such hydrocarbons are called alkenes and alkynes. 4. What theory best describes the bonding ...
... 2. A compound is said to be saturated if it contains only singly bonded carbons. Such hydrocarbons are called alkanes. 3. A compound is said to be unsaturated if it contains doubly and triply bonded carbons. Such hydrocarbons are called alkenes and alkynes. 4. What theory best describes the bonding ...
chm 103 general chemistry
... carboxylic acid, for example: CH3COOH + NH3 CH3CONH2 + H2O Amide type (b) is the reaction product of a primary amine, such as methyl amine, with a carboxylic acid, for example: CH3COOH + CH3NH2 CH3CONHCH3 + H2O Amide type (c) is the reaction product of a secondary amine, such as dimethyl ami ...
... carboxylic acid, for example: CH3COOH + NH3 CH3CONH2 + H2O Amide type (b) is the reaction product of a primary amine, such as methyl amine, with a carboxylic acid, for example: CH3COOH + CH3NH2 CH3CONHCH3 + H2O Amide type (c) is the reaction product of a secondary amine, such as dimethyl ami ...
Chapter 4 Review - Blue Valley Schools
... Molecules that differ in the arrangement of their atoms about a double bond are called A B C D E ...
... Molecules that differ in the arrangement of their atoms about a double bond are called A B C D E ...
Carbon and its Compounds
... Formation of covalent bond : Covalent bond formation involves sharing of electrons between bonding atoms which may be either same or different. Covalency : The number of electrons contributed by an atom for sharing is known as its covalency. Characteristics of covalent compounds : (i) These compound ...
... Formation of covalent bond : Covalent bond formation involves sharing of electrons between bonding atoms which may be either same or different. Covalency : The number of electrons contributed by an atom for sharing is known as its covalency. Characteristics of covalent compounds : (i) These compound ...
Which is Aromatic?
... A resonance hybrid is more stable than the predicted stability of its resonance contributor, and the more resonance contributors there are, the greater the stability p-orbitals must be aligned! ...
... A resonance hybrid is more stable than the predicted stability of its resonance contributor, and the more resonance contributors there are, the greater the stability p-orbitals must be aligned! ...
9.1-10.5 Organic Chemistry
... Remember Lewis Dot Diagrams from Chem 20?? This means carbon can bond extensively and can bond together to form chains effectively = called Polymerism Carbon covalently bonds by sharing 4 pairs of electrons. These bonds may be single, double or triple, all producing stable compounds Compound ...
... Remember Lewis Dot Diagrams from Chem 20?? This means carbon can bond extensively and can bond together to form chains effectively = called Polymerism Carbon covalently bonds by sharing 4 pairs of electrons. These bonds may be single, double or triple, all producing stable compounds Compound ...
Hydrogen Bonds
... Matter: Elements and Compounds Matter is anything that occupies space and has ...
... Matter: Elements and Compounds Matter is anything that occupies space and has ...
9.1-10.5 Organic Chemistry
... Remember Lewis Dot Diagrams from Chem 20?? This means carbon can bond extensively and can bond together to form chains effectively = called Polymerism Carbon covalently bonds by sharing 4 pairs of electrons. These bonds may be single, double or triple, all producing stable compounds Compound ...
... Remember Lewis Dot Diagrams from Chem 20?? This means carbon can bond extensively and can bond together to form chains effectively = called Polymerism Carbon covalently bonds by sharing 4 pairs of electrons. These bonds may be single, double or triple, all producing stable compounds Compound ...
Aromaticity
In organic chemistry, the term aromaticity is formally used to describe an unusually stable nature of some flat rings of atoms. These structures contain a number of double bonds that interact with each other according to certain rules. As a result of their being so stable, such rings tend to form easily, and once formed, tend to be difficult to break in chemical reactions. Since one of the most commonly encountered aromatic system of compounds in organic chemistry is based on derivatives of the prototypical aromatic compound benzene (common in petroleum), the word “aromatic” is occasionally used to refer informally to benzene derivatives, and this is how it was first defined. Nevertheless, many non-benzene aromatic compounds exist. In living organisms, for example, the most common aromatic rings are the double-ringed bases in RNA and DNA.The earliest use of the term “aromatic” was in an article by August Wilhelm Hofmann in 1855. Hofmann used the term for a class of benzene compounds, many of which do have odors (unlike pure saturated hydrocarbons). Today, there is no general relationship between aromaticity as a chemical property and the olfactory properties of such compounds, although in 1855, before the structure of benzene or organic compounds was understood, chemists like Hofmann were beginning to understand that odiferous molecules from plants, such as terpenes, had chemical properties we recognize today are similar to unsaturated petroleum hydrocarbons like benzene.In terms of the electronic nature of the molecule, aromaticity describes the way a conjugated ring of unsaturated bonds, lone pairs of electrons, or empty molecular orbitals exhibit a stabilization stronger than would be expected by the stabilization of conjugation alone. Aromaticity can be considered a manifestation of cyclic delocalization and of resonance. This is usually considered to be because electrons are free to cycle around circular arrangements of atoms that are alternately single- and double-bonded to one another. These bonds may be seen as a hybrid of a single bond and a double bond, each bond in the ring identical to every other. This commonly seen model of aromatic rings, namely the idea that benzene was formed from a six-membered carbon ring with alternating single and double bonds (cyclohexatriene), was developed by August Kekulé (see History section below). The model for benzene consists of two resonance forms, which corresponds to the double and single bonds superimposing to produce six one-and-a-half bonds. Benzene is a more stable molecule than would be expected without accounting for charge delocalization.