Chapter 10 Opener. Figure 10.1 Metabolic Diseases and Enzymes.

Slides:



Advertisements
Similar presentations
Chapter 17~ From Gene to Protein
Advertisements

RNA (Ribonucleic Acid) and Transcription Chapter 10.
Review: The flow of genetic information in the cell is DNA  RNA  protein  The sequence of codons in DNA spells out the primary structure of a polypeptide.
Chapter 4 Transcription and Translation. The Central Dogma.
Gene Expression Overview
Chapter 22 (Part 2) Protein Synthesis. Ribosomes.
CHAPTER 10 Molecular Biology of the Gene
How Are Genes Expressed? Chapter11. DNA codes for proteins, many of which are enzymes. Proteins (enzymes) can be used to make all the other molecules.
Transcription: Synthesizing RNA from DNA
FROM GENE TO PROTEIN: TRANSCRIPTION & RNA PROCESSING Chapter 17.
In-Text Art, Ch. 9, p In-Text Art, Ch. 3, p. 37.
google. com/search
Transcription Transcription is the synthesis of mRNA from a section of DNA. Transcription of a gene starts from a region of DNA known as the promoter.
Copyright © John Wiley & Sons, Inc. All rights reserved.  When DNA is transcribed, the result is an RNA molecule.  RNA is then translated into a sequence.
Biology 1060 Chapter 17 From Gene to Protein. Genetic Information Important: Fig Describe how genes control phenotype –E.g., explain dwarfism in.
Gene Expression and Control
Gene Expression and Gene Regulation. The Link between Genes and Proteins At the beginning of the 20 th century, Garrod proposed: – Genetic disorders such.
How DNA is used in Heredity Reading the Book of Life, or Gene Expression.
RNA and Protein Synthesis
1 Genes and How They Work Chapter Outline Cells Use RNA to Make Protein Gene Expression Genetic Code Transcription Translation Spliced Genes – Introns.
Chapter 17 From Gene to Protein
Do Now: On the “Modeling DNA” handout, determine the complimentary DNA sequence and the mRNA sequence by using the sequence given.
Figure 17.0 Ribosome. Figure 17.1 Beadle and Tatum’s evidence for the one gene-one enzyme hypothesis.
DNA to Protein – 12 Part one AP Biology. What is a Gene? A gene is a sequence of DNA that contains the information or the code for a protein or an RNA.
Transcription & Translation Transcription DNA is used to make a single strand of RNA that is complementary to the DNA base pairs. The enzyme used is.
12-3 RNA and Protein Synthesis
Chapter 17: From Gene to Protein Objectives 1. To understand the central dogma 2.To understand the process of transcription 3.To understand the purpose.
Figure 17.0 Ribosome. DNA and protein DNA codes for your traits So you are different from other people because your DNA is different DNA works by creating.
What is central dogma? From DNA to Protein
Genes and How They Work Chapter The Nature of Genes information flows in one direction: DNA (gene)RNAprotein TranscriptionTranslation.
Chapter 17 – From Gene to Protein 1909 – Garrod : First to suggest that genes dictate phenotypes through enzymes that catalyze specific chemical processes.
Genes and How They Work Computer Filename: genes1.ppt
Chapter 17.1 & 17.2 Process from Gene to Protein.
Protein synthesis Translation.
DNA Structure. The Flow of Genetic Information from DNA to RNA to Protein –DNA functions as the inherited directions for a cell or organism. Copyright.
RNA, Transcription, and the Genetic Code. RNA = ribonucleic acid -Nucleic acid similar to DNA but with several differences DNARNA Number of strands21.
Question of the DAY Jan 14 During DNA Replication, a template strand is also known as a During DNA Replication, a template strand is also known as a A.
The Ribosome –Is part of the cellular machinery for translation, polypeptide synthesis Figure 17.1.
12-3 RNA and Protein Synthesis Page 300. A. Introduction 1. Chromosomes are a threadlike structure of nucleic acids and protein found in the nucleus of.
Figure 17.2 Overview: the roles of transcription and translation in the flow of genetic information (Layer 5)
Protein Synthesis. One Gene – One Enzyme Protein Synthesis.
From Gene to Protein: Transcription & RNA Processing
From DNA to Protein - Gene Expression: RNA and Protein
The Ribosome Is part of the cellular machinery for translation, polypeptide synthesis Figure 17.1.
Chapter 15: RNA Ribonucleic Acid.
Gene Expression: From Gene to Protein
Gene Expression: from DNA to protein
RNA and Protein Synthesis
Protein Synthesis Ch 17.
RNA and Protein Synthesis
Protein Synthesis Genetics.
Protein Synthesis.
Protein Synthesis in Detail
DNA Test Review.
Chapter 14~ From Gene to Protein
From Gene to Protein: Transcription & RNA Processing
Gene Expression: From Gene to Protein
Chapter 17 Hon. Adv. Biology Notes 12/01/06
Genes and How They Work Chapter 15
Chapter 17 From gene to protein.
Gene Expression: From Gene to Protein
RNA and Protein Synthesis
CHAPTER 10 Molecular Biology of the Gene
CHAPTER 17 FROM GENE TO PROTEIN.
Pre – AP Biology Protein Synthesis.
Chapter 10 – The Gene and Protein Synthesis
Lecture #7 Date _________
Protein Synthesis.
Chapter 15: RNA Ribonucleic Acid.
Protein Synthesis.
Presentation transcript:

Chapter 10 Opener

Figure 10.1 Metabolic Diseases and Enzymes

Figure 10.1 Metabolic Diseases and Enzymes (Part 1)

Figure 10.1 Metabolic Diseases and Enzymes (Part 2)

Apply the Concept, Ch. 10, p. 189

Figure 10.2 Gene Mutations and Amino Acid Changes

Figure 10.3 From Gene to Protein

Figure 10.4 RNA Polymerase

Figure 10.5 DNA Is Transcribed to Form RNA

Figure 10.5 DNA Is Transcribed to Form RNA (Part 1)

Figure 10.5 DNA Is Transcribed to Form RNA (Part 2)

Figure 10.5 DNA Is Transcribed to Form RNA (Part 3)

Figure 10.5 DNA Is Transcribed to Form RNA (Part 4)

Figure 10.6 Transcription of a Eukaryotic Gene

Figure 10.6 Transcription of a Eukaryotic Gene (Part 1)

Figure 10.6 Transcription of a Eukaryotic Gene (Part 2)

Table 10.1 Differences between Prokaryotic and Eukaryotic Gene Expression

Figure 10.7 Nucleic Acid Hybridization

Figure 10.8 Demonstrating the Existence of Introns

Figure 10.9 The Spliceosome: An RNA Splicing Machine

In-Text Art, Ch. 10, p. 195

Figure Deciphering the Genetic Code

Figure Deciphering the Genetic Code (Part 1)

Figure Deciphering the Genetic Code (Part 2)

Figure The Genetic Code

Figure Mutations

Figure Mutations (Part 1)

Figure Mutations (Part 2)

Figure Mutations (Part 3)

Figure Mutations (Part 4)

Figure Transfer RNA

In-Text Art, Ch. 10, p. 200

Figure Ribosome Structure

Figure The Initiation of Translation

Figure The Initiation of Translation (Part 1)

Figure The Initiation of Translation (Part 2)

Figure The Elongation of Translation

Figure The Elongation of Translation (Part 1)

Figure The Elongation of Translation (Part 2)

Figure The Termination of Translation

Figure The Termination of Translation (Part 1)

Figure The Termination of Translation (Part 2)

Table 10.2 Signals that Start and Stop Transcription and Translation

Figure A Polysome

Figure A Polysome (Part 1)

Figure A Polysome (Part 2)

Figure Destinations for Newly Translated Polypeptides in a Eukaryotic Cell

Figure Destinations for Newly Translated Polypeptides in a Eukaryotic Cell (Part 1)

Figure Destinations for Newly Translated Polypeptides in a Eukaryotic Cell (Part 2)

Figure Testing the Signal

Figure Posttranslational Modifications of Proteins

Figure An Antibiotic at the Ribosome