match # ->description with the term(letters).

1. process of manufacturing proteins
2. carries coded instructions for protein synthesis
3. makes up the ribosome with other proteins
4. section of 3 bases in tRNA that code for an amino acid
5. sequence of 3 bases in tRNA that complement an amino acid
6. bring amino acids to the ribosome in the correcr order to build new proteins
7. transfer of info from DNA to RNA
8. sequence of genes that are not part of a code for a protein
9. short sequence of DNA that codes for a protein

a.messanger RNA
b.transcription
c.codon
d.ribosomal RNA
e. transfer RNA
f. intron
g. exon
h. protein synthesis
i. anticodon

6) When molecules move through a membrane from a region of low concentration to a region of high concentration, the process is called
a. diffusion
b. passive transport
c. active transprot
d. fermentation
# 9) before the energy in food can be used by a cell, it must first be transferred to mileciles of
a. proteins
b carbohidrates
c dna
d atp

# 10) Which of the following doesnt perform mitosos?
a prokaryotic cell
b human body cell
c eukaryotic cell
d plant cell
12) How many chromatids are present in a chromosome at the beginning of mitosis?

13) Describe the 3 stages of the cell cycle on a eukaryotic cell.

THXX!!!

i looked online and they give all of these confusing answers!!! i found this, but it doesnt make sense
•Attachment of virus to host cell
•Infection of DNA/RNA into the host cell
•Virus turns off the host cell’s genes
•Host cell manufactures the proteins and DNA/RNA
•Assembly of the viruses from proteins and DNA/RNA

come on guys,…easy 10 points, its not that hard, i jus NEED these answered…….

Proteins are manufactures from the "blueprints" found on DNA. After they are translated, they are moved through a system of internal membranes before being distributed throughout the rest of the cell. At some point in this process, they are modified to their functional form.

1.) Describe the movement of proteins from thier manufacturing point through this internal membrane system.

2.) In your own words, discuss the role of each of the following structures in the whole process: cell membrane, vesicles, ribosomes, Golgi apparatus, and endoplasmc recticulum.

(This doesn”t have to be totally perfect, but it does have to get me a passing grade,,,….thanx =)

A.
by using RNA from plants

B.
by combining the RNA of two different organisms

C.
by combining the proteins from two different organisms

D.
by combining the DNA of two different organisms

Proteins are manufactured from the "blueprints" found on DNA. After they are translated, they are moved through a system of internal membranes before being distributed throughout the rest of the cell. At some point in this process, they are modified to their functional form.

• Describe the movement of proteins from their manufacturing point through this internal membrane system.
• In your own words, discuss the role of each of the following structures in the whole process: cell membrane, vesicles (at two points in the process), ribosomes, Golgi apparatus, and endoplasmc reticulum. Be sure to identify the correct order in which the proteins move through each of these structures.

Proteins are manufactured from the "blueprints" found on DNA. After they are translated, they are moved through a system of internal membranes before being distributed throughout the rest of the cell. At some point in this process, they are modified to their functional form.

• Describe the movement of proteins from their manufacturing point through this internal membrane system.
• In your own words, discuss the role of each of the following structures in the whole process: cell membrane, vesicles (at two points in the process), ribosomes, Golgi apparatus, and endoplasmc reticulum. Be sure to identify the correct order in which the proteins move through each of these structures.

Proteins are manufactured from "blueprints" found on DNA. After they are translated, they are moved through a system of internal membranes before being distributed throughout the rest of the cell. At some point in this process, they are modified to their functional form.

a) Describe the movement of proteins from their manufacturing point through this internal membrane system.

b) In your own words, discuss the role of each of the following structures in the whole process: cell membrane, vesicles (at two points in the process), ribosomes, Golgi apparatus, and endoplasmc reticulum. Be sure to identify the correct order in which the proteins move through each of these structures.

Proteins are manufactured from "blueprints" found on DNA. After they are translated, they are moved through a system of internal membranes before being distributed throughout the rest of the cell. At some point in this process, they are modified to their functional form.

a) Describe the movement of proteins from their manufacturing point through this internal membrane system.

b) In your own words, discuss the role of each of the following structures in the whole process: cell membrane, vesicles (at two points in the process), ribosomes, Golgi apparatus, and endoplasmc reticulum. Be sure to identify the correct order in which the proteins move through each of these structures.

Transcription which is DNA to RNA and then translation which is RNA to protein, but I’m not understanding how to answer these questions.

Any help would be appreciated. =]
Sorry for the topic mess up. It’s supposed to read I need help understanding how proteins are made.
Erika- I’m asking all of that. =]

A potential therapeutic hepatitis C treatment can be manufactured using E. coli to express one of the hepatitis C proteins via recombinant DNA technology. The hepatitis C protein is derived from the hepatitis C virus genome and is used to stimulate the patient’s own immune system to attack the virus without exposure to the intact virus. Explain how you can create a strain of E. coli that will produce the therapeutic protein using the following materials: plasmid, restriction enzyme, DNA ligase, hepatitis C virus DNA.

First, one has to use a restriction enzyme to cut the hepatitis C virus DNA from the hepatitis C virus genome and the plasmid of the E. coli. Second, one has to add the gene from the hepatitis C virus genome, which allows the creation of the hepatitis protein, to the plasmid of the E. coli, which has to also be cut by a restriction enzyme to allow the gene from the virusgenometobeaddedtotheE.coliplasmid. Last,onehastoaddDNAligasetotheequationtorepairthesugarphosphatebonds