(Print) Use this randomly generated list as your call list when playing the game. There is no need to say the BINGO column name. Place some kind of mark (like an X, a checkmark, a dot, tally mark, etc) on each cell as you announce it, to keep track. You can also cut out each item, place them in a bag and pull words from the bag.
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Examples A & T or C & G
Complementary Bases
Enzyme that "glues" Okazaki fragments together
Ligase
Mathematical formula used to find missing base pairs percentages
Chargaff's Principle
Enzyme that "unzips" DNA
Helicase
The sequence of these will determine genetic info
Nitrogen Bases
Replicated DNA strand that is continuously made
Leading Strand
The protein center of a chromosome
Centromere
The branches of a chromosome
Chromatids
Long, readable form of DNA
Chromatin
Shape of the DNA molecule
Double Helix
Coiled up form of DNA
Chromosome
The three parts of a nucleotide
Phosphate, Sugar, Nitrogen Base
DNA will be in chromosome form during this phase
M Phase
DNA strand that starts with a sugar and ends with a phosphate
3' to 5'
Replicated DNA strand that is made in chunks
Lagging Strand
The nitrogen base that binds to cytosine
Guanine
"Building Blocks" of macromolecules
Monomer
Phase in which DNA Replication occurs
S phase
Nitrogen base that binds to Thiamine
Adenine
The nitrogen base that binds to adenine
Thiamine
DNA strand that starts with a phosphate and ends with a sugar
5' to 3'
Where DNA is stored in the cell
Nucleus
Structure that speeds up DNA replication
Replication Bubble
The monomers of DNA
Nucleotide
The sugar found in DNA nucleotides
Deoxyribose
Structure formed by a single helicase
Replication Fork
The nitrogen base that binds to guanine
Cytosine
Scientist who discovered DNA bases are complimentary
Edwin Chargaff
DNA will be in chromatin form during this phase of the cell cycle
Interphase
Enzyme that adds free nucleotides to the original DNA strand
DNA Polymerase
Bonds found in the DNA "backbones"
Covalent Bond
Describes how DNA replication saves half of the original DNA in each new molecule
Semiconservative
Bonds found between nitrogen bases
Hydrogen Bond
Describes how DNA strands run in opposite directions
Antiparallel
Pieces of replicated DNA in the lagging strand
Okazaki Fragments