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Catabolism -Decomposition reactions- bonds are broken.
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Catabolic reactions involve breaking bonds.
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Chemical reactions also involve bond breaking and bond forming.
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Catabolic reactions involve breaking bonds.
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Examples of a ChemViz simulation include plotting the energy of a reaction along a reaction coordinate, visualizing the electron density changes during such a reaction, or visualizing the participating electronic orbitals involved in bond-making and -breaking processes.
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Catabolic reactions involve breaking bonds.
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In addition, quantum mechanics methods are required to accurately describe transition states and chemical reactions involving bond breaking and formation.
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Catabolic reactions involve breaking bonds.
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In biochemistry the process of breaking down large molecules (by splitting their internal bonds) is catabolism.
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Catabolic reactions involve breaking bonds.
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Quantum Classical Molecular Dynamics Chemical reactions involving bond formation and breaking are outside the purview of classical molecular dynamics simulations.
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Catabolic reactions involve breaking bonds.
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The carbon-hydrogen bond energy, for example, is less than that of the carbon-deuterium bond energy, so reactions involving the breaking of these bonds will differ in various parameters.
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Catabolic reactions involve breaking bonds.
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The chain scission reaction involves the breaking of one of the oxygen bonds between the glucose units (the building blocks of cellulose).
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Catabolic reactions involve breaking bonds.
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The final step involves a reverse-aldol reaction to break the bond between the alpha and beta carbons.
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Catabolic reactions involve breaking bonds.
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The reaction involves the breaking of two C-Br bonds (one per bromomethane molecule) and of an F-F bond and the making of two C-F bonds and of a Br-Br bond.
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Catabolic reactions involve breaking bonds.
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The total energy for a given reaction may involve the breaking of bonds in the reacting molecules as well as the formation of the new bonds which are present in the product molecules.
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Catabolic reactions involve breaking bonds.
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Therefore during many chemical reactions involving molecules that have Pi bonds and sigma bonds , the Pi bond breaks without disturbing the sigma bond.
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Catabolic reactions involve breaking bonds.
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This can lead to a decrease in the reaction rate if the rate-determining step involves breaking a bond between hydrogen and another atom.
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Catabolic reactions involve breaking bonds.
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This reaction also may not break bonds to the chiral center.
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Catabolic reactions involve breaking bonds.
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A tyrosine kinase puts phosphate on the amino acid tyrosine.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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Composed mainly of hormone-producing chromaffin cells, the adrenal medulla is the principal site of the conversion of the amino acid tyrosine into the catecholamines epinephrine, norepinephrine, and dopamine.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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L- Tyrosine is natural amino acid.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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L-Tyrosine A dietary nonessential amino acid, tyrosine is a component of thyroxin, a hormone secreted by the thyroid gland.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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Neuropeptide Y (NPY) is a 36 amino acid peptide hormone that begins and ends with tyrosine (Y) residues.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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Phenylalanine Tyrosine Tryptophan Proline Next we have 2 amino acids with acidic sidechains, and 2 more with half-acidic and half-aminic sidechains.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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Some of the modifications are quite extensive--thyroid hormone, for example, is a modification of the amino acid tyrosine with iodine molecules added.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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TYROSINE Tyrosine is a non-essential amino acid that is used by the thyroid gland to produce one of the major hormones, Thyroxin.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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The amino acid l-tyrosine is a precursor to the all-important T3 hormone and a precursor to the stimulatory neurotransmitters epinephrine, norepinephrine, and dopamine.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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The amino acids phenylalanine or tyrosine, taken in daily doses of 1500 mg, to boost levels of brain hormones and neurotransmitters (refer to Phenylalanine and Tyrosine-Dosing and Precautions protocol).
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
| 0neutral
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The synthesis of catecholamines (e.g., dopamine, norepinephrine) in the brain also varies with the availability of the precursor amino acid L-tyrosine.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
| 0neutral
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The thyroid gland combines the amino acid tyrosine and iodine to manufacture the thyroid hormone.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
| 0neutral
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Thyroid hormone is produced using phenalaline and tyrosine which are amino acids.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
| 0neutral
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Two tyrosines separated by a single amino acid, typically valine or another tyrosine, form a short intra-molecular diphenylether crosslink.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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Tyr Tyrosine (an amino acid ).
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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Tyrosine A nonessential amino acid used to manufacture adrenal and thyroid hormones, and converted into the skin pigment melanin.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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Tyrosine Crystals Tyrosine, an amino acid, may be the problem.
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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synthesizing carnitine, tyrosine, adrenal hormones, and vasoactive amines;
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Catecholamines are a class of amine hormones that when synthesised form the amino acid tyrosine.
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At the time of cell division a structure known as the phragmoplast appears across the center of the cell.
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Cells in green algae divide along cell plates called phragmoplasts.
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Be able to define cytokinesis, and describe the process as it occurs in plant cells, including the role of the phragmoplast and cell plate.
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Cells in green algae divide along cell plates called phragmoplasts.
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Unlike other charophytes, cell division in the Klebsormidiales occurs through formation of a cleavage furrow, but apparently neither a phragmoplast nor a cell plate is formed.
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Cells in green algae divide along cell plates called phragmoplasts.
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At the micro level, however, inertia is much more feeble at performing these tasks because the mass of micromachines and microcomponents is very small relative to the forces acting on it;
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Centrifuges use inertia to perform their task.
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Both results are achieved through precise use of leverage, inertia, gravity, and the action of centrifugal and centripetal forces.
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Centrifuges use inertia to perform their task.
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By using eggs, boomerangs, bubbles, a bucket of water, beach balls, leaf blowers, whips, and a stack of glassware, they'll demonstrate flight, aerodynamics, friction, the sound barrier, inertia, centrifugal force, and more.
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Centrifuges use inertia to perform their task.
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CONCLUSIONS We observe consistently improved pointing performance with an isometric joystick using a negative inertia transfer function.
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Centrifuges use inertia to perform their task.
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Centrifuges don't increase gravity, the centrifugal force caused by inertia is what causes the effect of 9 g's.
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Centrifuges use inertia to perform their task.
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Conventional computers may remain common because of technological inertia and because they can continue to perform simpler tasks.
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Centrifuges use inertia to perform their task.
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Each section also includes links to suggested classroom activities, most performed using a Slinky, that demonstrate concepts such as inertia, gravity, potential energy, kinetic energy, longitudinal waves, and centrifugal force.
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Centrifuges use inertia to perform their task.
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Electrical inertia simulation, or a combination of electrical and mechanical simulation may be used in lieu of mechanical flywheels, provided that the performance of the electrically simulated inertia complies with the following specifications.
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Centrifuges use inertia to perform their task.
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Look at the mechanics of movement with a little help from author David Macaulay and use both our minds and bodies to learn about incline planes, levers, fulcrum, inertia, centrifugal force, pulleys and friction.
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Centrifuges use inertia to perform their task.
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Performance can compare with conventional actuator systems using expensive low-inertia motors at much lower system cost.
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Centrifuges use inertia to perform their task.
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Performance will be satisfactory if the student can use integral calculus to derive moments of inertia for simple macroscopic objects.
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Centrifuges use inertia to perform their task.
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Stories about shuttle launches, space station dockings and space probe expeditions are filled with data that can be used to illustrate concepts such as inertia, speed, acceleration and centrifugal force.
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Centrifuges use inertia to perform their task.
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The moment of inertia tests were performed in all three primary axes using torsional spring method.
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Centrifuges use inertia to perform their task.
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They do this because they can't overcome the inertia to change their organization to use it, or the tool doesn't adequately perform the required functions.
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Centrifuges use inertia to perform their task.
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Using Moment of Inertia
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Centrifuges use inertia to perform their task.
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inertia balance by using a stroboscope.
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Centrifuges use inertia to perform their task.
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A small protozoan named Trichonympha companula lives in the termite s digestive system and does the job of breaking down the cellulose the termite eats.
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Certain anaerobic parabasalid species exist in the digestive tracts of termites and wood-eating cockroaches, where they contribute an essential step in the digestion of cellulose.
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An example of a symbiotic member of this Division is the protozoans which live in the gut of termites and digest cellulose in the wood the termites eat.
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Certain anaerobic parabasalid species exist in the digestive tracts of termites and wood-eating cockroaches, where they contribute an essential step in the digestion of cellulose.
| 1entails
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Another example is the relation- ship between termites and certain protists that inhabit their digestive tracts and are responsible for the break- down of cellulose into compounds that can be assimilated by their insect hosts.
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Certain anaerobic parabasalid species exist in the digestive tracts of termites and wood-eating cockroaches, where they contribute an essential step in the digestion of cellulose.
| 1entails
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Termites are able to digest wood cellulose because of flagellate protozoans in their gut which in turn contain cellulase-producing bacteria.
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Certain anaerobic parabasalid species exist in the digestive tracts of termites and wood-eating cockroaches, where they contribute an essential step in the digestion of cellulose.
| 1entails
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Though termites consume wood, they are unable to digest it but instead possess one-celled protozoa in their gut that breaks down the wood cellulose into a form that the termite can then consume.
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Certain anaerobic parabasalid species exist in the digestive tracts of termites and wood-eating cockroaches, where they contribute an essential step in the digestion of cellulose.
| 1entails
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A linkage is a relationship between genes that tends to cause the characteristics of these genes to be inherited together.
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Certain characteristics are frequently inherited together because of linkage.
| 1entails
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But there is no causal linkage between these physical and behavioral traits, and therefore it is not justifiable to attribute cultural characteristics to genetic inheritance.
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Certain characteristics are frequently inherited together because of linkage.
| 0neutral
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In fact, one of the most enduring characteristics of online discussions is the frequent use of citations that the linkage of the Web makes possible.
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Certain characteristics are frequently inherited together because of linkage.
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Linkage The tendency for certain genes to be inherited together due to their physical proximity on the chromosome.
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Certain characteristics are frequently inherited together because of linkage.
| 1entails
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Linkage explains why certain characteristics are frequently inherited together.
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Certain characteristics are frequently inherited together because of linkage.
| 1entails
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Managed care organizations inherently possess certain characteristics that facilitate linkages with schools.
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Certain characteristics are frequently inherited together because of linkage.
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Specifically genetic markers termed microsatellites are to be analyzed for their linkage to characteristics such as growth and food metabolism for certain fish species.
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Certain characteristics are frequently inherited together because of linkage.
| 0neutral
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These pragmas are used for defining special linkage characteristics and to associate these linkage characteristics with functions.
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Certain characteristics are frequently inherited together because of linkage.
| 0neutral
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These projects are used again when studying crossing over, gene linkage, segregation and independent assortment of alleles in the gametes and studying certain human inheritance patterns.
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Certain characteristics are frequently inherited together because of linkage.
| 0neutral
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linkage analysis of inherited arthropathies;
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Certain characteristics are frequently inherited together because of linkage.
| 0neutral
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Impulse Momentum
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Change in momentum in an object is equivalent to impulse .
| 0neutral
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Impulse is also described as the change in momentum.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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Impulse is change in momentum due to collision.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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Impulse is equal to momentum change.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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Impulse is the change in momentum.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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Since impulse equals a change in momentum and since the two objects have equal and opposite impulses, they must also have equal and opposite changes in momentum.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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The change in the momentum is given by the impulse .
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Change in momentum in an object is equivalent to impulse .
| 1entails
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The equation is known as the impulse-momentum change equation .
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Change in momentum in an object is equivalent to impulse .
| 0neutral
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The impulse experienced by an object is always equal to the change in its momentum.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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The impulse is equal to the amount of momentum change.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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The momentum of an object is changed by giving it an impulse .
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Change in momentum in an object is equivalent to impulse .
| 1entails
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Types of wave-energy-momentum impulses and other quantities-to measure 1.
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Change in momentum in an object is equivalent to impulse .
| 0neutral
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that is, the impulse is always equal to the momentum change.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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the impulse causes (and is equal to) the change in momentum.
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Change in momentum in an object is equivalent to impulse .
| 1entails
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Calculate elastic potential elastic potential energy.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Calculate elastic potential energy.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Calculate the elastic potential energy.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Common types of potential energy are elastic, gravitational, chemical, electrical and nuclear.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Definition of Spring Potential Energy (Elastic Potential Energy)
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Elastic Potential Energy Calculator
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Elastic Potential Energy is stored energy that comes from deforming an object that will resume its previous shape.
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Changing the shape of an elastic material gives it potential energy.
| 1entails
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Elastic energy is sometimes called elastic potential energy because it can be recovered when the object returns to its original shape;
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Changing the shape of an elastic material gives it potential energy.
| 1entails
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Elastic energy is the total potential and kinetic energy in a system.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Elastic potential energy is the energy stored in elastic materials as the result of their stretching or compressing.
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Changing the shape of an elastic material gives it potential energy.
| 1entails
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Introduction to Elastic Potential Energy with Examples
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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Other examples of Elastic Potential Energy are
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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The longer the distance pushed, the greater the Elastic Potential Energy the material has.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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The potential energy of a body by virtue of it's configuration ( shape) is called it's elastic potential energy.
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Changing the shape of an elastic material gives it potential energy.
| 1entails
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Then we are to calculate the elastic potential energy.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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There are two types of potential energies, gravitational and elastic.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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e.g., chemical, elastic, gravitational, and nuclear are all types of potential energy.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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where Ue is the elastic potential energy.
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Changing the shape of an elastic material gives it potential energy.
| 0neutral
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A new element in this report is a chapter on biogeochemical cycles.
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Chemical elements and water are recycled through the biogeochemical cycle.
| 0neutral
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BioGeoChemical Cycles.
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Chemical elements and water are recycled through the biogeochemical cycle.
| 0neutral
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