rate formactivity level rate Reaction rate Enzyme formactivity
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rate form/activity level rate Reaction rate Enzyme form/activity Proteins Enzyme level/ Translation rate form/activity RNAs RNA level/ Transcription rate DNAs
Inside every organism food intake Robust Efficient Evolvable Organs Tissues Cells Molecules
Precursors Inside every cell Catabolism Carriers rs a g Su ds i c A o Amin Nucleotides Fatty aci ds Cofact ors
Biosynthesis s Precursors ar g u S Fatty acid s Massively autocatalytic Co-factors Amino Acid s Nuc leot ides RNA Transc. RNAp Gene x. RNA level/ Transcription rate DNA level
Precursors Catabolism AA Nu cl AA . RNA Transc. Gene x. RNAp
Precursors Catabolism AA Nu cl . AA transl. t. RNA Enzymes Ribosome nc. RNA m. RNA Transc. Gene x. RNAp
Precursors Catabolism AA Nu cl . Autocatalysis everywhere AA transl. Enzymes t. RNA Ribosome RNA transc. x. RNAp
S reactions P Enz 1 reaction 3 t. RNA nc. RNA AA trans. products Enzyme level/ Translation rate Enzymes Enz 2 RNA Transc. Gene Enzyme form/activity Enz 2 m. RNAp x. RNA Reaction rate RNA form/activity RNA level/ Transcription rate Ribosome
reactions All products feedback everywhere These won’t be drawn in detail products reaction 3 trans. Transc. Proteins nc. RNA
S reactions P Enz 1 reaction 3 t. RNA nc. RNA AA trans. products Enzyme level/ Translation rate Enzymes Enz 2 RNA Transc. Gene Enzyme form/activity Enz 2 m. RNAp x. RNA Reaction rate RNA form/activity RNA level/ Transcription rate Ribosome
S reactions P Enz 1 reaction 3 t. RNA nc. RNA AA trans. Reaction rate Enz 2 Enzymes Enzyme form/activity Enzyme level/ Translation rate RNA form/activity m. RNA Transc. Gene RNAp x. RNA level/ Transcription rate Ribosome
S reactions Enz 1 reaction 3 P products Enz 2 Reaction rate Enzyme form/activity Running only the top layers Mature red blood cells live 120 days
Diverse Application Diverse application s and genomes Genome Diverse
Horizontal gene transfer HGT and Shared Protocols Bacteria Eukaryotes Animals Archaea Fungi Plants Algae What is locus of early evolution?
Horizontal gene transfer HGT and Shared Protocols Bacteria Eukaryotes Animals Archaea Gene Fungi Plants Algae DNA level Controlled, dynamic
reactions S HGT and Shared Protocols Bacteria products Reaction P rate Eukaryotes Enz 1 reaction 3 Enz 2 Animals Fungi Plants Archaea AA Ribosome trans. Enzyme level/ Enzymes Translation rate Algae m. RNA t. RNA Transc. RNAp Enzyme form/activity nc. RNA x. RNA Gene RNA form/activity RNA level/ Transcription rate
Precursors Core metabolism Carriers rs a g Su ds i c A o Amin Nucleotides Fatty aci ds Cofact ors
Hu Va ge riet y Precursors Nutrients Taxis and transport Same 12 in all Core metabolism cells rs a g Su cids A o n i m A Nucleotides Catabolism Fatty acid s Cofact ors Carriers Same 8 in all cells 0 0 1 me a ll s s » n a sm i ni a g or
Precursors Core metabolism Catabolism rs a g Su ds i c A o Amin Nucleotides Fatty aci ds Cofact ors Carriers Constraints that deconstrain Protocols
Precursors Core metabolism Carriers rs a g Su ds i c A o Amin Nucleotides Fatty aci ds Cofact ors
Precursors Catabolism Carriers
Gly G 1 P G 6 P F 1 -6 BP Catabolism Gly 3 p 13 BPG ATP 3 PG 2 PG NADH Oxa PEP Pyr ACA TCA Cit
Gly Precursors G 1 P G 6 P metabolites F 6 P F 1 -6 BP Gly 3 p 13 BPG 3 PG 2 PG Oxa PEP Pyr ACA TCA Cit
Gly G 1 P G 6 P Enzymatically catalyzed reactions F 6 P F 1 -6 BP Gly 3 p 13 BPG 3 PG 2 PG Oxa PEP Pyr ACA TCA Cit
Gly Precursors G 1 P G 6 P F 6 P Autocatalytic F 1 -6 BP Gly 3 p Carriers ATP 13 BPG 3 PG 2 PG NADH Oxa PEP Pyr ACA TCA Cit
Gly G 1 P G 6 P Regulatory F 6 P F 1 -6 BP Gly 3 p ATP 13 BPG 3 PG 2 PG NADH Oxa PEP Pyr ACA TCA Cit
Gly G 1 P G 6 P F 1 -6 BP Gly 3 p 13 BPG 3 PG 2 PG Oxa PEP Pyr ACA TCA Cit
If we drew the feedback loops the diagram would be unreadable. Gly G 1 P G 6 P F 1 -6 BP Gly 3 p ATP 13 BPG 3 PG 2 PG Oxa PEP Pyr ACA TCA NADH Cit
Stoichiometry or mass and energy balance Biology is not a graph. Interna l Nutrients Products
Stoichiometry plus regulation Matrix of integers “Simple, ” can be known exactly Amenable to high throughput assays and manipulation Bowtie architecture Vector of (complex? ) functions Difficult to determine and manipulate Effected by stochastics and spatial/mechanical structure Hourglass architecture Can be modeled by optimal controller (? !? )
Gly S G 1 P G 6 P F 1 -6 BP Gly 3 p ATP 13 BPG Stoichiometry matrix 3 PG 2 PG NADH Oxa PEP Pyr ACA TCA Cit
Gly G 1 P G 6 P F 1 -6 BP Gly 3 p Regulation of enzyme levels by transcription/translation/degradation 13 BPG 3 PG 2 PG Oxa PEP level Pyr ACA TCA Cit
Gly G 1 P G 6 P F 1 -6 BP form/activity Gly 3 p ATP 13 BPG Allosteric regulation of enzymes 3 PG 2 PG NADH Oxa PEP Pyr ACA TCA Cit
Gly G 1 P G 6 P F 6 P rate F 1 -6 BP form/activity Gly 3 p level ATP 13 BPG 3 PG 2 PG NADH Oxa PEP Pyr ACA TCA Cit
Gly G 1 P G 6 P Fa st res po F 6 P ns rate e Layered F 1 -6 BP architecture Gly 3 p form/activity level ATP 13 BPG 3 PG 2 PG NADH Slo Oxa PEP Pyr ACA TCA Cit w
rate form/activity level Control of protein levels Reaction rate Enzyme form/activity Proteins Enzyme level/ Translation rate RNAs DNAs
rate form/activity level rate Reaction rate Enzyme form/activity Proteins Enzyme level/ Translation rate form/activity RNAs RNA level/ Transcription rate DNAs
Transcription RNA Transc. RNAp Gene x. RNA level/ Transcription rate DNA level
product RNA level Enz Controlled, dynamic RNA Transc. RNAp Gene x. RNA level/ Transcription rate DNA level
Precursors AA Nu cl . AA t. RNA trans. m. RNA Transc. RNAp Enzyme level/ Enzymes Translation rate Gene x. RNA nc. RNA level/ Transcription rate DNA level
reactions S Enz 1 reaction 3 AA Ribosome trans. rate Enzyme form/activity Enz 2 Enzyme level/ Enzymes Translation rate m. RNA t. RNA Transc. RNAp products Reaction P nc. RNA x. RNA Gene RNA form/activity RNA level/ Transcription rate
What to call the sublayers? Reaction rate Enzyme form/activity rate form/activity level What is where Enzyme level/ Translation rate RNA form/activity RNA level/ Transcription rate
12 Autocatalytic feedback Polymerization and complex assembly 8 Genes Huge Variety gar u S cids a y t t a F Co-factors Amin o Aci ds Nu cle Carriers otid es Precursors Catabolism Core metabolisms DNA replication 100 Trans* Proteins Nutrients Taxis and transport 104 to ∞ in one organisms
es as er ed m rv ly se po on w yc Fe ghl Hi Autocatalytic feedback Huge Variety Trans* Proteins Genes DNA replication Polymerization and complex assembly 104 to ∞ in one organisms
- Reaction rate equation
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- Activity formula
- Equilibrium reaction rate
- Rate law orders
- Overall rate law of a reaction
- How to calculate rate of reaction
- Determine
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- Rate law for first order reaction
- Inital rate
- Factors that affect the rate constant
- The lower the activation energy the faster the reaction
- Overall rate law of a reaction
- What is catalyst and how it affects reaction rate
- How does temperature affect rate of reaction
- Average rate of reaction formula
- How to determine the rate law of a reaction
- Calculating activation energy
- How to write reaction rate
- Reaction rate
- Surface area affecting rate of reaction
- Reaction rate and stoichiometry
- How to calculate excess reactant
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- Gilbert syndrome
- Digestion of carbohydrates
- Protein purification
- Metabolism definition in pharmacology
- Hagar conjugation
- Nitrogenase enzyme complex
- Exergonic and endergonic
- Enzyme ec number
- Nitrogenase enzyme complex
- Tim enzyme
- Enzyme ap bio
- Digestive enzymes
- Metabolism is the sum of
- Enzyme classes
- Factors affecting enzyme activity temperature
- Dhap in glycolysis
- 1918 nobel prize winners
- Dr. manfred doepp