Organic Chemistry
... • Have one double bond between two carbons. • The double bond makes alkenes unsaturated with respect to hydrogen. • Trigonal planar geometry • If there are two or three double bonds – Alkadiene – Alkatriene ...
... • Have one double bond between two carbons. • The double bond makes alkenes unsaturated with respect to hydrogen. • Trigonal planar geometry • If there are two or three double bonds – Alkadiene – Alkatriene ...
types of organic reactions
... One product will be there in greater amounts than the other and is called the major product (the other is called the minor product). To decide which is the major product, Markovnikov’s rule is used: The hydrogen atom of the addition reagent goes to the carbon atom of the double bond, that is attache ...
... One product will be there in greater amounts than the other and is called the major product (the other is called the minor product). To decide which is the major product, Markovnikov’s rule is used: The hydrogen atom of the addition reagent goes to the carbon atom of the double bond, that is attache ...
Biology: Concepts and Connections, 5e (Campbell) Chapter 3: The
... E) digest milk fats. 2) Carbon is able to form an immense diversity of organic molecules because of carbon's A) tendency to form covalent bonds. B) ability to bond with up to four other atoms. C) capacity to form single and double bonds. D) ability to bond together to form extensive, branched, or un ...
... E) digest milk fats. 2) Carbon is able to form an immense diversity of organic molecules because of carbon's A) tendency to form covalent bonds. B) ability to bond with up to four other atoms. C) capacity to form single and double bonds. D) ability to bond together to form extensive, branched, or un ...
New LS-VSEPR Modeling Lab
... Introduction and Purpose: Molecular compounds (and polyatomic ions) are formed when atoms with similar electronegativities covalently bond with one another. In most cases, each atom will form the requisite number of bonds in order to achieve a “stable” octet of electrons in its outer valence shell ( ...
... Introduction and Purpose: Molecular compounds (and polyatomic ions) are formed when atoms with similar electronegativities covalently bond with one another. In most cases, each atom will form the requisite number of bonds in order to achieve a “stable” octet of electrons in its outer valence shell ( ...
Organic Chemistry Unit
... Found in all living matter Found in body tissue Found in food Found in fuels (coal, wood, petroleum) Found in Nature ( ranked 17th in crust) ...
... Found in all living matter Found in body tissue Found in food Found in fuels (coal, wood, petroleum) Found in Nature ( ranked 17th in crust) ...
File
... opposite sides of the double bond. This is known as the trans isomer the two chlorine atoms are locked on the same side of the double bond. This is know as the cis isomer. (Hint: if you build models and have to take it apart-geometric isomer) free rotation about single bonds; these two structures re ...
... opposite sides of the double bond. This is known as the trans isomer the two chlorine atoms are locked on the same side of the double bond. This is know as the cis isomer. (Hint: if you build models and have to take it apart-geometric isomer) free rotation about single bonds; these two structures re ...
Ch. 6
... Ch. 6.1 Outline Atoms and Their Interactions A. Elements – all matter (anything that takes up space and has mass) is composed of elements 1. Natural elements in living things a). 96% of a human is C, H, O, N 2. Trace elements – (pg. 146) small amounts of elements that play a vital role in healthy ce ...
... Ch. 6.1 Outline Atoms and Their Interactions A. Elements – all matter (anything that takes up space and has mass) is composed of elements 1. Natural elements in living things a). 96% of a human is C, H, O, N 2. Trace elements – (pg. 146) small amounts of elements that play a vital role in healthy ce ...
(a) Structural isomers
... Concept 4.1: Organic chemistry is the study of carbon compounds • Organic chemistry is the study of compounds that contain carbon • Organic compounds range from simple molecules to colossal ones • Most organic compounds contain hydrogen atoms in addition to carbon atoms ...
... Concept 4.1: Organic chemistry is the study of carbon compounds • Organic chemistry is the study of compounds that contain carbon • Organic compounds range from simple molecules to colossal ones • Most organic compounds contain hydrogen atoms in addition to carbon atoms ...
12. Structure Determination: Mass Spectrometry and
... IR energy in a spectrum is usually measured as wavenumber (cm-1), the inverse of wavelength and proportional to frequency Specific IR absorbed by organic molecule related to its structure ...
... IR energy in a spectrum is usually measured as wavenumber (cm-1), the inverse of wavelength and proportional to frequency Specific IR absorbed by organic molecule related to its structure ...
Functional Groups - Effingham County Schools
... protein, lipids, and nucleic acids (DNA & RNA) - are all composed of carbon atoms • Other important elements include: – Hydrogen (H) – Oxygen (O) – Nitrogen (N) – Sulfur (S) – Phosphorus (P) ...
... protein, lipids, and nucleic acids (DNA & RNA) - are all composed of carbon atoms • Other important elements include: – Hydrogen (H) – Oxygen (O) – Nitrogen (N) – Sulfur (S) – Phosphorus (P) ...
POWERPOINT with macromolecules and monomers click on this link
... • Carbon forms the “skeleton” of most molecules in living things. • Carbon has 4 electrons that will bond to 4 other electrons from other elements. This allows it to make lots of combinations. • ORGANIC COMPOUNDS are made primarily from carbon atoms. They are found in things that were once living or ...
... • Carbon forms the “skeleton” of most molecules in living things. • Carbon has 4 electrons that will bond to 4 other electrons from other elements. This allows it to make lots of combinations. • ORGANIC COMPOUNDS are made primarily from carbon atoms. They are found in things that were once living or ...
Chapter 4: Carbon and Molecular Diversity
... b. Ketone: Not at the end of a C skeleton 3. Carboxyl Group (-COOH): O is double-bonded to C that is bonded to a hydroxyl group 1. Carboxylic acids: (organic acids) a. Formic acid: b. Acetic acid: 2. Source H ions 3. Covalent bond between O and H is so polar that H dissociates reversibly as an H+ 4. ...
... b. Ketone: Not at the end of a C skeleton 3. Carboxyl Group (-COOH): O is double-bonded to C that is bonded to a hydroxyl group 1. Carboxylic acids: (organic acids) a. Formic acid: b. Acetic acid: 2. Source H ions 3. Covalent bond between O and H is so polar that H dissociates reversibly as an H+ 4. ...
Chapter 4
... • Total of __electrons (__ in the first shell and __in the second shell). • Carbon usually completes its ___________ shell by _________ electrons with other atoms in four covalent bonds. • This ______________ by carbon makes large, complex molecules possible. ...
... • Total of __electrons (__ in the first shell and __in the second shell). • Carbon usually completes its ___________ shell by _________ electrons with other atoms in four covalent bonds. • This ______________ by carbon makes large, complex molecules possible. ...
Petrochemicals: Builder Molecules
... polyethylene. What was it? • What would a collection of these molecules look like? • Sketch this arrangement on your paper, using a pencil or pen line to represent each linear polymer molecule. ...
... polyethylene. What was it? • What would a collection of these molecules look like? • Sketch this arrangement on your paper, using a pencil or pen line to represent each linear polymer molecule. ...
SCH OAC: Major Test 8 BONDING / ORGANIC
... 28. How many different values of the second quantum number " ℓ " are possible in the 3rd energy level of any atom ? A) 1 B) 2 C) 3 D) 4 E) 5 29. Which of the following species could have the electron configuration 1s22s22p63s23p64s03d8 A) Ni B) Fe C) Cu2+ D) Ni2+ 30. In which of the following co ...
... 28. How many different values of the second quantum number " ℓ " are possible in the 3rd energy level of any atom ? A) 1 B) 2 C) 3 D) 4 E) 5 29. Which of the following species could have the electron configuration 1s22s22p63s23p64s03d8 A) Ni B) Fe C) Cu2+ D) Ni2+ 30. In which of the following co ...
8-2: Carbon Compounds
... patterns, such as the crystal structure of NaCl or long-chain polymers Science Standard 8.6.a: Students know that carbon, because of its ability to combine in many ways with itself and other elements, has a central role in the chemistry of living ...
... patterns, such as the crystal structure of NaCl or long-chain polymers Science Standard 8.6.a: Students know that carbon, because of its ability to combine in many ways with itself and other elements, has a central role in the chemistry of living ...
Chapter 4 – carbon compounds
... Concept 4.1: Organic chemistry is the study of carbon compounds • Organic chemistry is the study of compounds that contain carbon • Organic compounds range from simple molecules to colossal ones • Most organic compounds contain hydrogen atoms in addition to carbon atoms ...
... Concept 4.1: Organic chemistry is the study of carbon compounds • Organic chemistry is the study of compounds that contain carbon • Organic compounds range from simple molecules to colossal ones • Most organic compounds contain hydrogen atoms in addition to carbon atoms ...
Organic Chemistry Powerpoint
... and bonding. Carbon atoms are unique in their ability to form long chains and rings of covalently bonded atoms. ...
... and bonding. Carbon atoms are unique in their ability to form long chains and rings of covalently bonded atoms. ...
Identifying Organic Compounds
... carbohydrate, lipid, nucleic acid, or amino acid (protein) are very specific. They include the following: 1. All organic compounds contain carbon. Most inorganic compounds do not contain carbon. Carbon Dioxide is an exception. 2. In carbohydrate molecules, the ratio of hydrogen to oxygen is 2:1; tha ...
... carbohydrate, lipid, nucleic acid, or amino acid (protein) are very specific. They include the following: 1. All organic compounds contain carbon. Most inorganic compounds do not contain carbon. Carbon Dioxide is an exception. 2. In carbohydrate molecules, the ratio of hydrogen to oxygen is 2:1; tha ...
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.