Chapter 4 Warm-Up
... Organic chemistry: branch of chemistry that specializes in study of carbon compounds Organic compounds: contain Carbon (& H) Major elements of life: CHNOPS Carbon can form large, complex, and diverse molecules ...
... Organic chemistry: branch of chemistry that specializes in study of carbon compounds Organic compounds: contain Carbon (& H) Major elements of life: CHNOPS Carbon can form large, complex, and diverse molecules ...
Chemical Compounds Powerpoint
... Use the appropriate prefix to group like substituents: di = 2, tri = 3, tetra = 4, etc. Do not use these prefixes when alphabetizing attached groups ...
... Use the appropriate prefix to group like substituents: di = 2, tri = 3, tetra = 4, etc. Do not use these prefixes when alphabetizing attached groups ...
CHE 312 Exam III Review Sheet - Saint Leo University Faculty
... CHE 312 Exam III Review Sheet Chapter 16 ...
... CHE 312 Exam III Review Sheet Chapter 16 ...
CCCH110D Inorganic vs Organic NOTES
... • Aromatic compounds which consists of closed rings of carbon atoms. ...
... • Aromatic compounds which consists of closed rings of carbon atoms. ...
1-Chemistry-101
... • “Only the lighter elements occur in living organisms. In general, organisms are made up of about 25 of the elements in the top four rows of the periodic table. Six of these elements are extremely important: Carbon, Hydrogen, Oxygen, Nitrogen, Phosphorous, and Calcium.” ...
... • “Only the lighter elements occur in living organisms. In general, organisms are made up of about 25 of the elements in the top four rows of the periodic table. Six of these elements are extremely important: Carbon, Hydrogen, Oxygen, Nitrogen, Phosphorous, and Calcium.” ...
III. ORGANIC CHEMISTRY Reactions
... substitution reactions occur one step at a time; therefore, two substitutions cannot (and do not) take place at the same time (ex. bromine is diatomic, meaning two atoms of bromine are available for a substitution; however, each bromine gets added to a separate hydrocarbon, yielding a HBr molecule i ...
... substitution reactions occur one step at a time; therefore, two substitutions cannot (and do not) take place at the same time (ex. bromine is diatomic, meaning two atoms of bromine are available for a substitution; however, each bromine gets added to a separate hydrocarbon, yielding a HBr molecule i ...
chapter03 - FacStaff Home Page for CBU
... Saturated fats have a maximum number of hydrogen atoms in the chain, and are usually are solid at room temperature. Unsaturated fats have double bonds between some of the carbon atoms and have less than the maximum number of hydrogen atoms. Unsaturated fats have bends in the chains that prevent the ...
... Saturated fats have a maximum number of hydrogen atoms in the chain, and are usually are solid at room temperature. Unsaturated fats have double bonds between some of the carbon atoms and have less than the maximum number of hydrogen atoms. Unsaturated fats have bends in the chains that prevent the ...
Biochem Practice Test: Make a copy so you can work on this on your
... Make a copy so you can work on this on your own. 1. If you remove all of the functional groups from an organic molecule so that it has only carbon and hydrogen atoms, the molecule becomes a: A) Carbohydrate B) Carboxyl C) Carbonyl D) Hydrocarbon 2. Nucleic acids are chains of 5-carbon sugars linked ...
... Make a copy so you can work on this on your own. 1. If you remove all of the functional groups from an organic molecule so that it has only carbon and hydrogen atoms, the molecule becomes a: A) Carbohydrate B) Carboxyl C) Carbonyl D) Hydrocarbon 2. Nucleic acids are chains of 5-carbon sugars linked ...
5.3 Note Outline
... Organic compounds always contain carbon, and almost always contain hydrogen as well. Organic chemistry is the study of compounds that contain carbon. Organic compounds may, or may not, come from living organisms. Carbon is what they all have in common. ...
... Organic compounds always contain carbon, and almost always contain hydrogen as well. Organic chemistry is the study of compounds that contain carbon. Organic compounds may, or may not, come from living organisms. Carbon is what they all have in common. ...
Chapter 2: The Chemical Context of Life
... C, accounts for about 99% of carbon in nature. This isotope has 6 neutrons. Most of the remaining 1% of carbon consists of atoms of the isotope 13C with 7 neutrons. A third, even rarer isotope, 14C, has 8 neutrons. All three isotopes of carbon have 6 protons; otherwise, they would not be carbon. 9. ...
... C, accounts for about 99% of carbon in nature. This isotope has 6 neutrons. Most of the remaining 1% of carbon consists of atoms of the isotope 13C with 7 neutrons. A third, even rarer isotope, 14C, has 8 neutrons. All three isotopes of carbon have 6 protons; otherwise, they would not be carbon. 9. ...
BiochemistryMolecules
... Example: Glycerol 3. Molecules are commonly shown in “stick” form. This is a “lazy chemist” strategy to more quickly depict the structure of organic molecules. Since all organic molecules are built from carbon and hydrogen (and usually a lot of carbon and hydrogen atoms), these atoms are abbreviated ...
... Example: Glycerol 3. Molecules are commonly shown in “stick” form. This is a “lazy chemist” strategy to more quickly depict the structure of organic molecules. Since all organic molecules are built from carbon and hydrogen (and usually a lot of carbon and hydrogen atoms), these atoms are abbreviated ...
Chapter 9
... • The most common reaction of aromatic compounds • This reaction is characteristic of all aromatic rings ...
... • The most common reaction of aromatic compounds • This reaction is characteristic of all aromatic rings ...
AQA Core Science Final Test - Atoms and Chemical equations
... When elements react, their atoms join with other atoms to form compounds. There are two types of bonds formed in a chemical reaction ...
... When elements react, their atoms join with other atoms to form compounds. There are two types of bonds formed in a chemical reaction ...
Review Worksheet
... a. Copy the two bulleted items in “Elements combine to form compounds.” b. Copy the four bulleted items in “Chemical bonds hold compounds together.” c. Copy the three bulleted items in “Substances’ properties depend on their bonds.” 2. Prepare for a vocabulary test covering definitions for those ter ...
... a. Copy the two bulleted items in “Elements combine to form compounds.” b. Copy the four bulleted items in “Chemical bonds hold compounds together.” c. Copy the three bulleted items in “Substances’ properties depend on their bonds.” 2. Prepare for a vocabulary test covering definitions for those ter ...
BONDS AND LEWIS STRUCTURES
... considered to be nonpolar covalent and the electron sharing is more or less equal. If the difference is more than 0.5 but less than 2.1, the bond is polar covalent, which means that the sharing is unequal. If the difference is greater than 2.1, the bond is considered to be ionic, and the bonding ele ...
... considered to be nonpolar covalent and the electron sharing is more or less equal. If the difference is more than 0.5 but less than 2.1, the bond is polar covalent, which means that the sharing is unequal. If the difference is greater than 2.1, the bond is considered to be ionic, and the bonding ele ...
Document
... 1. Carbons with 4 single bonds are tetrahedral and organic molecules are really 3-dimensional blobs, not flat. Shorthand drawing methods are often used when drawing organic compounds. Remember, carbon makes 4 bonds, whether all 4 are shown or not. 2. Alkanes are simple CnH2n+2 (saturated) hydrocarbo ...
... 1. Carbons with 4 single bonds are tetrahedral and organic molecules are really 3-dimensional blobs, not flat. Shorthand drawing methods are often used when drawing organic compounds. Remember, carbon makes 4 bonds, whether all 4 are shown or not. 2. Alkanes are simple CnH2n+2 (saturated) hydrocarbo ...
All organic compounds contain the element carbon
... organic compounds that influence the characteristics of the molecules they compose and the chemical reactions the molecules undergo. • The same functional group will undergo the same chemical reaction regardless of the size of the molecule it is a part of. ...
... organic compounds that influence the characteristics of the molecules they compose and the chemical reactions the molecules undergo. • The same functional group will undergo the same chemical reaction regardless of the size of the molecule it is a part of. ...
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.