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Chapter 5 power point notes

front 1

-Catabolic & Anabolic Reactions-

Metabolism:

back 1

the sum of the chemical reactions in an organism

front 2

-Catabolic & Anabolic Reactions-

Catabolism:

back 2

provides energy & building blocks for anabolism

front 3

-Catabolic & Anabolic Reactions-

Anabolism:

back 3

uses energy & bulilding blocks to build large molecules

front 4

-Catabolic & Anabolic Reactions-

What is a METABOLIC PATHWAY?

back 4

It is a sequence of enzymatically catalyzed chemical reactions in a cell.

front 5

-Catabolic & Anabolic Reactions-

What determines metabolic pathways?

back 5

They are determined by enzymes.

front 6

-Catabolic & Anabolic Reactions-

Enzymes are encoded by

back 6

genes

front 7

-Collision Theory-

Collision theory

back 7

states that chemical reactions can occur when atoms, ions, & molecules collide

front 8

-Collision Theory-

Activation energy

back 8

is needed to disrupt electronic configurations

front 9

-Collision Theory-

Reaction rate

back 9

is the frequency of collisions w/enough energy to bring about reaction.

front 10

______ rate can be increased by enzymes or by increasing temperature or pressure

back 10

Reaction

front 11

-Collision Theory-

Reaction rate can be increased by __a__ or by increasing __b__ or __c__

back 11

a- enzymes
b- temperature
c- pressure

front 12

-Enzyme Components-

Biological catalysts

back 12

Specific for a chemical reaction; not used up in that reaction.

front 13

-Enzyme Components-

Apoenzyme:

back 13

Protein

front 14

-Enzyme Components-

Cofactor:

back 14

Nonprotein component

* Coenzyme organic cofactor

front 15

-Enzyme Components-

Holoenzyme:

back 15

Apoenzyme plus cofactor

front 16

Important Coenzymes

back 16

1. NAD+
2. NADP+
3. FAD
4. Coenzyme A

front 17

-Important Coenzymes-

Coenzymes with out the "H" hydrogen means

back 17

Low energy

front 18

-Enzyme Classification-

Oxidoreductase:

back 18

oxidation-reduction reactions

front 19

-Enzyme Classification-

Transferase:

back 19

transfer functional groups

front 20

-Enzyme Classification-

Hydrolase:

back 20

Hydrolysis

front 21

-Enzyme Classification-

Lyase:

back 21

removal of atoms without hydrolysis

front 22

-Enzyme Classification-

Isomerase:

back 22

rearrangement of atoms

front 23

-Enzyme Classification-

Ligase:

back 23

joining of molecules; uses ATP

front 24

Factors infuencing enzyme activity

back 24

* Temperature
* pH
* Substrate concentration
* Inhibitors

front 25

-Factors infuencing enzyme activity-

back 25

Temperature & pH denature proteins

front 26

Enzyme activity temperature

back 26

35° to 37°

front 27

Enzyme activity pH levels

back 27

between 4-6

* Peaks at 5

front 28

What two enzymes are best known to kill bacteria?

back 28

Sulfanilamide & PABA

front 29

-Ribozymes-

back 29

RNA that cuts & splices RNA

front 30

-Oxidation-Reduction Reactions-

Oxidation:

back 30

Removal of electrons

front 31

-Oxidation-Reduction Reactions-

Reduction:

back 31

Gain of electrons

front 32

-Oxidation-Reduction Reactions-

Redox reaction:

back 32

An oxidation reaction paired w/a reduction reaction

front 33

-Oxidation-Reduction Reactions-

In biological systems, the electrons are often

back 33

associated with hydrogen atoms

front 34

-Oxidation-Reduction Reactions-

Biological oxidations are often

back 34

dehydrogenations

front 35

-The generation of ATP-

back 35

ATP is generated by the phosphorylation of ADP

front 36

-Substrate-level Phosphorylation-

back 36

Energy from the transfer of a high-energy PO-4 to ADP generates ATP

front 37

-Oxidative phosphorylation-

____________ from transfer of electrons (oxidation) of one compound to another (reduction) is used to generate ATP in the electron transport chain

back 37

Energy released

front 38

-Oxidative phosphorylation-

Energy released from transfer of electrons (oxidation) of one compound to another (reduction) is used to ______________________________

back 38

generate ATP in the ELECTRON TRANSPORT CHAIN

front 39

-Respiration & Fermentation-

Respiration- the final electron acceptor is

back 39

Oxygen

front 40

Fermentation doesn't need _______

back 40

Oxygen

* but it could occur

front 41

-The Electron Transport Chain-

A series of carrier molecules that are, in turn, oxidized & reduced as....

back 41

electrons are passed down the chain

front 42

-The Electron Transport Chain-

Energy released can be used to produce ATP by

back 42

chemiosmosis

front 43

-A Summary of Respiration-

Aerobic respiration:

back 43

the final electron acceptor in the electron transport chain is molecular oxygen

front 44

-A Summary of Respiration-

Anaerobic respiration:

back 44

the final electron acceptor in the elecron transpor chain is NOT oxygen

front 45

-A Summary of Respiration-

Anaerobic respiration-

back 45

yields less energy than aerobic respiration because only part of the Krebs cyle operates under anaerobic conditions

front 46

-Carbohydrate Catabolism-
PATHWAY EUKARYOTE PROKARYOTE
Glycolysis Cytoplasm Cytoplasm
Intermediate step Cytoplasm Cytoplasm
Krebs cycle Mitochondria matrix Cytoplasm

ETC Mitochondrial inner Plasma
membrane membrane

back 46

-Carbohydrate Catabolism-
PATHWAY EUKARYOTE PROKARYOTE
Glycolysis Cytoplasm Cytoplasm
Intermediate step Cytoplasm Cytoplasm
Krebs cycle Mitochondria matrix Cytoplasm

ETC Mitochondrial inner Plasma
membrane membrane

front 47

-Carbohydrate Catabolism-

How many ATPs are produced in eukaryotes?

back 47

36

front 48

-Fermentation-

Any _____ of food by microorganisms (general use)

back 48

spoilage

front 49

-Fermentation-

Any process that produces __a____ beverages or __b___ dairy products

back 49

a- alcoholic

b- acidic

front 50

-Fermentation-

Any large-scale microbial process occurring with or without ______

back 50

air

front 51

-Fermentation-

*Scientific Definition:

back 51

*Releases energy for oxidation of organic molecules
*Does not require oxygen
*Does not use the Krebs cycle or ETC
*Uses an ORGANIC MOLECULE AS THE FINAL ELECTRON ACCEPTOR.

front 52

-Fermentation-

Alcohol fermentation:

back 52

produces ethanol +CO2

front 53

-Fermentation-

Lactic acid fermentation:

back 53

produces lactic acid

front 54

-Lactic acid-

Homolactic fermentation:

back 54

produces lactic acid only

front 55

-Lactic acid-

Heterolactic fermentation:

back 55

produces lactic acid & other compounds

front 56

~Detecting amino acid catabolizing enzymes in the lab~

Yellow means

back 56

acid

front 57

~Detecting amino acid catabolizing enzymes in the lab~

Fushia (purple ish) means

back 57

Basic

front 58

~Chemotrophs~

back 58

* Use energy from chemicals
* Chemoheterotroph (dwell on us, have capsules & spores and are hard to kill & cause problems)
* Energy is used in anabolism

front 59

What has CAPSULES & SPORES & ARE HARD TO KILL?

back 59

Chemoheterotrophs

front 60

Aerobic respiration's final acceptor is

back 60

0¸ (Oxygen)

front 61

Anaerobic respiration's final acceptor is

back 61

NO3¯ & SO4²¯

front 62

Fermentation's final acceptor is

back 62

Organic compound