CSU BMS 300 - RNA Structure, Transcription, and Editing (7 pages)
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RNA Structure, Transcription, and Editing
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Includes the structure of RNA, transcription, and RNA editing.
- Lecture number:
- 9
- Pages:
- 7
- Type:
- Lecture Note
- School:
- Colorado State University- Fort Collins
- Course:
- Bms 300 - Principles of Human Physiology
- Edition:
- 1
Documents in this Packet
-
11 pages
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Lecture 37: Inflammation and Interferon as Innate/nonspecific Immunity
5 pages
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Lecture 36: Lymphoid Organs and their Function
4 pages
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Lecture 35: Erythrocyte Origin, Composition and Fate
5 pages
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Lecture 34: From Arteriolar Smooth Muscle to Components of Blood
4 pages
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Lecture 33: Sympathetic Innervation of Contractile Cardiomyocytes to the Vasculature
4 pages
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Lecture 32: Autonomic Innervation of the Heart
5 pages
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Lecture 31: EC Coupling in Contractile Cardiomyocytes to Autonomic Innervation
5 pages
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Lecture 30: Conductile and Contractile Cardiomyocytes
5 pages
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Lecture 29: Starling's Law to the Coronary Circulation
4 pages
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Lecture 28: The Cardiac Cycle to Starling's Law of the Heart
3 pages
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Lecture 27: Excitation Contraction Coupling and the Sliding Filament Theory
6 pages
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16 pages
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Lecture 26: Descending Pathways to the Muscle Fiber
5 pages
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Lecture 25: Brown Sequard and Ascending Pathways
4 pages
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Lecture 24: Reciprocal Inhibition to Ascending Pathways
6 pages
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Lecture 23: Inhibition and Its Role in Synaptic Integration to the Reflex Arc
6 pages
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Lecture 22: Synaptic Transmission to Synaptic Integration
5 pages
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Lecture 21: Generator Potential to Synapse Structure
6 pages
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Lecture 20: Action Potential Propagation
5 pages
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Lecture 19: Action Potential Generation
5 pages
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Lecture 18: Gliat to the Membrane Potential
6 pages
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Lecture 17: The Neuron Doctrine
5 pages
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Lecture 16: Hormone Receptors and the Hypothalamic Pituitary Axis
5 pages
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26 pages
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Lecture 15: Endocrine Hormones and Receptors
7 pages
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Lecture 14: Bone Structure, Growth, and Remodeling
6 pages
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Lecture 13: Connective Tissue and Skin
6 pages
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Lecture 12: Cell Junctions, Glandular Epithelia, and Connective Tissue
6 pages
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Lecture 7: The Actin Cytoskeleton and Myosin, to DNA Function and Structure
5 pages
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Lecture 6: Mitochondria, the Cytoskeleton, and Vesicle Transport
6 pages
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Lecture 5: Organelles of the Eukaryotic Cell and Protein Trafficking
5 pages
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Lecture 11: Protein Synthesis on RER to Epithelial Tissues
6 pages
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Lecture 4: Amino Acid R Groups and Protein Structure to Eukaryotic Cells
7 pages
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Lecture 10: Using RNA in Protein Translation
5 pages
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Lecture 3: Phospholipids to Protein Secondary Structure
7 pages
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Lecture 8: DNA Replication to RNA Structure
6 pages
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Lecture 2: Ion Solubility, Diffusion, Osmosis, Hydrophilicity, and Hydrophobicity
7 pages
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Lecture 1: Components of water and ion solubility
4 pages
Unformatted text preview:
BMS 300 1st Edition Lecture 9 Outline of Last Lecture I Phospholipid orientation in water micelle liposome planar bilayer II Lipid mosaic model of biological membrane transmembrane proteins III Proteins as amino acid polymers amino acid structure 1 amine 2 carboxylic acid 3 R group peptide bond formation IV Protein primary structure amino acid sequence V Protein secondary structure hydrogen bonding alpha helix beta sheet These notes represent a detailed interpretation of the professor s lecture GradeBuddy is best used as a supplement to your own notes not as a substitute Outline of Current Lecture I RNA and its transcription from DNA RNA types 1 mRNA 2 tRNA 3 rRNA 4 regulatory RNA structure 1 5 carbon sugars ribose 2 phosphodiester bonds 3 bases purines adenine guanine pyrimidines cytosine uracil II RNA polymerase and transcription initiation III Promoter where you start TATA box IV Transcription factor DNA binding protein to promoter recruitment of RNA polymerase V Transcription of RNA from DNA read DNA 3 to 5 generate RNA 5 to 3 VI RNA editing cut out introns leave extrons edit RNA in nucleus VII RNA to cytoplasm leave exons translation RNA s working together Current Lecture RNA structure the structure is important because the 3 can link to the 5 carbon etc you can link the two structures and they form a phosphodiester bond in the middle you can then repeat this pattern over and over just like DNA all of the 1 can have one of four bases attached adenine guanine cytosol and uracil all of the 2 carbons will be a hydroxyl because of the ribose the uracil and the thymine are related structures thymine is found in DNA and uracil is found in RNA which allows for more flexibility in the structure the only difference is uracil has an H and thymine has a H3C adenine pairs with thymine in DNA and pairs with uracil in RNA because of the hydroxyl at the bottom of this structure we are not required to make another strand for the RNA to bind to RNA is a single stranded molecule
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