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Step 1: Hexokinase
Step 1: Hexokinase

... • Homework due Monday, Feb. 26: Problem 9-5 – Convert all concentrations to M, and your answer will be in M. – Don’t worry about [H+] – use equations as given in problem. – Determine [glucose] at equilibrium (ΔG’ = 0); then a concentration greater than this will favor production of G6P. ...
Classification of Living Things Worksheet
Classification of Living Things Worksheet

... A green plant grows towards the sunlight grow and develop The average American female lives 74 years obtain and use resourses A caterpillar eats the leaves of a plant obtain and use resourses A plant’s root absorb water from the soil obtain and use resourses A hummingbird drinks nectar from flowers ...
fermentation & evolution
fermentation & evolution

... ATP without the help of oxygen • Oxidation refers to the loss of electrons to any electron acceptor, not just to oxygen. • Glycolysis generates 2 ATP whether oxygen is present (aerobic) or not (anaerobic). • Under aerobic conditions, NADH transfers its electrons to the electron transfer chain, recyc ...
Week 5 – Day 2
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Air Pollution  - San Jose State University
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... • BURNING COAL RELEASES AIR POLLUTANTS LIKE NITROGEN DIOXIDE (FOUND IN SMOG), SULFUR DIOXIDE (FORMS ACID RAIN), AND CARBON DIOXIDE WHICH CONTRIBUTES TO GLOBAL WARMING AS WELL AS TOXIC MERCURY WHICH ENTERS OUR DIET THROUGH THE FISH WE EAT AND HAS BEEN LINKED TO BRAIN DAMAGE IN CHILDREN AND FETUSES • ...
Outdoor Flower Garden
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... Fill two of the empty planters with water. Place them next to each other in the sun (either on a windowsill or outside). Enclose the first planter in an included germination bag, and make sure it’s sealed. Leave the second planter open. Leave the planters in the sun for about an hour. Then, remove t ...
mechanism of photosynthesis
mechanism of photosynthesis

... called light reaction. In this reaction light energy is utilized and formation of ATP and reducing power (NADPH + H+) takes place. This NADPH + H+ is the reduced part of redox system NADP+/NADPH. The electrons required for the conversion of NADP+ into NADPH comes from water. Thus, in this process wa ...
Redox Reactions - hrsbstaff.ednet.ns.ca
Redox Reactions - hrsbstaff.ednet.ns.ca

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... animal cells. A very similar pathway also operates in plants, fungi, and many bacteria. As we shall see, the oxidation of fatty acids is equally important for cells. other molecules, such as proteins, can also serve as energy sourceswhen they are funneled through appropriate enzymatic pathways. ...
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book ppt

... • 6.1 ATP, Reduced Coenzymes, and Chemiosmosis Play Important Roles in Biological Energy Metabolism • 6.2 Carbohydrate Catabolism in the Presence of Oxygen Releases a Large Amount of Energy • 6.3 Carbohydrate Catabolism in the Absence of Oxygen Releases a Small Amount of Energy ...
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... electron tower and include NAD+, NADP+, and FAD. o During various steps of glucose oxidation, NAD+, NADP+, and FAD are reduced to NADH, NADPH, and FADH2. o The energy stored in electron carriers is stored to be harnessed later in the form of ATP that serves as an energy currency in living cell ...
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...  Liberated hydrogen transferred by coenzymes  Nicotinamide adenine dinucleotide (NAD)  Flavin adenine dinucleotide (FAD)  Glucose is oxidized  Reduction – addition of electrons  Increase in potential energy  3 Mechanisms of ATP generation 1. ______________________________  Transferring high- ...
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... • 6.1 ATP, Reduced Coenzymes, and Chemiosmosis Play Important Roles in Biological Energy Metabolism • 6.2 Carbohydrate Catabolism in the Presence of Oxygen Releases a Large Amount of Energy • 6.3 Carbohydrate Catabolism in the Absence of Oxygen Releases a Small Amount of Energy ...
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... 2. Haeomoglobin is red pigment found in red blood cells (erythrocytes). 3. Haemoglobin in the red blood cell combine with oxygen and it becomes oxyhaemoglobin. 4. blood acts as an efficient medium of transport of oxygen due to assistance from haemoglobin. 5. Haeomoglobin is an important carrier of o ...
Chapter 6 Cellular Energy
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... • 6.1 ATP, Reduced Coenzymes, and Chemiosmosis Play Important Roles in Biological Energy Metabolism • 6.2 Carbohydrate Catabolism in the Presence of Oxygen Releases a Large Amount of Energy • 6.3 Carbohydrate Catabolism in the Absence of Oxygen Releases a Small Amount of Energy ...
WEEK 8 - WordPress.com
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... Without oxygen, the electron transport chain would cease to function!! Death results if oxygen is not present because the body would not be able to produce/generate ATP ...
Available
Available

The Respiratory System
The Respiratory System

... Minute ventilation is the volume of air you breathe in one minute. (VE) You can calculate a person’s minute ventilation by multiplying the volume of air they breathe in one breath, by their respiratory (breathing) rate. VE = TV x f If you breathe 14 times in one minute (respiratory rate) and you bre ...
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... turn, oxidized and reduced as electrons are passed down the chain. • Energy released can be used to produce ATP by chemiosmosis. ...
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Use of mitochondrial electron transport mutants
Use of mitochondrial electron transport mutants

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The Amazing Respiratory System

... Functions of the System The main function of the respiratory system is rather simple in concept: to bring in oxygen from the atmosphere and get rid of carbon dioxide from the blood.You breathe in oxygen rich air and you breathe out carbon dioxide rich air. When you breathe in the oxygen rich air, i ...
Atomic Emission Spectra, Electron Configuration, Periodicity
Atomic Emission Spectra, Electron Configuration, Periodicity

... are able to “jump” to higher energy levels in the atom. We call this an electron’s excited state. The excited state is, however, unstable and the electron soon falls back to its original, lower energy position in the atom, we call this its ground state. As it travels back towards its ground state it ...
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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.
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