DNA. Nucleic Acids Informational polymers Made of C,H,O,N and P No general formula Examples: DNA and RNA.

Slides:



Advertisements
Similar presentations
Nucleic acids Nucleic Acids Information storage.
Advertisements

AP Biology Nucleic acids AP Biology Nucleic Acids.
Nucleic Acids.
Biochemistry Part IV Nucleic Acids. Largest organic molecule made by organisms Largest organic molecule made by organisms Include 2 main types: Include.
Biology 107 Macromolecules III September 10, 2002.
PROTEIN SYNTHESIS. DNA RNA Protein Scientists call this the: Central Dogma of Biology!
Nucleic Acids -DNA and RNA
The Structure of DNA.
DNA: The Molecule of Heredity
DNA Structure and Replication Honors Biology 2013.
NUCLEIC ACIDS.
Nucleic Acids.
Molecular Biology 2.6 Structure of DNA and RNA. Nucleic Acids The nucleic acids DNA and RNA are polymers of nucleotides.
D.N.A. DeoxyriboNucleic Acid
DNA Deoxyribose Nucleic Acid. DNA (deoxyribonucleic acid) Genetic Information in the form of DNA is passed from parent to offspring. Genes are the code.
Structure, replication, transcription.  DNA is composed of nucleotides- which contain a phosphate group, a sugar (deoxyribose), and a nitrogen containing.
DNA structure.
DNA Structure.
From DNA to Protein. Knowledge of Nucleic Acid Chemistry Is Essential to the Understanding of DNA Structure.
Chap. 10 : Nucleic Acids & Protein Synthesis I. DNA – deoxyribonucleic acid - function – store and use information to direct activities of the cell and.
Regents Biology Nucleic Acids Information storage.
Section 11.1 DNA: The Molecule of Heredity. Within the structure of DNA, is the complete instructions for manufacturing all the proteins for an organism.
Polynucleotides: DNA and RNA
NUCLEIC ACIDS  P GENERAL CHARACTERISTICS MADE UP OF C, H, O, N, AND P A NUCLEOTIDE MONOMER : THAT INCLUDES A 5 CARBON SUGAR, A NITROGEN BASE AND.
3.3.1 DNA Structure DNA is a polymer of Nucleotides 1.Sugar (5C) 2.Phosphate Group (C-5) 3.Nitrogenous Base (C-1) Phosphate Pentose Sugar Nitrogenous.
DNA RNA  Made up of C, H, O, N, P Nucleotides are the monomers of Nucleic Acids Phosphate Group 2.5-Carbon Sugar (Dexoyribose or Ribose)
Nucleic Acids Nucleic acids provide the directions for building proteins. Two main types…  DNA – deoxyribonucleic acid  Genetic material (genes) that.
AP Biology A A A A T C G C G T G C T Macromolecules: Nucleic Acids  Examples:  RNA (ribonucleic acid)  single helix  DNA (deoxyribonucleic acid)
Deoxyribonucleic Acid Structure Function Replication Recombinant DNA DNA versus RNA.
AP Biology Nucleic Acids Information storage proteins DNA Nucleic Acids  Function:  genetic material  stores information  genes  blueprint for building.
DNA Introduction. What is DNA? Genetic information of life Type of Nucleic Acid Double Stranded.
Nucleic Acids. Nucleic acids are large biomolecules (polymers) – essential for all known forms of life Include DNA and RNA Made from long strands of nucleotides.
DNA, RNA & Protein Synthesis. A. DNA and the Genetic Code 1. DNA controls the production of proteins by the order of the nucleotides.
AP Biology Nucleic Acids Information storage.
DNA and RNA. Rosalind Franklin Worked with x-ray crystallography Discovered: That DNA had a helical structure with two strands.
DNA and RNA Structure and Function Chapter 12 DNA DEOXYRIBONUCLEIC ACID Section 12-1.
Nucleic Acids. Nucleic Acids Made from long strands of nucleotides (monomers) Nucleic acids are large biomolecules (polymers) – essential for all known.
THE MOLECULE BASIS OF INHERITANCE
DNA DNA (deoxyribonucleic acid) is made of a 5 – carbon sugar (ribose), a nucleotide (ACTG), and a phosphate group (PO4).
DNA DNA (deoxyribonucleic acid) is a double stranded a-helix
Genetics.
10.2 DNA and RNA are polymers of nucleotides
Nucleic Acids Individual unit called a (mono)nucleotide
The Chemical Building Blocks of Life
Analyze the molecular basis of heredity including DNA replication.
The Structure and Function of Large Biological Molecules
Nucleic Acids.
Nucleic Acids Section 3.5.
DNA: The Molecule of Life
DNA Replication & Protein Synthesis
Nucleic Acids The stuff your genes are made of
DNA, RNA & PROTEINS Part 1 The molecules of life.
Journal 5-3: Modeling DNA
Nucleic Acids and Protein Synthesis
Nucleic Acids 1 1.
Nucleic Acids.
Biological Molecules – DNA & RNA
DNA and RNA Structure and Function
DNA & RNA Notes Unit 3.
I. DNA.
UNIT: DNA and RNA How does DNA store and transmit genetic information?
Unit 5: DNA, RNA and Protein Synthesis
Title: Nucleic Acids
Nucleic Acids Store and transfer genetic information
Nucleic Acids.
Modern Genetics.
Proteins and Nucleic Acids
Nucleic acids (DNA & RNA)
LECTURE 3: MICROEVOLUTION PART 1 DNA
Proteins and Nucleic Acids
Presentation transcript:

DNA

Nucleic Acids Informational polymers Made of C,H,O,N and P No general formula Examples: DNA and RNA

DNA Deoxyribonucleic Acid. Makes up genes. Genetic information for life.

RNA Ribonucleic Acid. Structure and protein synthesis. Genetic information for a few viruses only.

Nucleic Acids Polymers of nucleotides Nucleotides have three parts: nitrogenous base pentose sugar phosphate

Nitrogenous Bases Rings of C and N Two types: Pyrimidines (single ring) Purines (double ring)

Four bases in DNA Adenine- A Thymine- T Cytosine- C Guanine- G

Four bases in RNA Adenine- A Uracil- U Cytosine- C Guanine- G

Nitrogenous Bases A & G= purines C & T & U= pyrimidines Each purine binds with a pyrimidine

Nitrogenous Bases Hydrogen bonds differ A&T= 2 bonds C&G= 3 bonds

Complimentary Bases Bases that pair together during building and replication of DNA A is complementary to T G is complementary to C

Pentose Sugar 5-C sugar Ribose - RNA Deoxyribose – DNA RNA and DNA differ in a –OH group on the 2 nd carbon.

Phosphate PO 4 – Overall negative molecule Makes DNA a negative molecule

Sugar-Phosphate Backbone Makes up the outside backbones of DNA and RNA Alternating sugars and phosphates

Complimentary bases If 44% of the DNA is Guanine, what percentage is Cytosine? Adenine? Thymine?

DNA replication Binding of enzymes to existing DNA (DNA polymerase) Unwinding of the double helix Synthesis of a new matching strand for each side of the original DNA End up with 2 identical strands