Topic 7 - FSU Biology
... 3. Be able to define equilibrium constant and how this relates to degree of spontaneity of a given reaction. 4. Understand the process by which an endergonic reaction is coupled to a highly exergonic reaction and the role of ATP in biological systems. 5. Understand the principle of mass action. 6. D ...
... 3. Be able to define equilibrium constant and how this relates to degree of spontaneity of a given reaction. 4. Understand the process by which an endergonic reaction is coupled to a highly exergonic reaction and the role of ATP in biological systems. 5. Understand the principle of mass action. 6. D ...
PP Cellular Energy
... chemical bonds of the organic molecule that is broken down. • Cellular respiration involves many different reactions, each controlled by its own enzyme. • Cellular respiration usually uses glucose however fats (fatty acids and glycerol) and amino acids can also be used. ...
... chemical bonds of the organic molecule that is broken down. • Cellular respiration involves many different reactions, each controlled by its own enzyme. • Cellular respiration usually uses glucose however fats (fatty acids and glycerol) and amino acids can also be used. ...
Oxygen Metabolism and Oxygen Toxicity
... Hypoxia- deficiency of oxygen. Hypoxic injury-injury caused by a deficiency of oxygen. Acute hypoxic tissue injury has been extensively studied. The occlusion of a major coronary artery produces an array of biochemical and physiological complications. When a tissue is deprived of oxygen, the mitocho ...
... Hypoxia- deficiency of oxygen. Hypoxic injury-injury caused by a deficiency of oxygen. Acute hypoxic tissue injury has been extensively studied. The occlusion of a major coronary artery produces an array of biochemical and physiological complications. When a tissue is deprived of oxygen, the mitocho ...
Chapter_06_4E
... Pulmonary Diffusion (continued) Key Points • Oxygen diffusion rate increases as you move from rest to exercise • Exercising muscle requires more oxygen for metabolism; when venous oxygen is depleted, oxygen exchange at the alveoli is facilitated due to an increased pressure gradient • The pressure ...
... Pulmonary Diffusion (continued) Key Points • Oxygen diffusion rate increases as you move from rest to exercise • Exercising muscle requires more oxygen for metabolism; when venous oxygen is depleted, oxygen exchange at the alveoli is facilitated due to an increased pressure gradient • The pressure ...
Pulmonary System_Lecture II - Medical
... called the bronchi. Each bronchus then divides again forming the bronchial tubes. The bronchial tubes lead directly into the lungs where they divide into many smaller tubes, which connect to tiny sacs, called alveoli. The average adult's lungs contain about 600 million of these spongy, air-filled sa ...
... called the bronchi. Each bronchus then divides again forming the bronchial tubes. The bronchial tubes lead directly into the lungs where they divide into many smaller tubes, which connect to tiny sacs, called alveoli. The average adult's lungs contain about 600 million of these spongy, air-filled sa ...
Characteristics of organisms 08
... The life of multicellular plants or animals starts from a single cell. Tissues which are modified to perform a specific function arise by the division of the above single cell, zygote. The zygote which is the result of the sexual reproduction of human develops into an embryo within the uterus and la ...
... The life of multicellular plants or animals starts from a single cell. Tissues which are modified to perform a specific function arise by the division of the above single cell, zygote. The zygote which is the result of the sexual reproduction of human develops into an embryo within the uterus and la ...
Next Question
... A sodium-potassium pump within a cell membrane requires energy to move a sodium and potassium ions into or out of a cell. The movement of glucose into or out of a cell does not require energy. Which statement BEST describes the movement of these materials across a cell membrane? • A. Sodium and pot ...
... A sodium-potassium pump within a cell membrane requires energy to move a sodium and potassium ions into or out of a cell. The movement of glucose into or out of a cell does not require energy. Which statement BEST describes the movement of these materials across a cell membrane? • A. Sodium and pot ...
Cellular respiration
... The reducing potential of NADH and FADH2 is converted to more ATP through an electron transport chain with oxygen as the "terminal electron acceptor". Most of the ATP produced by aerobic cellular respiration is made by oxidative phosphorylation. This works by the energy released in the consumption o ...
... The reducing potential of NADH and FADH2 is converted to more ATP through an electron transport chain with oxygen as the "terminal electron acceptor". Most of the ATP produced by aerobic cellular respiration is made by oxidative phosphorylation. This works by the energy released in the consumption o ...
Chapter 7
... Fig.7-5) 6 carbon glucose to two 3 carbon to 2 pyruvate molecules. One glucose molecules yields 2 pyruvate molecules. A small energy yield as the body uses a little energy for this process that yields only a little more than the body spent producing the energy.Pyruvate can be converted again to gluc ...
... Fig.7-5) 6 carbon glucose to two 3 carbon to 2 pyruvate molecules. One glucose molecules yields 2 pyruvate molecules. A small energy yield as the body uses a little energy for this process that yields only a little more than the body spent producing the energy.Pyruvate can be converted again to gluc ...
Dissolved Oxygen AP Lab Write-up Guidelines For
... The enriched concentrations of N and P stimulate a) algal blooms, leading to b) explosions in bacterial populations, followed by c) decreases in populations of larger aquatic plants and fishes. Explain this 3-part sequence of events . . . why does each event occur? Although there are negative conseq ...
... The enriched concentrations of N and P stimulate a) algal blooms, leading to b) explosions in bacterial populations, followed by c) decreases in populations of larger aquatic plants and fishes. Explain this 3-part sequence of events . . . why does each event occur? Although there are negative conseq ...
Detailed Objectives
... Know how to name linkages and residues in oligosaccharides. Know the structures of glyceraldehyde, ribose, xylose, ribulose, glucose, mannose, galactose and fructose. ...
... Know how to name linkages and residues in oligosaccharides. Know the structures of glyceraldehyde, ribose, xylose, ribulose, glucose, mannose, galactose and fructose. ...
Amino Acid Biosynthesis Student Companion Ch 24 Self Test
... 10) The branchpoint for aromatic amino acid biosynthesis is chorismate. What is the structure of chorismate? What are the three immediate products derived from chorismate that constitute the first unique steps in the synthesis of the three aromatic amino acids? 11) From where are the two carbons of ...
... 10) The branchpoint for aromatic amino acid biosynthesis is chorismate. What is the structure of chorismate? What are the three immediate products derived from chorismate that constitute the first unique steps in the synthesis of the three aromatic amino acids? 11) From where are the two carbons of ...
02 Schurr.indd
... different in their spatial and temporal organization. The most common C3 photosynthesis is located in all cells of the palisade and spongy parenchyma of the plants expressing this form of photosynthesis. In contrast, plants running CAM photosynthesis are characterized by the defined temporal sequenc ...
... different in their spatial and temporal organization. The most common C3 photosynthesis is located in all cells of the palisade and spongy parenchyma of the plants expressing this form of photosynthesis. In contrast, plants running CAM photosynthesis are characterized by the defined temporal sequenc ...
Workshop3Cellsans
... Both substrate-level phosphorylation and oxidative phosphorylation result in the formation of ATP by the addition of an inorganic phosphate to a molecule of ADP. Both reactions are catalyzed by enzymes that couple the formation of ATP to an exergonic reaction that provides the energy for the synthes ...
... Both substrate-level phosphorylation and oxidative phosphorylation result in the formation of ATP by the addition of an inorganic phosphate to a molecule of ADP. Both reactions are catalyzed by enzymes that couple the formation of ATP to an exergonic reaction that provides the energy for the synthes ...
Many people today are hooked on “fat free” or
... Both substrate-level phosphorylation and oxidative phosphorylation result in the formation of ATP by the addition of an inorganic phosphate to a molecule of ADP. Both reactions are catalyzed by enzymes that couple the formation of ATP to an exergonic reaction that provides the energy for the synthes ...
... Both substrate-level phosphorylation and oxidative phosphorylation result in the formation of ATP by the addition of an inorganic phosphate to a molecule of ADP. Both reactions are catalyzed by enzymes that couple the formation of ATP to an exergonic reaction that provides the energy for the synthes ...
CHAPTER XX
... Energy transfer through the trophic levels is very inefficient. Most of the energy an organism gains through consumption of food is dissipated as heat. 2. How have human activities altered the material cycling of nitrogen? What is meant when nitrogen is referred to as a limiting factor? The nitrogen ...
... Energy transfer through the trophic levels is very inefficient. Most of the energy an organism gains through consumption of food is dissipated as heat. 2. How have human activities altered the material cycling of nitrogen? What is meant when nitrogen is referred to as a limiting factor? The nitrogen ...
File
... • Nitrogen fixation is the natural process, either biological or abiotic, by which nitrogen (N2) in the atmosphere is converted into ammonia. This process is essential for life because fixed nitrogen is required to biosynthesize the basic building blocks of life, e.g. DNA and proteins. ...
... • Nitrogen fixation is the natural process, either biological or abiotic, by which nitrogen (N2) in the atmosphere is converted into ammonia. This process is essential for life because fixed nitrogen is required to biosynthesize the basic building blocks of life, e.g. DNA and proteins. ...
1 Chapter 3: Chemistry of Water Polar covalent bonds within water
... -Always around a C = C bond -A cis isomer has the same atoms attached to double-bonded carbons on the same side of the double bond (see figure 4.7 in the book) -A trans isomer has these atoms on opposite sides of the double bond. Enantiomers are isomers that are mirror images of each other around an ...
... -Always around a C = C bond -A cis isomer has the same atoms attached to double-bonded carbons on the same side of the double bond (see figure 4.7 in the book) -A trans isomer has these atoms on opposite sides of the double bond. Enantiomers are isomers that are mirror images of each other around an ...
MS Word Version - Interactive Physiology
... -4578. (1) Newly generated bicarbonate is added to the plasma, increasing the pH of blood and adding new buffering power to the plasma. (2) Hydrogen ion is secreted into the filtrate, attaches to buffers, and is eliminated from the body. 79. Right side of page from top to bottom: Plasma, interstiti ...
... -4578. (1) Newly generated bicarbonate is added to the plasma, increasing the pH of blood and adding new buffering power to the plasma. (2) Hydrogen ion is secreted into the filtrate, attaches to buffers, and is eliminated from the body. 79. Right side of page from top to bottom: Plasma, interstiti ...
Exam 1 with Key
... At pH 7.65, log[H+] = -7.65, so [H+] = 10-7.65 = 2.24x10-8 M At pH 6.87, log[H+] = -6.87, so [H+] = 10-6.87 = 1.35x10-7 M The difference in [H+] is 1.35x10-7 M - 2.24x10-8 M = 1.13x10-7 M. Since the reaction is quantitative, the same amount of acetylcholine is initially present. (0.015L)(1.13x10-7 M ...
... At pH 7.65, log[H+] = -7.65, so [H+] = 10-7.65 = 2.24x10-8 M At pH 6.87, log[H+] = -6.87, so [H+] = 10-6.87 = 1.35x10-7 M The difference in [H+] is 1.35x10-7 M - 2.24x10-8 M = 1.13x10-7 M. Since the reaction is quantitative, the same amount of acetylcholine is initially present. (0.015L)(1.13x10-7 M ...
choose the correct answer
... vegetation because they…. a. act as food source for organisms b. can live in enfavourable places c. can live in the dry place d. can change the environment so an other organism can live e. are small plants that have chlorophyll ...
... vegetation because they…. a. act as food source for organisms b. can live in enfavourable places c. can live in the dry place d. can change the environment so an other organism can live e. are small plants that have chlorophyll ...
Cellular Respirationx
... several smaller biochemical pathways: glycolysis fermentation aerobic respiration Glycolysis evolved very early in the Earth’s history. There was no free oxygen in the atmosphere, so the first organisms (bacteria) all used glycolysis to produce ATP. It took more than one billion years for bacter ...
... several smaller biochemical pathways: glycolysis fermentation aerobic respiration Glycolysis evolved very early in the Earth’s history. There was no free oxygen in the atmosphere, so the first organisms (bacteria) all used glycolysis to produce ATP. It took more than one billion years for bacter ...
CO 2 - cloudfront.net
... don’t keep burning energy unless we need to. • However, some mitochondria have a protein in the inner membrane that lets H+ ions move freely back across the membrane. These are called “Uncoupling proteins” because they decouple the production of ATP from the rest of the electron transport chain. Why ...
... don’t keep burning energy unless we need to. • However, some mitochondria have a protein in the inner membrane that lets H+ ions move freely back across the membrane. These are called “Uncoupling proteins” because they decouple the production of ATP from the rest of the electron transport chain. Why ...
Photosynthesis
Photosynthesis is a process used by plants and other organisms to convert light energy, normally from the Sun, into chemical energy that can be later released to fuel the organisms' activities. This chemical energy is stored in carbohydrate molecules, such as sugars, which are synthesized from carbon dioxide and water – hence the name photosynthesis, from the Greek φῶς, phōs, ""light"", and σύνθεσις, synthesis, ""putting together"". In most cases, oxygen is also released as a waste product. Most plants, most algae, and cyanobacteria perform photosynthesis; such organisms are called photoautotrophs. Photosynthesis maintains atmospheric oxygen levels and supplies all of the organic compounds and most of the energy necessary for life on Earth.Although photosynthesis is performed differently by different species, the process always begins when energy from light is absorbed by proteins called reaction centres that contain green chlorophyll pigments. In plants, these proteins are held inside organelles called chloroplasts, which are most abundant in leaf cells, while in bacteria they are embedded in the plasma membrane. In these light-dependent reactions, some energy is used to strip electrons from suitable substances, such as water, producing oxygen gas. Furthermore, two further compounds are generated: reduced nicotinamide adenine dinucleotide phosphate (NADPH) and adenosine triphosphate (ATP), the ""energy currency"" of cells.In plants, algae and cyanobacteria, sugars are produced by a subsequent sequence of light-independent reactions called the Calvin cycle, but some bacteria use different mechanisms, such as the reverse Krebs cycle. In the Calvin cycle, atmospheric carbon dioxide is incorporated into already existing organic carbon compounds, such as ribulose bisphosphate (RuBP). Using the ATP and NADPH produced by the light-dependent reactions, the resulting compounds are then reduced and removed to form further carbohydrates, such as glucose.The first photosynthetic organisms probably evolved early in the evolutionary history of life and most likely used reducing agents, such as hydrogen or hydrogen sulfide, as sources of electrons, rather than water. Cyanobacteria appeared later; the excess oxygen they produced contributed to the oxygen catastrophe, which rendered the evolution of complex life possible. Today, the average rate of energy capture by photosynthesis globally is approximately 130 terawatts, which is about three times the current power consumption of human civilization.Photosynthetic organisms also convert around 100–115 thousand million metric tonnes of carbon into biomass per year.