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Biology Final Exam

front 1

What are the building blocks of proteins?

back 1

Amino Acids

front 2

What happens when monomers are joined?

back 2

1 water is released. *monomers joing, 1 less water is given off; 13 join, 12 water is given off*

front 3

What are the 5 properties of water?

back 3

1-Versatile Solvent
2- H2O molecules are cohesive (hydrogen bonds)
3- Temperature of liquid H2O rises and falls slower than other liquids
4-Tends to remain a liquid
5-Frozen H2O is less dense

front 4

pH

back 4

potential hydrogen

front 5

The pH scale

back 5

0-14; measure of hydrogen ion concetration in a solution

front 6

Numbers of Acidic, Basic, and Neutral?

back 6

0-7: Acidic
7: Neutral
7-14: Basic

front 7

A change in 1 pH unit= a ____ fold change in the hydrogen ion concetration

back 7

10

front 8

Differentiate between saturated and unsaturated fats

back 8

Saturated: solid at room temperature, have all the hydrogen it can hold, no double bonds
Unsaturated: liquid at room temperature, double bonds, contains less hydrogen and has kinks

front 9

Nucleus

back 9

largest organelle; contains DNA; control center of the cell

front 10

Ribosome

back 10

Make proteins

front 11

Chloroplast

back 11

Where photosynthesis takes place

front 12

Mitochondria

back 12

Makes ATP, powerhouse of the cell

front 13

Lysosome

back 13

Digestive organelle; contain hydrolytic enzymes

front 14

Golgi bodies

back 14

Invovled in modification, packaging, and secretion

front 15

Endoplasmic Reticulum

back 15

System of internal membranes
Smooth:makes lipids
Rough:has ribosomes; makes proteins to be exported from cell

front 16

Solute and Solvent

back 16

Solute is substance dissolved; Solvent is what the solute dissolves into (most common solvent is H2O)

front 17

Diffusion

back 17

Movement of solute from high concentration to low concentration

front 18

Osmosis

back 18

Movement of H2O from more h@O to less H2O across a membrane

front 19

Define Energy

back 19

The ability to do work

front 20

First Law of Thermodynamics

back 20

Energy cannot be created, or destroyed within the universe

front 21

Second Law of Thermodynamics

back 21

No energy conversion is 100% efficient

front 22

Energy transformation in photosynthesis

back 22

The sun's energy is captured to produce chemical nutrient energy (food) for plants

front 23

Energy transformation in cellular respiration

back 23

chemical nutrient energy (food) converted into ATP for every living thing

front 24

Why is ATP the energy source of cells?

back 24

It is the "energy currency" of teh cell. COntain high energy phosphate bonds
Has one 5 carbon sugar; ribose, nitrogenous base (adenine) and 3 phosphate groups. *Adenine triphosphate*

front 25

Enzymes

back 25

An organic molecule that catalyzes (speeds up) a chemical reaction without being consumed.

front 26

3 ways an enzyme's activity can be altered

back 26

1- Temperature
2- pH
3- Pharmaceutical Drugs

front 27

Electromagnetic Spectrum (short wavelength; high energy, to long wavelength; low energy)

back 27

Gamma-> X-ray -> Ultra Violet -> Visible -> Infrared -> TV -> Radio

front 28

Which part of the spectrum is used in photosynthesis?

back 28

Visible light

front 29

Does chlorophyll reflect or absorb green light?

back 29

It reflects green light, and absorbs red and blue very strongly

front 30

Give the equation for photosynthesis

back 30

6CO2 + 6H2O -> C6H12O6 + 6O2
carbon dioxide + water =sugar + oxygen

front 31

Describe the light Reaction

back 31

Requires light; occurs in teh thylakoids
Captures sun's energy and produces NADPH and ATP

front 32

Describe the Dark Reaction

back 32

Can occur day or night (doesn't require light); occurs in the stroma
Reduces CO2 to sugar, using ATP and NADPH; involves the Calvin Cycle

front 33

Photosynthetic process of light reaction

back 33

Light is absorbed in Photosystem 2; the energy of teh sunlight activates electron's to jump to the electron acceptors; these electrons pass through the electron transport chain and enter Photosystem 1 where sunlight activates the electrons which go to another electron acceptor and reduces NADP to NADPH.

front 34

Photosynthetic process of the Dark Reaction

back 34

Carbon Dioxide eneters plant and joins with RuBP; forms unstable 6 carbon compound which splits into 2 PGA's; the 2 PGA's are reduced to 2PGAL's using ATP and NADPH; some PGAL goes off as sugar and the rest goes back to RuBP

front 35

Aerobic Respiration

back 35

-With oxygen
-Glycolysis
-Transisiton reaction
-Kreb's cycle-Electron Transport

front 36

Anaerobic Respiration

back 36

-Without oxygen
-Glycolysis
-Fermentation

front 37

Kreb's Cycle

back 37

Activated Acetate (Acetyl CoA) + C4 = Citric Acid

front 38

Transition Reaction

back 38

Pyruvic acid to Activated Acetate (Acetyl CoA)

front 39

Glycolysis

back 39

Glucose to Pyruvic Acid

front 40

Electron Transport

back 40

NADH and FADH coverted to ATP

front 41

Grand Total of ATP produced in Aerobic Cellular Respiration

back 41

38

front 42

2 problems with Anaerobic Respiration

back 42

-Makes less ATP
-End product is toxic to cells

front 43

Karyotype

back 43

A size-ordered chart of all the chromosomes in a cell. 46 chromosomes are arranged in 23 pairs; the mother and father each contributed one member of each pair

front 44

Define Mitosis

back 44

Nuclear division in which daughter cells have the same number of chromosomes as mother cell.

front 45

Steps of Mitosis

back 45

Prophase: Chromatin cndenses to chromosomes. Spindle fibers form; nuclear envelope breaks down, nucleus disappears
Metaphase:Chromosomes line up in the middle
Anaphase:Chromatids seperate
Telophase:Nucleolus reappears;nuclear envelope reappears; chromosomes turn back to chromatin

front 46

How many daughter cells are produced during mitosis?

back 46

2

front 47

Cell Cycle

back 47

M= Mitosis & Cytokinesis (cell division)
G1= Growth; cell grows in size
S= Synthesis; synthesis of DNA
G2= Production of enzymes needed for mitosis

front 48

Define Meiosis and why it is important

back 48

It is nuclear division in which daughter cells have 1/2 the number of chromososmes and 1/2 the amount of DNA as mother cells.
It is important because it generates variability and is essential for sexual reproduction

front 49

Stages of Meiosis

back 49

Prophase 1: homologous chromosomes match up, then crossing over occurs
Metaphase 1: homologous chromosomes line up
Anaphase 1: homologoues chromosomes seperate
Telophase 1:Cells are haploid; but have too much DNA
*no further DNA replication*
Prophase 2:New spindles form
Metaphase 2: Sister chromatids line up
Anaphase 2: Sister chromatids sperate
Telophase 2:Formation of 4 haploid cells

front 50

Genetics

back 50

The study of inheritance of biological traits

front 51

Alleles

back 51

Alternate forms of a gene

front 52

Homozygous

back 52

2 of the same alleles

front 53

Heterozygous

back 53

2 different alleles

front 54

Dominant Alleles

back 54

Allele that expresses itself if present

front 55

Recessive Alleles

back 55

Allele covered/hidden if dominant allele is present

front 56

Genotype

back 56

Genetic make-up of organism (big R, little r)*genetic*

front 57

Phenotype

back 57

Expression of the genes (color, height) *physical*

front 58

Monohybrid Cross

back 58

A mating between two individuals that are both heterozygous for the same gene

front 59

Dihybrid Cross

back 59

A mating between individuals that are each heterozygous for two genes

front 60

Incomplete Dominance

back 60

Neither allele masks the presence of another *blend*

front 61

Co Dominance

back 61

Neither allele masks another (sickle cell animia)

front 62

Multiple Alleles

back 62

A gene with three or more possible alleles that can yielf many phenotypes. (Blood types)

front 63

Linkage group

back 63

All of the genes on one specific chromosome

front 64

Sex linked traits

back 64

The sex chromosomes carry genes. The genese located on non homologous areas of the x chromosome are said to be sex linked. It is possible for a single recessive allele to be expressed in males because there is nothing on the y chromosome to cover it up. Ex. Hemophilia and red-green color blindness

front 65

Sex influenced traits

back 65

Traits not associated with sex chromosomes that are expressed differently in teh two genders due to hormonal differences Ex. male pattern baldness

front 66

Genes

back 66

A section of DNA that codes for a specific trait

front 67

Chromosomes

back 67

DNA wrapped around proteins (histones)

front 68

DNA is the genetic material

back 68

Each strand provides the model for a new strand

front 69

The structure of DNA

back 69

Doxyribose
DOuble Stranded "Double Helix"
A,T,C,G

front 70

Complimentary base pairs of DNA

back 70

Adenine (A) -Uracil (U)
Cytosine (C)-Guanine (G)
Guanine (G) -Cytosine (C)
Thymine (T) - Adenine (A)

front 71

How does DNA produce the inheirited traits we recognize?

back 71

DNA dictates protein structure (tells cells what proteins to make)

front 72

The structure of RNA

back 72

Ribose
Single Stranded
A,U,C,G

front 73

Protein Synthesis

back 73

Each mRNA codon codes for a specific amino acid

front 74

Each codon is made up of __ bases

back 74

3

front 75

Where does protein synthesis occur?

back 75

At the Ribosomes

front 76

Order of the Taxanomic System beginning with Kingdom

back 76

Kingdom
Phylum
Class
Order
Family
Genus
Species

front 77

How to correctly write a scientific name

back 77

Binomial Nomenclature
genus, species
First name capitalized and underlined if italics can't be used

front 78

Archaeobacteria

back 78

Prokaryotic, unicellular, most live in extreme climates

front 79

Eubacteria

back 79

Prokaryotic, unicellular

front 80

Protista

back 80

Unicellular, simple multicellular

front 81

Fungi

back 81

Eukaryotic, multicellular, absorb food

front 82

Plantae

back 82

Eukaryotic, multicellular, photosynthesis

front 83

Animalia

back 83

Eukaryotic, multicellular, ingest

front 84

Parasitic Symbiosis

back 84

One benefits, other is harmed

front 85

Mutualistic Symbiosis

back 85

Both benefit

front 86

Commensalistic

back 86

One benefits, other is unaffected

front 87

Structure of a virus

back 87

Protein and a nucleic acid

front 88

Advantages and Disadvantages of plants being on land

back 88

Advantages: More light available, more carbon dioxide, and no competition/no predators
Disadvantages: water is hard to obtain & easily lost through evaporation, water is not available for reproduction and support-air is 800 times less dense than water and does not provide support

front 89

What did land plants evolve from?

back 89

Green Algae

front 90

Adaptions of land plants

back 90

Phloem:Transports food for the plant-transports down
Xylem: transports water for the plant-transports up
Cuticle:waxy covering that prevents water loss through the leaves
Stomata: tiny pores in the leaves that allow for gas exchange

front 91

Contrast Angiosperms and Gymnosperms

back 91

Angiosperms have flowers or fruit
Gymnosperms don't produce flowers or fruit but produce pollen ex. pine trees

front 92

Porifera

back 92

Ex. Sponge
no true tissue, radial or no symmetry, pores, sessile

front 93

Coelenterata

back 93

Ex. Hydra, jellyfish, Portuguese man-of-war
diploblastic, radial symmetry, meatocysts and nerve net

front 94

Mollusca

back 94

Ex. Snail, Clam, Squid
Triploblastic, bilateral, soft body with mantle that might secrete a shell

front 95

Arthropod

back 95

Ex. Shrimp, crabs, insects, spiders
Triploblastic, bilateral, jointed appendages, expskeleton, segmentation

front 96

Echinodermata

back 96

Ex. starfish, sand dollar, sea cucumber
Triploblastic, adult radial but larvae bilateral, water vascular system, tube feet, 5 part body plan

front 97

Chordata

back 97

Ex. Sharks, frogs, rays, whales
Triploblastic mouth and anus, bilateral, jointed appendages, endoskeleton

front 98

Is the Portugues man-of-war a jellyfist?

back 98

No

front 99

What was the first terrestrial vertebrate?

back 99

Class Amphibia: Frog, caecilians, salamanders

front 100

Montremes

back 100

Ex. duck-biled platypus
Lay eggs

front 101

Marsupials

back 101

Ex. kangaroo
Complete development in pouch

front 102

Placentals

back 102

Ex. Humans, rodents
Young is ttached to mom by umbilical cord and develops inside mother

front 103

Arteries

back 103

take blood away from heart, under pressure, strongest of our blood vessels

front 104

Caplillaries

back 104

where exchange of gases, nutrients, and waste occur, 1 cell layer thick, smallest and most numerous of our blood vessels

front 105

Veins

back 105

Return blood to the heart, contain valves to prevent backflow

front 106

The heartbeat is initiated by the ______ node (pacemaker), hich initiates a wave of excitation that contacts the ______ node

back 106

a) Sinoatrial Node
b) Atrioventricular Node

front 107

Which ventricle in teh heart is more muscular? Why?

back 107

The Left Ventricle: it has to pump blood to the entire body

front 108

Systolic Pressure

back 108

Pressure taken when ventricles contract; force of ventricles pushing blood

front 109

Dyastolic Pressure

back 109

pressure taken when ventricles relax; resistance of blood vessels

front 110

Erythrocytes

back 110

Red blood cells; transport oxygen; carry more than 1, max is 1 billion

front 111

Leukocytes

back 111

White blood cells; fight infection or foreign invader

front 112

Thrombocytes

back 112

Platelets; invovled in clotting

front 113

Which blood is the universal donor?
Which blood is the universal recipient?

back 113

Donor: O
Recipient: AB

front 114

Trachea

back 114

windpipe; supported by C-shaped cartilege rings, lined with cilia that constantly beat upward to push dust into throat

front 115

Bronchi

back 115

branch off trachea and lead to bronchioles

front 116

Bronchioles

back 116

branch off bronchi and lead to alveoli

front 117

Alveoli

back 117

Tiny sacs surrounded by vast network of caplillaries, where exchange of gases occur

front 118

Inhalation

back 118

Diaphrgm muscle contracts and moves lower; rib muscles contract and pull outward; volume of thoracic cavity increases; pressure decreases. Air gets warmed, filtered, and humidified

front 119

Exhalation

back 119

Diaphragm relaxes and moves back up, rib muscles relax and close inward. Volume decreased, pressure increased.

front 120

The chief organ of breathing

back 120

Diaphragm

front 121

Respiratory pigments

back 121

Adaption that increases amount of oxygen that can be transported by our blood
hemoglobin: made up of 4 protein chains

front 122

The breathing rate is controlled mainly by the partial pressure of which gas?

back 122

Carbon Dioxide

front 123

Two ways carbon dioxide is transported in the blood

back 123

1- Combined with hemoglobin: small amount of CO2 will combine with hemoglobin after it releses O2
2- As bicarbonate ions: majority of CO2 travels as bicarbonate ions

front 124

Erythroblastis Fetalis

back 124

Mom= Rh -
Dad= Rh +

front 125

Asexual Reproduction

back 125

involved 1 parent organism, offspring identical to parent:
Regeneration
Budding

front 126

Sexual Reproduction

back 126

Union of 2 haploid cells to produce diploid zygote; allows for more genetic variation

front 127

why are the testes are located outside the body?

back 127

The sperm would get mutated at body temperature

front 128

Which 2 hormones cause ovulation during the menstrual cycle?

back 128

LH and FSH

front 129

Which 2 hormones prepare the lining of the uterus for a fertilized egg?

back 129

Estrogen and Progesterone

front 130

Where does fertilization occur?

back 130

Fallopian tubes/Oviducts

front 131

Where does implantation occur?

back 131

Uterus

front 132

Differentiation

back 132

Refers to the process by which similar looking cells of developing embryo give rise to all different cells in body. This does not occur rom the shuffling out of genes, rather from the expression of different genes in different cells. The path is already determined

front 133

Induction

back 133

The complex interaction in which 1 cell alters the fate of the next. explains the orderly, stepwise development of an embryo

front 134

Cleavage

back 134

fertilized egg bgins to divide; dividing into smaller and smaller cells; uneven distribution of cytoplasm

front 135

Blastula

back 135

Cells arrange themselves to create a fluid filled space

front 136

Gastrulation

back 136

Cells rearrange creating distinct layers

front 137

Neurulation

back 137

Beginning of the 3rd week after conception; neural tube and head begin to develop

front 138

Organogenesis

back 138

End of the 3rd week after conception; the major organ systems are all forming, heart begins to pulsate

front 139

A) Parturation
B)Lanugo
C)Episiotomy
D)Vernix Cesesa

back 139

A) "birth"
B) fine, downy like hair on baby
C)An incision made in vaginal tissue to prevent tearing
D) waxy covering on baby

front 140

Differentiate between Batesian and Mullerian Mimicry

back 140

Batesian: non-dangerous looks like dangerous specied
Mullerian: 2 dangerous species resemble eachother

front 141

Differentiate between Species, Population, and Community

back 141

Species: a group of individuals that can mate successfully in nature
Population: a group of individuals belonging to the same species
Community:Made up of interacting populations

front 142

Explain Competitive exclusion principles and resource partitioning

back 142

a) Competitive exclusion principles: 2 species competing for the same limited resource cannot coexist in nature
b) Resource partioning: divides the resources and decreased competition between the species

front 143

Cryptic colortion and Aposematic Coloration

back 143

Cryptic: camoflage
Aposematic: warning coloration

front 144

Two defenses for plants and animals

back 144

Plant defenses: physical defense (thorns), chemical defense (toxin, bitter taste)
Animal defenses: Cryptic coloration (camoflage), aposematic colloration (warning coloration)

front 145

Producer and Consumer

back 145

Producer: make their own food
Consumer: eat others

front 146

Autotroph and heterotroph

back 146

Autotroph:producer- make own food
Heterotroph: consumer- eat others