DNA/RNA
TRANSCRIPTION
TRANSCRIPTION
TRANSLATION
TRANSLATION
100

DNA AND RNA ARE WHAT TYPE OF MACROMOLECULE 

NUCLEIC ACIDS OR POLYNUCLEOTIDES

100

WHERE DOES TRANSCRIPTION BEGIN & WHERE DOES IT END?

PROMOTOR 

TERMINATOR 

100

THIS ENZYME BREAKS THE HYDROGEN BONDS BETWEEN DNA NUCLEOTIDES BEFORE LAYING DOWN RNA NUCLEOTIDES, MAKING A STRAND OF MRNA. 

RNA POLYMERASE

100

WHERE DOES TRANSLATION BEGIN AND WHERE DOES IT END?

START CODON 

END CODON 

100

IN TERMS OF PROTEIN STRUCTURES (PRIMARY, SECONDARY, TERTIARY, QUATERNARY), WHAT IS THE FINAL PRODUCT OF TRANSLATION 

PRIMARY STRUCTURE - POLYPEPTIDE CHAIN. 

200

COVALENT BONDS ARE LOCATED WHERE IN A STRAND OF DNA.


HYDROGEN BONDS ARE LOCATED WHERE IN A STRAND OF RNA 

COVALENT BONDS ARE BETWEEN SUGAR-PHOSPAHTES 


HYDROGEN BONDS ARE BETWEEN NITROGENOUS BASES 

200

IN THE MRNA STRAND BELOW, HOW MANY CODONS ARE THERE? 

GAGUACAUGAUG 

4

200

WHERE ARE GENES LOCATED?

GENES ARE SEGMENTS OF DNA
200

WHAT STRUCTURE IS REQURIED FOR TRNALSATION TO TAKE PLACE?

RIBOSOME

200

WHERE DOES TRANSLATION OCCUR IN THE CELL 

CYTOPLASM 

300

THESE ARE COVALENT BONDS BETWEEN NUCLEOTIDES 

THESE ARE COVALENT BONDS BETWEEN AMINO ACIDS 

PHOSPHODIESTER BONDS 

PEPITDE BONDS 

300

WHAT IS THE END PRODUCE OF TRANSCRIPTION. 

MRNA

300

WHAT IS THE GOAL OF TRANSCRIPTION?

TO CONVERT DNA INTO MRNA

300

HOW DOES TRNA KNOW WHERE TO PLACE SPECIFIC AMINO ACIDS IN A POLYPEPTIDE CHAIN. 

ANTICODON ON TRNA BINDS TO A SPECIFIC CODON ON MRNA. 
300

WHAT ARE THE THREE TYPES OF RNA? 

WHAT ARE THEIR FUNCTIONS?

1. RRNA - RIBOSOMAL - MAKES UP RIBOSOMES 

2. MRNA - MESSENGER - BRINGS MESSAGE TO RIBOSOME 

3. TRNA - TRANSFER - TRANSFERS AMINO ACIDS TO RIBOSOME 

400

WHAT ARE THREE DIFFERENCES BETWEEN RNA AND DNA.

1. DNA - DOUBLE STRANDED   RNA - SINGLE STRANDED 

2. DNA - DEOXYRIBOSE     RNA - RIBOSE 

3. DNA - THYMINE      RNA - URACIL 

400
GIVEN THE FOLLOWING DNA STRAND, WHAT WOULD THE COMPLEMENTARY MRNA STRAND BE: 


GAGTATCG

MRNA: CUCAUAGC
400

PUT THESE IN CORRECT ORDER: 

1. DNA RE-FORMS 

2. RNA POLYMERASE USES A DNA TEMPLATE TO BIND RNA NUCLOETIDES TOGETHER INTO A MRNA STRAND 

3. RNA POLYMERASE BINDS TO PROMOTOR 

4. RNA POLYMERASE SEPRATES DNA STRANDS 

5. TERMINATOR IS REACHED, RNA POLYMERASE UNBINDS, MRNA IS FORMED  

3 --> 4 --> 2 --> 5 --> 1 

400

PUT THESE IN THE CORRECT ORDER FOR WHICH THEY OCCUR:

1. mRNA binds to the ribosome at the Start Codon 

2. Amino acids are linked together by peptide bonds into polypeptide chain until STOP codon is reached 

3. Ribosome breaks apart, mRNA disassociates, and polypeptide chain is fully formed 

4. tRNA brings amino acids to the ribosome as mRNA is read one codon at a time 

1. --> 4 --> 2 --> 3 

400

GIVEN THE FOLLOWING DNA STRAND WHAT AMINO ACID SEQUENCE (POLYPEPTIDE) WOULD BE MADE: 

DNA: GACGGCAAA

MRNA: CUG - CCG - UUU 

POLYPEPTIDE: LEU - PRO - PHE

500

MATCH THE FOLLOWING TERMS TO DNA REPLICATION - TRANSCRIPTION - TRANSLATION: 

HELICASE, RNA POLYMERASE, RNA PRIMASE, RIBOSOME, TRNA, DNA POLYMERASE, ORIGIN OF REPLICATION, RRNA 

DNA REPLICATION: ORIGIN OF REPLICATION, RNA PRIMASE, HELICASE, DNA POLYMERASE 

TRANSCRIPTION: RNA POLYMERASE 

TRANSLATION: TRANA, RIBOSOME, RRNA 

500

IN PROKARYOTES, TRANSCRIPTION AND TRANSLATION OCCUR SIMULATENOUSLY. IN EUKARYOTES, TRANSCRIPTION MUST OCCUR BEFORE TRANSLATION WHY? 

(hint - think of where they occur)

PROKARYOTES - BOTH PROCESSES OCCUR IN THE SAME PLACE SO THEY CAN BE SIMULATENOUS


Eukaryotes - TRANSCRIPTION OCCURS IN THE NUCLEUS AND MRNA MUST BE TRANSPORTED OUT TO THE CYTOPLASM 

 


500

WHAT WOULD BE THE CONSEQUENCE IF RNA POLYMERASE WAS UNABLE TO ADD NUCLEOTIDES TO A GROWING STRAND 

THE DNA STRAND COULD SEPARATE BUT NO MRNA STRAND WOULD BE FORMED

500

WHAT WOULD BE THE CONSEQUENCE OF A MUTATION THAT CHANGES THE STRAND 

AUG - GUC - CCC - UAA

TO 

AUC - GUC - CCC - UAA

TRANSLATION WOULD NEVER BEIGN BECASUE THERE IS NO START CODON 

500

List 6 proteins 

(+100 for each extra protein listed) 

- nuclease                            - RNA Primase 

- ligase                                - ATP Synthase

- RNA Polymerase                 - Lactase 

- DNA polymerase