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Anions are larger in size than their parent atoms because they have one or more additional electrons, but without an additional proton in the nucleus to help moderate the size.
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Electrons always result in an anion that is larger than the parent atom.
| 1entails
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Cations and anions just subtract or add electrons to the neutral atoms configuration (see the quiz in this lesson).
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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Covalent bond The force that holds (binds together) atoms that are not cations and anions, instead they share electrons to each obtain an octet.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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D H 0 f (anion,g) For most atoms, the repulsion of the electronic cloud for an incoming electron is large enough that the electron affinity is positive or, if negative, is not sufficiently large to ensure a stable isolated anion.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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High charge and large size of the anion The polarizability of an anion is related to the deformability of its electron cloud ( i.e. its " softness ") 3.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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It essentially means that the same electron is likely to do anything at all resulting in a large degree of uncertainty in the sub-atomic world.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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Metals are on the left side of table Non-metals- elements whose atoms gain electrons and become anions.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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Negative bromide ions (anions) move to the anode and loose an electron to make chlorine atoms.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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No indication was found of sandwich-type bonds between the delocalized electrons and the metal (as are seen in ferrocene, for example), but the anion can form metal complexes with a large variety of bonding patterns, involving from only one to all five of its oxygen atoms.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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Nonmetal atoms gain electrons to form negative ions, called anions , which are larger than the original atom.
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Electrons always result in an anion that is larger than the parent atom.
| 1entails
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Nonmetal atoms steal electrons making negative ions (anions).
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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Outer shell filled by transferring electrons from one to another so that resulting positive (cations) and negative (anions) atoms have spherically symmetrical electron distributions.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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Owing to the disintegration of atoms always resulting in protons and electrons, the theory was established that the atoms were composed of protons and electrons.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
Size, Electron Affinity, Ionization Potential, Metal or Nonmetal, Tendency to become Cation or Anion, Atomic Number, Atomic Mass, and Electron Configuration 2.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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The activation of slow anion currents resulting in a large anion efflux induced a loss of turgor.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
The atom that lost an electron is a(n): a) isotope b) cation c) anion d) isoelectronic e) neutral 34.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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The interior of the toroid is hydrophobic as a result of the electron rich environment provided in large part by the glycosidic oxygen atoms.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
The lone pair of electrons on the anion then moves to the neighboring atom, thus expelling the leaving group and forming double or triple bond.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
These are limited to indicating the atomic skeleton of the melanogen, the presence of a cation (anion ) centre and of an unpaired electron, that is, to indicating a radical-polaronic system.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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These are man and woman in human beings, male and female in animals, stamen and pistil in plants, cation and anion in minerals, and protons and electrons in atoms.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
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Understanding mechanisms of electron ejection from atomic and molecular anions and small neutral molecules.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
Variation of the anion largely influences the extractions resulting from the different anion lipophilicities.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
When a silver ion receives an electron from an anion during cooling of a saturated solution, the ion becomes a silver atom.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
With isostructural tin, the yet larger atoms and interatomic spacings result in such a large concentration of mobile electrons that metallic behavior obtains.
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Electrons always result in an anion that is larger than the parent atom.
| 0neutral
|
All matter is composed of all four elements but, where one element predominates, then a substance can be said to be solid, or liquid, etc.
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Elements are pure substances that make up all matter.
| 0neutral
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All matter that we know of consists of these basic elements that are arranged into different types of larger communities (compound molecules and pure molecules).
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Elements are pure substances that make up all matter.
| 0neutral
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All the matter in the universe is composed of basic substances called elements .
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Elements are pure substances that make up all matter.
| 1entails
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At the subtlest conceivable level this basis is cosmic substance, an extended purely spiritual quality called suddhasattva, the subliminal matter that makes up the subtle vestures of Mahatmas.
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Elements are pure substances that make up all matter.
| 0neutral
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Classify samples of matter as pure substances , homogeneous mixtures , heterogeneous mixtures , compounds , and elements .
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Elements are pure substances that make up all matter.
| 0neutral
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Compounds and Mixtures All of matter can be classified as either mixtures or pure substances.
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Elements are pure substances that make up all matter.
| 0neutral
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E. Terms to learn: matter, states of matter, physical change, chemical change, homogeneous mixture (solution), heterogeneous mixture, pure substance, element, atom, compound, molecule.
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Elements are pure substances that make up all matter.
| 0neutral
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Formula weight of a substance (ionic compound) is the sum of the atomic weight of all elements participated in making a formula unit of the substance.
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Elements are pure substances that make up all matter.
| 0neutral
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Grain — protein Protein is the substance that makes up all living matter.
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Elements are pure substances that make up all matter.
| 0neutral
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Handout or put on the board a list of terms: matter, states, materials, heterogeneous, homogeneous, solids, liquids, gases, solutions, pure substances, element, atoms, and compounds.
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Elements are pure substances that make up all matter.
| 0neutral
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He suggested that all matter was made up of one substance and that the four elements (air, earth, fire, water) are just different forms of that substance.
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Elements are pure substances that make up all matter.
| 0neutral
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If homogeneous matter cannot be separated by physical means, then the matter is a pure substance.
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Elements are pure substances that make up all matter.
| 0neutral
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In chemistry, a pure element means a substance whose atoms all (or in practice almost all) have the same atomic number, or number of protons.
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Elements are pure substances that make up all matter.
| 0neutral
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In order to prove that something is not an element, all you have to do is chemically decompose it into simpler pure substances.
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Elements are pure substances that make up all matter.
| 0neutral
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It is pure shooter and that is all that matters.
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Elements are pure substances that make up all matter.
| 0neutral
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It was purely a matter of making the truth known.
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Elements are pure substances that make up all matter.
| 0neutral
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Matter can be a pure chemical substance or a mixture of substances.
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Elements are pure substances that make up all matter.
| 0neutral
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Matter is either a mixture or a pure substance.
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Elements are pure substances that make up all matter.
| 0neutral
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Matter is either a mixture or it is a pure substance.
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Elements are pure substances that make up all matter.
| 0neutral
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Matter is pure potency, in the genus of substance.
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Elements are pure substances that make up all matter.
| 0neutral
|
Matter, being a purely receptive capacity, while it is not yet substance, is still a substantial element, meant to blend with form into a natural unity, not accidental but essential.
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Elements are pure substances that make up all matter.
| 0neutral
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PSc.2.1.1 Classify matter as: homogeneous or heterogeneous; pure substance or mixture; element or compound; metals, nonmetals, or metalloids; solution, colloid, or suspension.
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Elements are pure substances that make up all matter.
| 0neutral
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Pure substances include all the elements, such as hydrogen, gold and iron, and compounds, such as water and carbon dioxide.
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Elements are pure substances that make up all matter.
| 0neutral
|
Samples of matter exist either as pure substances or as mixtures of pure substances.
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Elements are pure substances that make up all matter.
| 0neutral
|
Students will be able to identify matter as pure substances or mixtures;
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Elements are pure substances that make up all matter.
| 0neutral
|
That in substance is all there is to the matter.
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Elements are pure substances that make up all matter.
| 0neutral
|
The Structure of Matter Element An element is a pure chemical that can not be separated into or converted into a simpler substance.
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Elements are pure substances that make up all matter.
| 0neutral
|
The second is an Elementary {Sun}, that is to say, it is the most pure and the most fixt Portion of the Elements, and of all the Substances that are composed of them;
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Elements are pure substances that make up all matter.
| 0neutral
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The tension that makes all of this possible is the simple presence of the pure passivity that is Matter.
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Elements are pure substances that make up all matter.
| 0neutral
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There is no substance at all , either pure substance or substance as qualities on their own, or substance as qualities plus pure substance.
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Elements are pure substances that make up all matter.
| 0neutral
|
This matter is the substance of all changes.
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Elements are pure substances that make up all matter.
| 0neutral
|
all that He is and can be is pure substance.
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Elements are pure substances that make up all matter.
| 0neutral
|
and that matter or substance builds upon and reflects spiritual elements.
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Elements are pure substances that make up all matter.
| 0neutral
|
it honestly doesnt matter....the pure adrenaline rush is something that makes it all worthwhile
|
Elements are pure substances that make up all matter.
| 0neutral
|
make the fountain pure, and all will be pure.
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Elements are pure substances that make up all matter.
| 0neutral
|
• Classify a sample of matter as a pure substance or mixture based on the number of elements or compounds in the sample.
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Elements are pure substances that make up all matter.
| 0neutral
|
A thin device that can be inserted into the body through natural openings or through a very small incision in the skin, an endoscope is used by physicians for imaging inside the body and for performing diagnostic and surgical procedures without having to make large-scale incisions.
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Endoscopes are used to explore the body through various orifices or minor incisions.
| 1entails
|
Endoscopic surgery involves the insertion of a camera and surgical instruments into the body through small incisions and controlling the procedure on a video monitor.
|
Endoscopes are used to explore the body through various orifices or minor incisions.
| 1entails
|
In such surgery, a surgeon uses a small incision to insert an optic fiber camera attached to the end of an endoscope and views the interior of the body via a video screen.
|
Endoscopes are used to explore the body through various orifices or minor incisions.
| 1entails
|
Using an endoscope, the plastic surgeon can smooth and tighten the skin and muscles through very small incisions that are easily concealed.
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Endoscopes are used to explore the body through various orifices or minor incisions.
| 1entails
|
We are also employing the latest endoscopic technology and are placing the implants through minimal access incisions and with the use of lighted scopes.
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Endoscopes are used to explore the body through various orifices or minor incisions.
| 1entails
|
What makes this surgery unique is that it is accomplished with a very small incision and the use of a small visualization instrument known as an endoscope.
|
Endoscopes are used to explore the body through various orifices or minor incisions.
| 1entails
|
Energy stored in an object due to its position is called kinetic energy 6.
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Energy that is stored in a person or object is called potential energy.
| 0neutral
|
Energy stores potential wealth.
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Energy that is stored in a person or object is called potential energy.
| 0neutral
|
POTENTIAL ENERGY Potential energy is stored energy and the energy of position, or gravitational energy.
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Energy that is stored in a person or object is called potential energy.
| 1entails
|
Potential and kinetic energy Potential energy is often called stored energy.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
Potential energy is energy stored in an object.
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Energy that is stored in a person or object is called potential energy.
| 1entails
|
Potential energy is energy stored internally in an object.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
Potential energy is the same as stored energy.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
Potential energy is the stored energy an object has because of its position or state.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
Potential energy is the stored energy of position possessed by an object.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
Potential energy is the stored or pent-up energy of an object.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
The internal energy stored n the bonds between atoms is a form of potential energy that is sometimes called ELECTROMAGNETIC energy.
|
Energy that is stored in a person or object is called potential energy.
| 0neutral
|
The internal energy stored n the bonds between atoms is a form of potential energy that is sometimes called ELECTROMAGNETIC energy.(T or F)
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Energy that is stored in a person or object is called potential energy.
| 0neutral
|
The stored energy is called potential energy.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
This stored energy is called potential energy.
|
Energy that is stored in a person or object is called potential energy.
| 1entails
|
Ordering Information Zygest®- Digestive Enzyme Complex This comprehensive digestive formula offers a full spectrum of enzymes that help the body digest proteins, carbohydrates and starches, fats, plant fibers and milk sugars.
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Enzymes in saliva help break down and digest starches and fats.
| 0neutral
|
Saliva contains the enzymes salivary amylase and lingual lipase that begin the process of breaking down starch and fat.
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Enzymes in saliva help break down and digest starches and fats.
| 1entails
|
Saliva produced by these glands contains an enzyme that begins to digest the starch from food into smaller molecules.
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Enzymes in saliva help break down and digest starches and fats.
| 1entails
|
The enzymes found in saliva are essential in beginning the process of digestion of dietary starches and fats.
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Enzymes in saliva help break down and digest starches and fats.
| 1entails
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An enzyme is a biological catalyst, i.e., it speeds up the rate of a biochemical reaction without being consumed during the course of that reaction.
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Enzymes speed up the rate of a specific chemical reaction and are therefore known as biochemical catalysts.
| 1entails
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Catalysts, enzymes and rates of reaction;
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Enzymes speed up the rate of a specific chemical reaction and are therefore known as biochemical catalysts.
| 0neutral
|
Enzymes serve as biochemical catalysts that speed up normal chemical reactions in cells.
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Enzymes speed up the rate of a specific chemical reaction and are therefore known as biochemical catalysts.
| 1entails
|
discuss what is meant by the kinetics of a reaction and what factors can influence the rate of a chemical reaction (including catalysts and enzymes);
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Enzymes speed up the rate of a specific chemical reaction and are therefore known as biochemical catalysts.
| 0neutral
|
enzymes, for example, are protein catalysts that speed up biochemical reactions in the body;
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Enzymes speed up the rate of a specific chemical reaction and are therefore known as biochemical catalysts.
| 1entails
|
In eukaryotes, cell division involves nuclear divisions ( Mitosis or Meiosis ) followed by cytokinesis .
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Eukaryotic cell division involves mitosis and cytokinesis.
| 1entails
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Mitosis and cytokinesis
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Eukaryotic cell division involves mitosis and cytokinesis.
| 0neutral
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Mitosis occurs creating two genetically identical nuclei and cytokinesis completes cell division resulting in the two genetically identical eukaryotic cells.
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Eukaryotic cell division involves mitosis and cytokinesis.
| 1entails
|
A study of the structure, function and development of eukaryotic cells from the molecular to the tissue level with emphasis on the cellular and organelle levels of organization.
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Eukaryotic cells contain organelles that possess special functions.
| 0neutral
|
All cells except those of bacteria and mammalian red blood cells possess a nucleus , containing the genetic material, and cytoplasm, within which are structures (organelles) specialized for different metabolic functions (see Golgi apparatus ;
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Eukaryotic cells contain organelles that possess special functions.
| 0neutral
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Discuss the organelles of an Eukaryotic cell;
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Eukaryotic cells contain organelles that possess special functions.
| 0neutral
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Identify and describe the structure and functions of various organelles of eukaryotic cells.
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Eukaryotic cells contain organelles that possess special functions.
| 0neutral
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ORGANELLE An organelle is membrane-bound structure within a plant's cell (and all eukaryotic cells) where specialized metabolic tasks occur.
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Eukaryotic cells contain organelles that possess special functions.
| 1entails
|
Students can test their knowledge of the functions of various cell organelles in a eukaryotic cell.
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Eukaryotic cells contain organelles that possess special functions.
| 0neutral
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This course examines cell structure and function with an emphasis on bioenergetics, protein function, and proteins, delivery of proteins to the various organelles found in eukaryotic cells.
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Eukaryotic cells contain organelles that possess special functions.
| 0neutral
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Various types of eukaryotic cells (i.e., cells containing membrane-bound organelles) may contain from a few to several thousand mitochondria in each cell type.
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Eukaryotic cells contain organelles that possess special functions.
| 0neutral
|
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