Calvin Cycle; Solar energy is not required, occurs in the stroma pf the Chloroplast and produces glucose for the plant
Front
Light Independent Reaction
Back
"Semi-active" uses transport proteins to help move material across the plasma membrane, but still doesn't require energy
Front
Facilitated Diffusion
Back
Large molecules going INTO the cell
Front
Endocytosis
Back
Internal condition is balanced
Front
Homeostasis
Back
No energy required; transport of small and medium materials across the plasma membrane (Osmosis, Diffusion, and Facilitated Diffusion)
Front
Passive Transport
Back
simple sugars, monomer for carbs (ex: glucose and sucrose)
Front
Monosaccharide
Back
Where molecules, waste, etc. is stored; Bigger in Plant Cells
Front
Vacuole
Back
No energy required; transports molecules from high to low concentrations in order to even them out (for small materials)
Front
Diffusion
Back
Same amount of water entering the cell as existing, resulting in an equilibrium, normal Cell
Front
Isotonic
Back
UPS of the cell; Sorts and packages molecules
Front
Golgi Apparatus
Back
No energy required; transports WATER from high to low concentrations in order to even them out
Front
Osmosis
Back
main source of quick energy; building blocks are monosaccharides
Front
Carbohydrate
Back
Front
Photosynthesis
Back
Transports Proteins; Does not have Ribosomes
Front
Smooth ER
Back
Small structures that perform various functions for the cell (reside within the cytoplasm)
Front
Organelles
Back
Undifferentiated cells (general, template-like cells that have no general function yet)
Front
Stem Cells
Back
Requires energy (ATP) for large molecules. Gets molecules across the cell through pumps and vesicles (endocytosis and exocytosis)
Front
Active Transport
Back
substances used to lower the activation energy and speed up the reaction
Front
Catalyst
Back
Made of nucleotides, function is to store genetic information which can be seen in DNA and RNA
Front
Nucleic Acids
Back
Controls what goes in/out of the nucleus
Front
Nuclear Envelope
Back
amount of energy needed to start a reaction; enzymes lower this energy
Front
Activation Energy
Back
Makes protein; Where translation in protein synthesis occurs
Front
Ribosomes
Back
monomer of a protein; held together by peptide bonds; tRNA carry these to the ribosome during protein synthesis
Front
Amino Acid
Back
Drives diffusion; moves from left to right
Front
Concentration Gradient
Back
Molecules are "pumped" by a transport protein to get across the membrane, requiring energy
Front
Pumps
Back
Semi-permeable, therefore maintains homeostasis
Front
Cell Membrane
Back
Organisms composed of many cells (Ex. tissue, humans, etc.)
Front
Multicellular Organisms
Back
Only in Plant Cells; supports and provides protection
Front
Cell Wall
Back
monomers are amino acids; functions include regulate reactions and cell processes, structure/function, immunity, hormones
Front
Protein
Back
Cells with no nucleus, small, simple (Ex. Bacteria)
Front
Prokaryote
Back
Solar energy needed to produce NADPH & ATP and Water (releasing oxygen) occurs in the Chloroplast
Front
Light Dependent Reaction
Back
Transports Proteins; Has Ribosomes
Front
Rough ER
Back
Large molecules going OUT of the cell
Front
Exocytosis
Back
All living things are made of cells; Cells come from other cells; Cells are the basic structure and function of an organism
Front
Cell Theory
Back
Breaks down waste, food, etc.
Front
Lysosomes
Back
Movement for Eukaryotes
Front
Cilia
Back
Makes ATP, (Power house of the cell); Where Cellular Respiration occurs
Front
Mitochondria
Back
Only in eukaryotic cells, holds DNA
Front
Nucleus
Back
Water only entering the cell, resulting in it being Lysed/Burst
Front
Hypotonic
Back
large molecules made of carbon
Front
Organic Molecule/Macromolecule
Back
Cells that have a nucleus, large, complex (Ex. Plants, Animals, Fungi, Protists)
Front
Eukaryote
Back
dissolves nutrients, allowing diffusion to occur; holds all the organelles
Front
Cytoplasm
Back
Water only exiting the cell, resulting in it being shriveled
Front
Hypertonic
Back
process of a stem cell becoming a certain type of cell that has a specific function
Front
Cell Differentiation/ Cell Specialization
Back
Movement for Prokaryotes
Front
Flagella
Back
Organisms composed of only one cell (Ex. Bacteria)
Front
Unicellular Organism
Back
Makes glucose for the plant; Where Photosynthesis occurs
Front
Chloroplast
Back
Used when molecules are too large to pass through the membrane, even with the help of a transport protein
Front
Vesicles
Back
biological catalyst that speeds up reactions; made of proteins; have an active site and bind with specific substrates
Front
Enzyme
Back
used for long term energy storage; monomers are 1 glycerol and 3 fatty acids; make up the phospholipid bilayer;
Front
Lipid
Back
Section 2
(50 cards)
Front
Cellular Respiration
Back
region of chromosomes that holds the two sister chromatids together during mitosis
Front
Centromere
Back
First stage of Cellular Respiration in which the Glucose molecule is broken in half creating two Pyruvic Acid molecules and 2ATP
Front
Glycolysis
Back
Body cell (liver, skin, etc.)
Front
Somatic
Back
One of 2 strands of a chromosome that becomes visible during mitosis
Front
Sister Chromatid
Back
Somatic Cells undergo this in order to repair and regrow, creating two identical diploid daughter cells
Front
Mitosis
Back
Produced in Glycolysis and then used during Fermentation of Anaerobic Respiration
Front
Pyruvic Acid
Back
Fibers that extend across a dividing eukaryotic cell and assists in the separation of chromosomes
Front
Spindle Fibers
Back
Final stage of Cellular Respiration where most of the energy is produced (34 ATP) in the mitochondria. Hydrogen combines with Oxygen to form water and Carbon Dioxide is released. (Aerobic)
Front
Electron Transport Chain
Back
Main source of energy for the cell; made in the Mitochondria. When used in the cell it turns into ADP and returns to the Mitochondria to be converted back
Front
ATP
Back
Physical appearance/characteristic of an organism (Ex. Blue eyes)
Front
Phenotype
Back
In Anaerobic Respiration- occurs mostly in yeast, pyruvates break down forming alcohol, CO2, and releasing energy
Front
Alcohol Fermentation
Back
Occurs in Prophase I when two chromosomes (one from each parent) come together to form a homologous pair
Front
Synapsis
Back
Cells membrane forms, spindle fibers retract, and chromosomes uncoil as the cell starts to become two
Front
Telophase
Back
(fishing pole) cell organelle that produces spindle fibers
Front
Centriole
Back
G1: growth
S: (synthesis) replicate DNA
G2: growth
Front
Interphase
Back
long thread of DNA containing genetic information
Front
Chromosome
Back
genes located on the same chromosome will be inherited together
Front
Linked Genes
Back
Cluster of four chromosomes, two from male and two from female, can exchange genetic information through crossing over
Front
Homologous Pair
Back
Start with one diploid cell and end with four unique haploid cells
Front
Meiosis
Back
The division of the cytoplasm into two individual cells
Front
Cytokinesis
Back
examines the inheritance of one trait
Front
Monohybrid Cross
Back
Genetic makeup of an organism, revealing the types of alleles he/she has inherited (Ex. AA)
Front
Genotype
Back
Repeated pattern of growth and division that occurs in eukaryotes
Front
Cell Cycle
Back
Allows for genetic diversity where the genetic information from male and female swap; occurs during Prophase I
Front
Crossing Over
Back
Sexual reproductive cell (egg and sperm)
Front
Gamete
Back
(1n) one set of chromosomes (egg and sperm)
Front
Haploid
Back
Another term for homologous pair
Front
Tetrad
Back
Within a plant cell, forms midways between the divided nuclei of a cell during Cytokinesis
Front
Cell Plate
Back
In Aerobic Respiration- pyruvates travel to the mitochondria where it eventually releases CO2, water, and 2 ATP
Front
Krebs Cycle
Back
Trait is only seen if dominant allele isn't present
Front
Recessive
Back
When an organism has two different alleles for a trait (Ex. Aa)
Front
Heterozygous
Back
Stage of Cellular Respiration that requires Energy; includes the Krebs Cycle and ETC
Front
Aerobic Respiration
Back
Created at the end of mitosis, each has the same number of chromosomes as the parent cell and will be identical to each other
Front
Daughter Cells
Back
examines the inheritance of two different traits
Front
Dihybrid Cross
Back
Doesn't require oxygen; includes Lactic Acid Fermentation and Alcohol Fermentation of Cellular Respiration
Front
Anaerobic Respiration
Back
Occur at G1, G2, and Mitosis; uses chemical and physical signals to monitor the growth of cells
Front
Check Points
Back
When an organism has two alike alleles for a trait (Ex. AA or aa)
Front
Homozygous
Back
Mass that remains at its original site
Front
Benign
Back
Mass that impairs multiple organs (cancerous)
Front
Malignant
Back
Spindle fibers pull the sister chromatids apart, pulling them away from the center of the cell
Front
Anaphase
Back
Preparing, Cell membrane begins to break down and spindle fibers form
Front
Prophase
Back
Uncontrolled Cell Growth (tumor)
Front
Cancer
Back
Chromosomes line up in the middle and spindle fibers attach to the centromere
Front
Metaphase
Back
Trait is always expressed if present
Front
Dominant
Back
In Anaerobic Respiration- pyruvates break down creating energy (found in muscles)
Front
Lactic Acid Fermentation
Back
different forms of a gene (Ex. 'A')
Front
Alleles
Back
offspring (baby) where the egg and sperm meet
Front
Zygote
Back
Makes up chromosomes and copies itself during cell division, provides a blueprint for protein synthesis by specific arrangement of nitrogenous bases; Deoxyribose, Double Helix
Front
DNA
Back
(2n) two sets of chromosomes from each parent
Front
Diploid
Back
Section 3
(50 cards)
Tells the ribosome to stop translating
Front
Stop Codon
Back
Offspring is a mixture of the parent's characteristics through multiple generations
Front
Incomplete Dominance
Back
Characteristic that can be passed from one parent to offspring
Front
Trait
Back
Different species diverge from a common ancestor; related species become more and more dissimilar
Front
Divergent Evolution
Back
Exists for a particular trait even through only two alleles are inherited (Ex. Blood Type)
Front
Multiple Alleles
Back
the second generation's offspring
Front
F2 Generation
Back
The process of forming a new species by biological evolution from preexisting species
Front
Speciation
Back
DNA is copied into a complementary strand of mRNA in the nucleus
Front
Transcription
Back
Father of Genetics; responsible of the Law of Inheritance
Front
Mendel
Back
small subunits composed of a nitrogenous base, pentose sugar, and phosphate group
Front
Nucleotide
Back
the first generation's offspring
Front
F1 Generation
Back
Genes are located on chromosomes and the behavior of chromosomes during meiosis accounts for inheritance patterns
Front
Chromosome Theory of Inheritance
Back
Group of organisms that share similar characteristics, interbreed, and make fertile offspring
Front
Species
Back
Sequence of 3 bade pairs on a strand of DNA or mRNA
Front
Codon
Back
Similar characteristics resulting from common ancestry
Front
Homologous Structures
Back
Part of a nucleotide, consists of Thymine (only DNA), Uracil (only RNA), Adenine Guanine, and Cytosine
Front
Nitrogenous Base
Back
Two or more species living close together change in response to one another (the evolution of one species affects the evolution of another)
Front
Coevolution
Back
Process of making a copy of DNA through the use of enzymes (Helicase) and complimentary base pairing to ensure that every cell has identical DNA molecules; Occurs during Synthesis of Interphase
Front
DNA Replication
Back
The study of how closely related something is
Front
Phylogeny
Back
Single Helix, Uracil base, Ribose Sugar
Front
RNA
Back
Shows relative location of each gene on a chromosome
Front
Gene Map
Back
Structures with little or no function to the organism (Ex. the human appendix)
Front
Vestigial Structure
Back
mRNA with the genetic information is taken to the Ribosome and in interpreted into amino acids
Front
Translation
Back
All the genes, including different alleles, of all individuals in a population
Front
Gene Pool
Back
Involves genes on either the X or the Y chromosome; Passed most normally through the Y chromosome (Ex. Color blindness, Hemophilia)
Front
Sex-Linked Trait
Back
All genetic material in an organism
Front
Genome
Back
3 base complement to the codon on the tRNA
Front
Anticodon
Back
Breeding two strong traits to result in a mixture between the two (Ex. Mule)
Front
Hybridization
Back
Passing of traits from parent to offspring
Front
Heredity
Back
A physical or chemical agent that causes a mutation
Front
Mutagen
Back
Segregation of alleles of one trait does not affect the segregation of alleles of another trait
Front
Law of Independent Assortment
Back
an alteration of an organism's DNA caused by a malfunction during meiosis or from exposure to a mutagen
Front
Mutation
Back
A chart made to show inheritance patterns within a family
Front
Pedigree
Back
crossing individuals who are closely related
Front
Inbreeding
Back
Making an identical copy of a gene or organism
Front
Cloning
Back
Study of Heredity, each somatic cell is a diploid where chromosomes are inherited from offspring's parent
Front
Genetics
Back
offspring contains BOTH parent's characteristics distinctly
Front
Codominance
Back
Scientist enter a normal gene into an absent or abnormal one
Front
Gene Therapy
Back
When chromosomes don't separate properly during anaphase, resulting in an abnormal amount of chromosomes
Front
Nondisjunction
Back
Different species in the same environment that are similar in looks/behavior evolving together
Front
Convergent Evolution
Back
Random change in frequency of alleles of a population overtime
Front
Genetic Drift
Back
Trait controlled by two or more genes (Ex. Skin color and Eye Color)
Front
Polygenic Trait
Back
Ribosomal RNA, along with protein, makes up the ribosome
Front
rRNA
Back
specific location on a chromosome (DNA) that codes for a particular protein
Front
Gene
Back
Some alleles are dominant and some are recessive
Front
Law of Dominance
Back
Alleles separate during meiosis and unite in fertilization
Front
Law of Segregation
Back
Transfer RNA that transfers correct amino acids to the ribosomes where proteins are synthesized, contains the anticodon that matches the codon on the mRNA
Front
tRNA
Back
Artificially breeding for a desired trait
Front
Selective Breeding
Back
The movement of genes into or out of a population overtime
Front
Gene Flow
Back
Messenger RNA that carries genetic information to the ribosome from the nucleus
Front
mRNA
Back
Section 4
(50 cards)
Green plants and autotrophs, capture the sun's energy (1st level)
Front
Producers
Back
The study of interactions between organisms and their environment
Front
Ecology
Back
Non-living factors in an environment
Front
Abiotic
Back
Normal warming effect when gases trap heat in the environment
Front
Greenhouse Effect
Back
The study of prehistoric life
Front
Paleontology
Back
Elimination of a species when they can no longer adapt to the changing environment (can be gradual or rapid)
Front
Extinction
Back
Limits the expression of certain allele frequencies
Front
Non-Random Mating
Back
Carnivores and Omnivores (3rd level)
Front
Secondary Consumer
Back
Similar in appearance and function but have different evolutionary origins
Front
Analogous Structures
Back
Scientific diagrams that represent the phylogeny of organisms (a.k.a. cadograms). Classifies into major groups (taxa) by physical characteristics, in order from which they descended from an ancestor
Front
Phylogenetic Trees
Back
(+,-) Interaction where predator eats prey (stabilizes population)
Front
Predation
Back
The study embryonic development of organisms
Front
Embryology
Back
Limiting factors that operate more strongly on LARGE populations, triggered by increased population
Front
Density-Dependent
Back
Makes sure new generations result in individuals with unique genotypes
Front
Genetic Variability
Back
Eat both primary consumers and producers
Front
Omnivore
Back
Heterotrophs, herbivores (2nd level)
Front
Primary Consumer
Back
Number of individual organisms living in a defined space
Front
Population Density
Back
Eat green plants
Front
Herbivore
Back
Series of changes in an ecosystem when one community is replaced
Front
Ecology Succession
Back
(+,-) One organism (parasite) benefits, while the other (host) is harmed
Front
Parasitism
Back
90% of energy is lost to the environment (through heat), only 10% of the energy is transferred to the next trophic level
Front
10% Rule
Back
Many interconnected food chains (describes various energy paths)
Front
Food Web
Back
Involves one parent through Binary Fission and Mitosis resulting in offspring that is identical to the parent with no genetic variability
Front
Asexual Reproduction
Back
Different levels displaying the order of a food chain
Front
Trophic Level
Back
(+,+) Both organism benefit
Front
Mutualism
Back
Can be produced at the same rate as they are consumed
Front
Renewable Resources
Back
No change of allele frequencies within a species
Front
Genetic Equilibrium
Back
Starts with rock, Pioneer Species = Lichen
Front
Primary Succession
Back
Gradual changes of a species over long periods of time
Front
Gradualism
Back
Cannot be produced at the same rate as they are consumed
Front
Nonrenewable Resources
Back
Two different species live together in direct contact
Front
Symbiotic
Back
(+,o) One organism benefits and the other isn't affected
Front
Commensalism
Back
Starts with soil, Pioneer Species = Grass
Front
Secondary Succession
Back
The study of the structures of organisms
Front
Anatomy
Back
Involves two parents through fertilization resulting in genetically different offspring that increases on organism's chance of survival
Front
Sexual Reproduction
Back
Periods of abrupt changes in a species after a long period of time
Front
Punctuated Evolution
Back
What needs to be done in order to obtain a genetic equilibrium
Front
Hardy-Weinberg Principle
Back
Heterotroph that decomposes organic material
Front
Detrivore
Back
(-,-) when 2+ organisms need the same resource at a time
Front
Competition
Back
1) Large population with no genetic drift
2) No movement in/out of population
3) Random Mating
4) No mutations within the gene pool
5) No Natural Selection
Front
Conditions for Genetic Equalibrium
Back
Living factors in an environment
Front
Biotic
Back
Simplest path energy takes through an ecosystem
Front
Food Chain
Back
Role of an organism in its environment, including the food they eat, how they obtain the Food, and how it interacts
Front
Niche
Back
Eat primarily consumers (meat)
Front
Carnivore
Back
Occurs when a catastrophic event changes the environment very suddenly, resulting in a sudden loss of a species
Front
Mass Extinction
Back
A result of industrial pollution, caused by the burning of fossil fuels
Front
Acid Rain
Back
Community, all organisms in a given area and abiotic factors that annoy them
Front
Ecosystem
Back
Carnivores and Omnivores (4th level)
Front
Tertiary Consumer
Back
Allows for the most favorable phenotypes to survive and be passed on
Front
Natural Selection
Back
Maximum population size that can be supported by the resources available
Front
Carrying Capacity
Back
Section 5
(4 cards)
Major element of living things, found in the atmosphere. Plants use CO2 to produce glucose. Heterotrophs then consume the plant and create CO2 through cellular respiration.
Front
Carbon Cycle
Back
In atmosphere, amino acids, and organic materials. Organisms intake nitrogen through nitrogen fixation. The nitrates in the soil are used in plant DNA, heterotrophs eat them and then return them to the soil when they die.
Front
Nitrogen Cycle
Back
Limiting factors that occur regardless of population size, reduces size of all populations equally, mostly abiotic