DNA for Dummies Notes - Dr. Annette M. Parrott
... Replication: DNADNA • Occurs during S phase of interphase in reproducing cells only • DNA template is copied complimentarily and semi conservatively • Occurs only in the nucleus ...
... Replication: DNADNA • Occurs during S phase of interphase in reproducing cells only • DNA template is copied complimentarily and semi conservatively • Occurs only in the nucleus ...
Genomics and Forensics - MCCC Faculty & Staff Web Pages
... (Human genome project- covered in other power point) Proteome – all the proteins found in a cell, and how they work- the study of proteins encoded by the genome Transcriptome – genes expressed Metabolome – entire metabolic state of a cell ...
... (Human genome project- covered in other power point) Proteome – all the proteins found in a cell, and how they work- the study of proteins encoded by the genome Transcriptome – genes expressed Metabolome – entire metabolic state of a cell ...
8(problem set I)
... small cell or vesicle? How does that compare to the total number of ions in the ...
... small cell or vesicle? How does that compare to the total number of ions in the ...
DNA Structure - WordPress.com
... A always pairs with T G always pairs with C The bases that pair with each other are called complimentary ...
... A always pairs with T G always pairs with C The bases that pair with each other are called complimentary ...
Chapter 19 (part 2) - Nevada Agricultural Experiment
... • Each strand of the helix must be copied in complementary fashion by DNA polymerase • Each strand is a template for copying • DNA polymerase requires template and primer • Primer: an oligonucleotide that pairs with the end of the template molecule to form dsDNA • DNA polymerases add nucleotides in ...
... • Each strand of the helix must be copied in complementary fashion by DNA polymerase • Each strand is a template for copying • DNA polymerase requires template and primer • Primer: an oligonucleotide that pairs with the end of the template molecule to form dsDNA • DNA polymerases add nucleotides in ...
DNA/RNA.lecture
... D. Steps: 1. initiation initiation complex 2. chain elongation a. codon recognition b. peptide bond formation c. translocation d. repeat 3. chain termination stop codon release factor E. polyribosomes/polysomes F. proteins are folding into their final shape G. post-translational modifications 1. mod ...
... D. Steps: 1. initiation initiation complex 2. chain elongation a. codon recognition b. peptide bond formation c. translocation d. repeat 3. chain termination stop codon release factor E. polyribosomes/polysomes F. proteins are folding into their final shape G. post-translational modifications 1. mod ...
Aim: What is the structure of the DNA molecule?
... DNA is a special molecule found in the cells which make up a chromosome. Chromosomes are found in the nucleus of a cell. (Therefore DNA is in the nucleus) There are 46 pairs of chromosomes in the human cell. DNA is an instruction manual for all the processes that the organism does. DNA has all the i ...
... DNA is a special molecule found in the cells which make up a chromosome. Chromosomes are found in the nucleus of a cell. (Therefore DNA is in the nucleus) There are 46 pairs of chromosomes in the human cell. DNA is an instruction manual for all the processes that the organism does. DNA has all the i ...
Poster
... important enzymes in our body. Pol II has twelve protein subunits, which also makes it one of the largest molecules. Its function is to surround the DNA, unwind it, separate it into two strands, and use the DNA template strand to create a messenger RNA (mRNA) copy of a gene. These mRNA copies of gen ...
... important enzymes in our body. Pol II has twelve protein subunits, which also makes it one of the largest molecules. Its function is to surround the DNA, unwind it, separate it into two strands, and use the DNA template strand to create a messenger RNA (mRNA) copy of a gene. These mRNA copies of gen ...
Chapter 12-1: DNA - SandersBiologyStuff
... Francis _____ and James __________ were trying to figure out the structure of DNA by building models with cardboard and wire. When they saw Franklin’s pictures they soon were able piece all the information together to come up with the 3dimensional structure of DNA: a ______________ with two strands ...
... Francis _____ and James __________ were trying to figure out the structure of DNA by building models with cardboard and wire. When they saw Franklin’s pictures they soon were able piece all the information together to come up with the 3dimensional structure of DNA: a ______________ with two strands ...
PDF version - Sciencesconf.org
... events, during the development of a new somatic macronucleus from the germline micronucleus. In Paramecium, genome rearrangements include the precise excision of numerous single-copy Internal Eliminated Sequences (IESs) from the somatic DNA. These rearrangements have been described as a ”cut and clo ...
... events, during the development of a new somatic macronucleus from the germline micronucleus. In Paramecium, genome rearrangements include the precise excision of numerous single-copy Internal Eliminated Sequences (IESs) from the somatic DNA. These rearrangements have been described as a ”cut and clo ...
Jan. 28 Bio II Answer to warm up Protein Synthesis
... the proteins that we need to survive. DNA does not however make proteins directly. DNA is used to make RNA inside of the nucleus. Then the RNA exits the nucleus where it can be used to make proteins in the cytoplasm. ...
... the proteins that we need to survive. DNA does not however make proteins directly. DNA is used to make RNA inside of the nucleus. Then the RNA exits the nucleus where it can be used to make proteins in the cytoplasm. ...
Units 5 and 6: DNA and Protein Synthesis 1/22 Vocabulary
... ○ Organisms that are not closely related share fewer genes than organisms that are more closely related. For example, red maple trees share more genes with oak trees than with earthworms. ...
... ○ Organisms that are not closely related share fewer genes than organisms that are more closely related. For example, red maple trees share more genes with oak trees than with earthworms. ...
GOALS OF THE HUMAN GENOME PROJECT
... The double-stranded regions are depicted by connecting hydrogen bonds. Loops are noncomplementary regions that are not hydrogen bonded with complementary bases. Double-stranded RNA structures can form within a single RNA molecule or between two separate RNA molecules ...
... The double-stranded regions are depicted by connecting hydrogen bonds. Loops are noncomplementary regions that are not hydrogen bonded with complementary bases. Double-stranded RNA structures can form within a single RNA molecule or between two separate RNA molecules ...
goals of the human genome project
... The double-stranded regions are depicted by connecting hydrogen bonds. Loops are noncomplementary regions that are not hydrogen bonded with complementary bases. Double-stranded RNA structures can form within a single RNA molecule or between two separate RNA molecules ...
... The double-stranded regions are depicted by connecting hydrogen bonds. Loops are noncomplementary regions that are not hydrogen bonded with complementary bases. Double-stranded RNA structures can form within a single RNA molecule or between two separate RNA molecules ...
dna replication - MacWilliams Biology
... 1. Before a cell divides, it duplicates its DNA in a copying process called replication ensures each resulting cell has the same complete set of DNA 2. DNA molecule separates into two strands and produces two new complementary strands following the rules of base pairing ***DNA IS ALWAYS COPIED FRO ...
... 1. Before a cell divides, it duplicates its DNA in a copying process called replication ensures each resulting cell has the same complete set of DNA 2. DNA molecule separates into two strands and produces two new complementary strands following the rules of base pairing ***DNA IS ALWAYS COPIED FRO ...
Chapter 12 DNA Structure and Function
... • 4. One side is the leading strand - it follows the helicase as it unwinds. • 5. The other side is the lagging strand - its moving away from the helicase • Problem: it reaches the replication fork, but the helicase is moving in the opposite direction. It stops, and another polymerase binds farther ...
... • 4. One side is the leading strand - it follows the helicase as it unwinds. • 5. The other side is the lagging strand - its moving away from the helicase • Problem: it reaches the replication fork, but the helicase is moving in the opposite direction. It stops, and another polymerase binds farther ...
Replisome
The replisome is a complex molecular machine that carries out replication of DNA. The replisome first unwinds double stranded DNA into two single strands. For each of the resulting single strands, a new complementary sequence of DNA is synthesized. The net result is formation of two new double stranded DNA sequences that are exact copies of the original double stranded DNA sequence.In terms of structure, the replisome is composed of two replicative polymerase complexes, one of which synthesizes the leading strand, while the other synthesizes the lagging strand. The replisome is composed of a number of proteins including helicase, RFC, PCNA, gyrase/topoisomerase, SSB/RPA, primase, DNA polymerase I, RNAse H, and ligase.