RESPIRATION Worksheet

Similar documents
Objective: You will be able to construct an explanation for how each phase of respiration captures and stores free energy.

Name Class Date. 1. Cellular respiration is the process by which the of "food"

Respiration. Respiration. How Cells Harvest Energy. Chapter 7

Respiration. Respiration. Respiration. How Cells Harvest Energy. Chapter 7

Ch 9: Cellular Respiration

Chemical Energy. Valencia College

Harvesting energy: photosynthesis & cellular respiration

Bio 111 Study Guide Chapter 7 Cellular Respiration & Fermentation

4. Which step shows a split of one molecule into two smaller molecules? a. 2. d. 5

How Cells Harvest Energy. Chapter 7. Respiration

MULTIPLE CHOICE. Choose the one alternative that best completes the statement or answers the question.

3. Distinguish between aerobic and anaerobic in terms of cell respiration. Outline the general process of both.

BIOLOGY - CLUTCH CH.9 - RESPIRATION.

Chapter Seven (Cellular Respiration)

Chapter 7 Cellular Respiration and Fermentation*

Ch. 9 Cell Respiration. Title: Oct 15 3:24 PM (1 of 53)

Biology Kevin Dees. Chapter 9 Harvesting Chemical Energy: Cellular Respiration

Cellular Respiration and Fermentation

Cellular Pathways That Harvest Chemical Energy. Cellular Pathways That Harvest Chemical Energy. Cellular Pathways In General

Section B: The Process of Cellular Respiration

3.7.1 Define cell respiration [Cell respiration is the controlled release of energy from organic compounds in cells to form ATP]

Chapter 9: Cellular Respiration

CELLULAR RESPIRATION. Chapter 7

Cellular Respiration: Harvesting Chemical Energy CHAPTER 9

Cell Respiration Ch 7. Both autotrophs and heterotrophs use cellular respiration to make CO2 and water from

Chapter 9 Notes. Cellular Respiration and Fermentation

Cellular Respiration Checkup Quiz. 1. Of the following products, which is produced by both anaerobic respiration and aerobic respiration in humans?

Chapter 9 Cellular Respiration Overview: Life Is Work Living cells require energy from outside sources

Cellular Respiration. Overview of Cellular Respiration. Lecture 8 Fall Overview of Cellular Respiration. Overview of Cellular Respiration

III. 6. Test. Respiració cel lular

Chapter 9: Cellular Respiration: Harvesting Chemical Energy

Aerobic vs Anaerobic Respiration. 1. Glycolysis 2. Oxidation of Pyruvate and Krebs Cycle

Harvesting energy: photosynthesis & cellular respiration part 1I

How Did Energy-Releasing Pathways Evolve? (cont d.)

Structure of the Mitochondrion. Cell Respiration. Cellular Respiration. Catabolic Pathways. Photosynthesis vs. Cell Respiration ATP 10/14/2014

2

Releasing Chemical Energy

Cell Respiration - 1

1 Which pathway for aerobic cellular respiration is located in the cytoplasm of the cell?

7 Pathways That Harvest Chemical Energy

Cellular Respiration. Cellular Respiration. C 6 H 12 O 6 + 6O > 6CO 2 + 6H energy. Heat + ATP. You need to know this!

3.2 Aerobic Respiration

Cellular Metabolism. Biol 105 Lecture 6 Read Chapter 3 (pages 63 69)

Cellular Respiration and Fermentation

Cellular Respiration Harvesting Chemical Energy ATP

9.2 The Process of Cellular Respiration

Energy Flow. Chapter 7. Cellular Respiration: Overview. Cellular Respiration. Cellular Respiration. Cellular Respiration occurs in three stages

Cellular Metabolism 6/20/2015. Metabolism. Summary of Cellular Respiration. Consists of all the chemical reactions that take place in a cell!

Chapter 9: Cellular Respiration

CH 9 CELLULAR RESPIRATION. 9-1 Chemical Pathways 9-2 The Krebs Cycle and Electron Transport

Cellular Respiration

How Cells Release Chemical Energy Cellular Respiration

BIO 311C Spring Lecture 27 Monday 5 Apr. 1

Lesson Overview. Cellular Respiration: An Overview. 9.2 process of cell respiration

10/25/2010 CHAPTER 9 CELLULAR RESPIRATION. Life is Work. Types of cellular respiration. Catabolic pathways = oxidizing fuels

Cellular Metabolism 9/24/2013. Metabolism. Cellular Metabolism. Consists of all the chemical reactions that take place in a cell!

AP Bio Photosynthesis & Respiration

Cellular Metabolism. Biology 105 Lecture 6 Chapter 3 (pages 56-61)

Cellular Respiration. Biochemistry Part II 4/28/2014 1

Introduction. Living is work. To perform their many tasks, cells must bring in energy from outside sources.

How Cells Release Chemical Energy. Chapter 7

CELLULAR RESPIRATION REVIEW MULTIPLE CHOICE. Circle ALL that are TRUE. There may be MORE THAN one correct answer. 1. is the first step in cellular res

Lesson Overview. Cellular Respiration: An Overview. Lesson Overview. 9.1 Cellular Respiration: An Overview

Cellular Respiration. Objectives

How Cells Harvest Chemical Energy

2/4/17. Cellular Metabolism. Metabolism. Cellular Metabolism. Consists of all of the chemical reactions that take place in a cell.

How Cells Harvest Chemical Energy. Chapter 9

Chapter 7: How Cells Harvest Energy AP

Cellular Respiration. How is energy in organic matter released for used for in living systems?

Cellular Respiration Part V: Oxidative Phosphorylation

Section 9 2 The Krebs Cycle and Electron Transport (pages )

WHY IS THIS IMPORTANT?

Concept 9.1: Catabolic pathways yield energy by oxidizing organic fuels Several processes are central to cellular respiration and related pathways

MULTIPLE CHOICE QUESTIONS

7 Cellular Respiration and Fermentation

9-1 Chemical Pathways

Cellular Respiration

Table of Contents. Section 1 Glycolysis and Fermentation. Section 2 Aerobic Respiration

Cellular Respiration. Chapter 9

Cellular Respiration. How our body makes ATP, ENERGY!!

Cellular Respiration: Harvesting Chemical Energy

Cellular Respiration- -conversion of stored energy in glucose to usable energy for the cell -energy in cells is stored in the form of ATP

Chapter 7 How Cells Release Chemical Energy

Cellular Respiration

What is Glycolysis? Breaking down glucose: glyco lysis (splitting sugar)

CELLULAR RESPIRATION: AEROBIC HARVESTING OF CELLULAR ENERGY Pearson Education, Inc.

AP BIOLOGY Chapter 7 Cellular Respiration =

Chapter 6 : How Cells Harvest Energy (B) Dr. Chris Doumen 10/28/14 CITRIC ACID CYCLE. Acetyl CoA CoA CoA CO 2 NAD + FADH 2 NADH FAD + 3 H + ADP + ATP

Chapter 9. Cellular Respiration and Fermentation

Chapter 9. Cellular Respiration: Harvesting Chemical Energy

Living organisms obtain energy by breaking down organic molecules during cellular respiration.

Cellular Respiration: Harvesting Chemical Energy

Cellular Respiration Harvesting Chemical Energy ATP

Cellular Respiration: Harvesting Chemical Energy

Cellular Respiration

Citric Acid Cycle and Oxidative Phosphorylation

What s the point? The point is to make ATP! ATP

CELLULAR RESPIRATION. Xe - + Y X + Ye - CH 4 + 2O 2 CO 2 + H 2 O + energy. C 6 H 12 O 6 + 6O 2 6CO 2 + 6H 2 O + energy SUMMARY EQUATION

Biology. Slide 1 of 39. End Show. Copyright Pearson Prentice Hall

Cellular respiration and fermentation 04/18/2016 BI102

Transcription:

A.P. Bio L.C. RESPIRATION Worksheet 1. In the conversion of glucose and oxygen to carbon dioxide and water a) which molecule becomes reduced? b) which molecule becomes oxidized? c) what happens to the energy that is released in this redox reaction? 2. NAD + is called an It s reduced form is 3. Fill in the three stages of respiration. Indicate whether ATP is produced by substrate-level phosphorylation or oxidative phosphorylation. Label the arrows indicating electrons carried by NADH.

4. Fill in the blanks in this summary diagram of glycolysis. 5. Fill in the blanks in this summary diagram of the citric acid cycle.

6. Label this diagram of oxidative phosphorylation in a mitochondrial membrane. 7. Fill in the table below to summarize the major inputs and outputs of respiration.

8. A substrate that is phosphorylated a. has lost a phosphate group b. has been formed by the reaction ADP + Pi ATP c. has an increased reactivity; it is primed to do work d. has been oxidized e. will pass its electrons to the electron transport chain 9. Which of the following is not true of oxidative phosphorylation? a. it produces approx. three ATP for every NADH oxidized b. it involves the redox reactions of the electron transport chain c. it involves an ATP synthase located in the inner mitochondrial membrane d. it uses oxygen as the initial electron donor e. it is an example of chemiosmosis 10. Substrate-level phosphorylation a. involves the shifting of a phosphate group from ATP to a substrate b. can use NADH or FADH2 c. takes place only in the cytosol d. accounts for 10% of the ATP formed by fermentation e. is the energy source for facultative anaerobes under anaerobic conditions 11. The major reason that glycolysis is not as energy productive as respiration is a. NAD+ is regenerated by alcohol or lactate production, without the high energy electrons passing through the electron transport chain b. it is the pathway common to fermentation and respiration c. it does not take place in a specialized membrane bound organelles d. pyruvate is more reduced than CO2 it still contains much of the energy from glucose e. substrate-level phosphorylation is not as energy efficient as oxidative phosphorylation 12. When pyruvate is converted to acetyl CoA, a. CO 2 and ATP are released b. a multienzyme complex removes a carboxyl group, transfers electrons to NAD + and attaches a coenzyme c. one turn of the citric acid cycle is completed d. NAD + is regenerated so that glycolysis can continue to produce ATP by substrate-level phosphorylation e. pyruvate is activated and glycolysis continues 13. How many molecules of CO2 are generated for each molecule of acetyl CoA introduced in to the citric acid cycle? a. 1 c. 3 e. 6 b. 2 d. 4

14. In the chemiosmotic mechanism a. ATP production is linked to the proton gradient established by the electron transport chain b. the difference in ph between the intermembrane space and the cytosol drives the formation of ATP c. the flow of H+ through ATP synthase from the matrix to the intermembrane space drives the phosphorylation of ATP d. the energy released by the reduction and oxidation of components of the electron transport chain is transferred as a phosphate to ADP e. the production of water in the matrix by the reduction of oxygen leads to a net flow of water out of a mitochondrion 15. When glucose is oxidized to CO 2 and water, approx. 40% of its energy is transferred to a. heat b. ATP c. acetyl CoA d. water e. the citric acid cycle 16. List the order of the following compounds as you first encounter them during cellular respiration. 1. pyruvate 2. CO 2 3. glucose 4. acetyl CoA 5. H 2 O 17. Fats and proteins can be used as fuel in the cell because they a. can be converted to glucose by enzymes b. can be converted to intermediates of glycolysis or the citric acid cycle c. can pass through the mitochondrial membrane to enter the citric acid cycle e. contain more energy than glucose 18. Why is glycolysis considered one of the first metabolic pathways to have evolved? a. it relies on fermentation, which is characteristic of bacteria b. it is found only in prokaryotes, whereas eukaryotes use their mitochondria to produce ATP c. it produces much less ATP than oxidative phosphorylation d. it relies totally on enzymes that are produced by free ribosomes, and bacteria have only free ribosomes and no bound ribosomes e. it is nearly universal, is located in he cytosol and does not involve O2

19. The oxidation of a molecule of FADH2 yields less ATP than molecule of NADH because FADH2 a. carries fewer electrons b. is formed in the cytosol and energy is lost when it shuttles its electrons across the mitochondrial membrane c. passes its electrons to a transport molecule later in the chain and at a lower energy level d. is the last molecule produced by the citric acid cycle, and little energy is left to be captured e. has a much lower energy conformation that NADH 20. What is the role of oxygen in cellular respiration? a. it is reduced in glycolysis as glucose is oxidized b. it provides electrons to the electron transport chain c. it provides the activation energy needed for the oxidation to occur d. it is the final electron acceptor for the electron chain e. it combines with the carbon removed during the citric acid cycle to form CO 2