Ch2
... • Energy substrate for prolonged, less intense exercise – High net ATP yield but slow ATP production – Must be broken down into free fatty acids (FFAs) and glycerol – Only FFAs are used to make ATP ...
... • Energy substrate for prolonged, less intense exercise – High net ATP yield but slow ATP production – Must be broken down into free fatty acids (FFAs) and glycerol – Only FFAs are used to make ATP ...
Plants - Troy City Schools
... Plants grow throughout their lifetimes. Plants grow as long as they live. This is true for plants that live for only one season, such as sunflowers, and for plants that can live for many years, such as trees. Plants grow bigger when cells at the tips of their roots and stems divide and multiply more ...
... Plants grow throughout their lifetimes. Plants grow as long as they live. This is true for plants that live for only one season, such as sunflowers, and for plants that can live for many years, such as trees. Plants grow bigger when cells at the tips of their roots and stems divide and multiply more ...
House Plants 2013 - UF/IFAS Extension Polk County
... through while retaining sufficient moisture so that re-watering is not required in a few hours. ...
... through while retaining sufficient moisture so that re-watering is not required in a few hours. ...
module
... (i) Breathing or pulmonary ventilation leading to exchange of oxygen and carbon dioxide between the atmospheric air and the lungs. (ii) Exchange of gases at the alveolar surface. (iii) Transport and exchange of gases in the tissues. (iv) Cellular respiration. 14.2.1 Breathing or pulmonary ventilatio ...
... (i) Breathing or pulmonary ventilation leading to exchange of oxygen and carbon dioxide between the atmospheric air and the lungs. (ii) Exchange of gases at the alveolar surface. (iii) Transport and exchange of gases in the tissues. (iv) Cellular respiration. 14.2.1 Breathing or pulmonary ventilatio ...
29_DetailLectOut
... plants, which strongly suggests that they are the closest relatives of plants. 1. The plasma membranes of land plants and charophytes possess rosette-shaped cellulosesynthesizing complexes that synthesize the cellulose microfibrils of the cell wall. ...
... plants, which strongly suggests that they are the closest relatives of plants. 1. The plasma membranes of land plants and charophytes possess rosette-shaped cellulosesynthesizing complexes that synthesize the cellulose microfibrils of the cell wall. ...
CHAPTER 29
... plants, which strongly suggests that they are the closest relatives of plants. 1. The plasma membranes of land plants and charophytes possess rosette-shaped cellulosesynthesizing complexes that synthesize the cellulose microfibrils of the cell wall. ...
... plants, which strongly suggests that they are the closest relatives of plants. 1. The plasma membranes of land plants and charophytes possess rosette-shaped cellulosesynthesizing complexes that synthesize the cellulose microfibrils of the cell wall. ...
Carbohydrates
... Takes up to 24 hours to be totally digested. Each bond between the monos must be broken. Made up of 3 to 4000 monos so there is not one common chemical formula. ...
... Takes up to 24 hours to be totally digested. Each bond between the monos must be broken. Made up of 3 to 4000 monos so there is not one common chemical formula. ...
Chapter 9 Cellular Respiration: Harvesting Chemical
... 23) The free energy for the oxidation of glucose to CO 2 and water is -686 kcal/mole and the free energy for the reduction of NAD + to NADH is +53 kcal/mole. Why are only two molecules of NADH formed during glycolysis when it appears that as many as a dozen could be formed? A) Most of the free ene ...
... 23) The free energy for the oxidation of glucose to CO 2 and water is -686 kcal/mole and the free energy for the reduction of NAD + to NADH is +53 kcal/mole. Why are only two molecules of NADH formed during glycolysis when it appears that as many as a dozen could be formed? A) Most of the free ene ...
Environmental Microbiology Learning Questions
... 5. What are the limitations of fermentation? Fermenting organisms need to release electrons from the oxidative branch of substrate utilization (catabolism) on a redox potential that allows for the reaction. Thus, hydrogen partial pressures play an important role for many types of fermentation. E.g. ...
... 5. What are the limitations of fermentation? Fermenting organisms need to release electrons from the oxidative branch of substrate utilization (catabolism) on a redox potential that allows for the reaction. Thus, hydrogen partial pressures play an important role for many types of fermentation. E.g. ...
KCSE ONLINE REVISION Biology Notes Form 2
... they grow in dry conditions root grow very deep to absorb water succulent/fleshy leaves to store water few stomata which are sunken thickened waxy cuticle leaves are hairy and often folding some leaves are needle-like/spines or scales leaf surfaces are reduced i.e. small leaves all these adaptations ...
... they grow in dry conditions root grow very deep to absorb water succulent/fleshy leaves to store water few stomata which are sunken thickened waxy cuticle leaves are hairy and often folding some leaves are needle-like/spines or scales leaf surfaces are reduced i.e. small leaves all these adaptations ...
Biology Form 2
... they grow in dry conditions root grow very deep to absorb water succulent/fleshy leaves to store water few stomata which are sunken thickened waxy cuticle leaves are hairy and often folding some leaves are needle-like/spines or scales leaf surfaces are reduced i.e. small leaves all these adaptations ...
... they grow in dry conditions root grow very deep to absorb water succulent/fleshy leaves to store water few stomata which are sunken thickened waxy cuticle leaves are hairy and often folding some leaves are needle-like/spines or scales leaf surfaces are reduced i.e. small leaves all these adaptations ...
02a_U7B_Plants_p092-120
... Plants can move water from the soil up to their leaves. Animals move fluids around their bodies by the pumping action of their hearts. This experiment can help you understand how plants move fluids. Put enough water in each beaker so that they are both about one-third full. Mix several drops of food ...
... Plants can move water from the soil up to their leaves. Animals move fluids around their bodies by the pumping action of their hearts. This experiment can help you understand how plants move fluids. Put enough water in each beaker so that they are both about one-third full. Mix several drops of food ...
OXIDATIVE PHOSPHORYLATION AND PHOTOPHOSPHORYLATION
... the reduction of Fe3 to Fe2; (2) transfer as a hydrogen atom (H e); and (3) transfer as a hydride ion (:H), which bears two electrons. The term reducing equivalent is used to designate a single electron equivalent transferred in an oxidation-reduction reaction. In addition to NAD and flavopro ...
... the reduction of Fe3 to Fe2; (2) transfer as a hydrogen atom (H e); and (3) transfer as a hydride ion (:H), which bears two electrons. The term reducing equivalent is used to designate a single electron equivalent transferred in an oxidation-reduction reaction. In addition to NAD and flavopro ...
Document
... frequently decomposed into lumps of a dark green colour. This destruction of the normal structure of these algae was especially obvious when they were placed in strong solutions of manganese. The majority of red algae change to a red-violet colour when dead. This and the white colour of the swollen ...
... frequently decomposed into lumps of a dark green colour. This destruction of the normal structure of these algae was especially obvious when they were placed in strong solutions of manganese. The majority of red algae change to a red-violet colour when dead. This and the white colour of the swollen ...
Chem101 - Lecture 5 Introduction Introduction
... - In most cases one of the reactants will be used up before the others - This reactant is called the limiting reactant because it determines how much product can be made. - When the limiting reactant is used up the reaction comes to a stop. ...
... - In most cases one of the reactants will be used up before the others - This reactant is called the limiting reactant because it determines how much product can be made. - When the limiting reactant is used up the reaction comes to a stop. ...
PROTISTS
... movement expansion and contractions of entire cell Nutrition/Bitrophic – can capture food; can absorb nutrients from water or carry on photosynthesis Reproduction – mitosis; form cyst during harsh times Example: euglena; volvox ...
... movement expansion and contractions of entire cell Nutrition/Bitrophic – can capture food; can absorb nutrients from water or carry on photosynthesis Reproduction – mitosis; form cyst during harsh times Example: euglena; volvox ...
pdf link - Aaron Diefendorf
... McKellar et al., 2011). Resin from living trees infested by insects is enriched in 13C, as is fossil amber, which has led to the suggestion that the 13C enrichment is a result of water stress (McKellar et al., 2011). Other mechanisms such as carbon flux changes between biosynthetic pathways could als ...
... McKellar et al., 2011). Resin from living trees infested by insects is enriched in 13C, as is fossil amber, which has led to the suggestion that the 13C enrichment is a result of water stress (McKellar et al., 2011). Other mechanisms such as carbon flux changes between biosynthetic pathways could als ...
Cellular Respiration
... • Build the molecular model of cellular respiration reactants and products to demonstrate the conservation of matter (atoms) in the process. The models may also be used to demonstrate photosynthesis reactants and products. • Create a model of a mitochondrion and use the model to compare and contrast ...
... • Build the molecular model of cellular respiration reactants and products to demonstrate the conservation of matter (atoms) in the process. The models may also be used to demonstrate photosynthesis reactants and products. • Create a model of a mitochondrion and use the model to compare and contrast ...
Chapter 1
... • The anaerobic oxidation of glucose to give two molecules of pyruvate • Glucose + 2 ADP + 2 Pi + 2 NAD+ 2 pyruvate + 2 ATP + 2 NADH + 2 H+ + 2 H2O – Pyruvate used in follow-up reactions to sustain glycolysis – NADH must be reoxidized so that glycolysis can continue ...
... • The anaerobic oxidation of glucose to give two molecules of pyruvate • Glucose + 2 ADP + 2 Pi + 2 NAD+ 2 pyruvate + 2 ATP + 2 NADH + 2 H+ + 2 H2O – Pyruvate used in follow-up reactions to sustain glycolysis – NADH must be reoxidized so that glycolysis can continue ...
Answers - U of L Class Index
... Digestion breaks down the large molecules in food into smaller compounds that can be absorbed by the body. Hydrolysis is the main reaction involved in the digestion of carbohydrates. The _-amylase is produced by the salivary glands to begin the hydrolysis of the _-glycosidic bonds in the polysacchar ...
... Digestion breaks down the large molecules in food into smaller compounds that can be absorbed by the body. Hydrolysis is the main reaction involved in the digestion of carbohydrates. The _-amylase is produced by the salivary glands to begin the hydrolysis of the _-glycosidic bonds in the polysacchar ...
Chapter 11 Respiratory System
... Epiglottis (epiglott/o) A flap of tissue that is connected to the cartilage around the larynx. This flap covers the opening into the trachea when we are eating or drinking. It prevents food from entering the lungs and instead it is directed down into the esophagus. Lungs (pneum/o, pneumon/o, pul ...
... Epiglottis (epiglott/o) A flap of tissue that is connected to the cartilage around the larynx. This flap covers the opening into the trachea when we are eating or drinking. It prevents food from entering the lungs and instead it is directed down into the esophagus. Lungs (pneum/o, pneumon/o, pul ...
2. Molecular Biology – 2.8 Cell Respiration Name: Understandings
... used as a fuel in vehicles, sometimes in a pure state and sometimes mixed with gasoline (petrol). Describe how bioethanol can be produced from plant material with reference to the function of yeast in the process. ...
... used as a fuel in vehicles, sometimes in a pure state and sometimes mixed with gasoline (petrol). Describe how bioethanol can be produced from plant material with reference to the function of yeast in the process. ...
Bioenergetics
... Fats enter at Krebs cycle and pass to ETC Fats produce much higher amounts of ATP per mol. than glycogen ...
... Fats enter at Krebs cycle and pass to ETC Fats produce much higher amounts of ATP per mol. than glycogen ...
Structure and Properties of Hemoglobin Learning Objectives What
... The only exception to this are two histidine residues termed as proximal histidine (F8) and distal histidine (E7) They play indispensible role in heme pocket and function in oxygen binding Hemoglobin molecule can bind four O2 molecules (one per heme) Hb exhibits cooperative binding kinetics i.e. if ...
... The only exception to this are two histidine residues termed as proximal histidine (F8) and distal histidine (E7) They play indispensible role in heme pocket and function in oxygen binding Hemoglobin molecule can bind four O2 molecules (one per heme) Hb exhibits cooperative binding kinetics i.e. if ...
Ventilation workshop pre-reading
... The total amount of diffusion that occurs accross the membranes is proportional to the size of the surface through which it can diffuse, or the surface area for gas exchange. The more gas that can come in to contact with the blood, the more gas will be able to move into and out of the blood. As disc ...
... The total amount of diffusion that occurs accross the membranes is proportional to the size of the surface through which it can diffuse, or the surface area for gas exchange. The more gas that can come in to contact with the blood, the more gas will be able to move into and out of the blood. As disc ...
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.