2) Create a chart contrasting oxidation reduction reactions
3) Compare and contrast the electron transport system location and function in a prokaryotic cell and a eukaryotic cell
3)
In eukaryotes the electron transport chain (ETC) is situated in the mitochondiral membrane. Prokaryotes do not have organelles such as mitochondria, but they do have an ETC.
A membrane is required for the ETC to work, otherwise it would not be possible to build a gradient of hydrogen atoms. The only membrane in prokaryotes is the cellular membrane, that is where the ETC is located.So in procaryotes electron transport chain is located in cellular membrane.
An electron transport chain (ETC) is a series of complexes that transfer electrons from electron donors to electron acceptors via redox (both reduction and oxidation occurring simultaneously) reactions, and couples this electron transfer with the transfer of protons (H+ ions) across a membrane. This creates an electrochemical proton gradient that drives the synthesis of adenosine triphosphate (ATP), a molecule that stores energy chemically in the form of highly strained bonds. The molecules of the chain include peptides, enzymes (which are proteins or protein complexes), and others. The final acceptor of electrons in the electron transport chain during aerobic respiration is molecular oxygen although a variety of acceptors other than oxygen such as sulfate exist in anaerobic respiration.
Electron transport chains are used for extracting energy via redox reactions from sunlight in photosynthesis or, such as in the case of the oxidation of sugars, cellular respiration. In eukaryotes, an important electron transport chain is found in the inner mitochondrial membrane where it serves as the site of oxidative phosphorylation through the use of ATP synthase. It is also found in the thylakoid membrane of the chloroplast in photosynthetic eukaryotes. In bacteria, the electron transport chain is located in their cell membrane.
2) Create a chart contrasting oxidation reduction reactions 3) Compare and contrast the electron transport system...
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TICI CU. 3. Compare and contrast types of membrane transport including transport proteins. 4. Distinguish between exergonic/endergonic, anabolic/catabolic reduction/oxidation reactions.
Compare and contrast the light reactions of Photosynthesis to electron transport chain and chemiosmosis of Cellular Respiration.
1. In the electron transport chain of mitochondria, the overall oxidation/reduction reaction is: NADH+H* + 1202 NAD + H2O In chloroplasts, what is the overall oxidation reduction that occurs in the light reactions? 2. In one sentence, explain how the very energetically-unfavorable reaction you have written takes place. IIIB. (8 pts) In chloroplasts, 3 phosphoglycerate is primarily produced in the following pathway. Identify any missing factors, and name all the enzymes. 0 0PO32- CH,OPO,2- CO + CO2 HOH HC OH...
Compare and contrast electron transport and ATP synthesis in mitochondria and chloroplasts. Start with the electron donor and end with the final electron acceptor. Detail the arrangement in the membrane and redox chemistry of the electron transporters, orientation and function of ATP synthase, membrane properties, etc., etc. How are these electron transport systems related to metabolic processes occurring in the mitochondria and chloroplasts?
03/viewContent/39478147/View Unit Activity 8: Oxidation-Reduction in Batteries In Chapter 8 we learn about oxidation-reduction reactions. This type of reaction is very prevalent in our everyday life, usually in the form of batteries. There are currently many different types of batteries. Their sizes and the materials they are made of vary depending on what they are being used for and how much energy is being supplied. In this activity, you will contrast and compare two different types of batteries that are...
1. Compare and contrast Prokaryotes and Eukaryotes. 2. How can prokaryotic cells be smaller than eukaryotic cells and still carry on all the essential functions of life. 3. Compare and contrast Archea and Bacteria.
Balance the following oxidation-reduction reactions using the half-reaction method. 1. HCOOH (aq) + MnO.. (aq) → CO2 (g) + Mn2. Acidie solution Identify the reduction half Identify the oxidation half Basic solution Identify the reduction half Identify the oxidation half Write a balanced equation for the electrode and overall cell reactions in the following galvanic cell and determine E°. Sketch the cell, labeling the anode and cathode and showing the direction of electron and ion flow. 2. 3. Circle the...
ELEC 450, Sewlying Flectrochemical Half-Cat and Har Reactions Data Sheet 1 1. Oxidation-Reduction Reactions A. The Zn-Cu System experimental observations: Rod Turned black, no flakes 8. The Pb-Cu System experimental observations: Rod tumed black, with flaces C. The Zn-Pb System experimental observations: Rad turned black & Spiney II. Electrochemical Cells A. The Zn-Cu Electrochemical Cell B. The Fe-Cu Electrochemical Cell cell voltage: cell voltage: Data Sheet 2 1. Oxidation-Reduction Reactions A. The Zn-Cu System oxidation hall-equation Z & roduction half-equation...
Data Sheet1 I. Oxidation-Reduction Reactions A. The Zn-Cu System Copber tuiting black + pieces cam experimental observations: bubblk fed +arnad same B. The A-Cu system experimental observations: les floaking claud C. The Zn-Pb System Il. Electrochemical Cells A. The Zn-Cu Electrochemical Cell B. The Fe-Cu Electrochemical Cell all otage:402 dv cell voltage: Data Sheet 2 I. Oxidation-Reduction Reactions A. The Zn-Cu System oxidation half-equationS フプ reduction half-equation Caiad the net equation st Cuz not prediction of spontaneity; comparison of predicted...
a) Explain how electron transfer takes place between the complexes in oxidation-reduction reactions related to inner-sphere and outer-sphere mechanisms, respectively. b) You are told that the oxidation-reduction reaction between [Co(NH3)6]^3+ and Ru(NH3)6^2+ takes place via outer sphere electron transfer and the rate constant is 1.1 x 10^–2. However, if instead of Ru(NH3)6^2+, [Cr(bipy)3]^2+ is the reductant then rate constant is much higher, 6.9 x 10^2. Explain the reason.