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Core Content and Skills
Science Chemistry R
2007-2008
BOE Approved
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| Laboratory Instrumentation |
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Digital and Beam balances; reading and using volumetric glassware; thermometer basics; Bunsen Burner basics;
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Adhering to lab safety procedures and good lab practices.
Reading MSDS sheets (material data safety sheets).
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Decimals & Scientific notation;
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convert between decimal and scientific notation
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I. Classifying matter
A. Pure substances - elements (atoms & subatomic particles) vs. compounds;
B. Mixtures - homogenous vs. heterogenous
C. Physical properites & physical separation processes - chromatography, filtrations, distillation
D. Chemical separation processes - chemical properties and changes (reactions)
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I. Phase Changes
A. States or phases - solid vs. liquid vs. gas
B. Phase or state changes - melting (fusion), freezing (solidification, crystallization), evaporation, condensation, sublimation, deposition
C. Phase change energy/heat changes - Endothermic vs. Exothermic
D. Heating & Cooling curves
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Calorimetry
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| Observations and integrated math skills |
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basic units of measure - SI sytem of units; derived unit of measure - volume; density etc...
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The metric system - prefixes, symbols and conversions (Easy application tool to vertical metric tables - "DRUL" rule)
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Uncertainty in measurements and significant figures - precision vs. accuracy
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Math operations & sig figs
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Dimensional analysis
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Students will know basic physical quantities and their units; Students will know the metric table and how to make metric conversions; Students will be able to understand the basic definitions and rules for working with significant figures; Students will complete basic math operations governed by the rules for significant figures; Students will be able to find and use conversion factors in order to convert from different systems of units; Students will know the different temperature scales, their associated units and how to convert from one scale to another; Students will be able to measure, calculate and compare densities.
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Qualitative versus Quantitative Observations; Decimal and Scientific Notation Representations; Basic Units of Measure; Metric System; Uncertainty in Measurement and Significant Digits; Precision & Accuracy; Dimensional Analysis; Density Measurements and Calculations; Temp scales, units & conversions
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Do multiple exponential notation activities and practice...
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Forms of energy; KE, PE and Temperature; system vs. surroundings; Endothermic vs. Exothermic; Intro to Enthalpy and Entropy; Heating & cooling curves (Hv, Hf etc...); Calorimetry; Hess' Law
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Students will apply these energy concepts via laboratory experiments and demonstrations.
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| Atomic Structure & The Periodic Table |
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Historic development of the atomic model - Bohr, Thomson et al; Basic electric charges - atomic number, atomic mass, isotopes, cations, anions, atomic size vs. ionic size, allotropes; Groups, periods and divisions (metals, nonmetals, halogens etc...); average atomic mass;
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Intro to the Electromagnetic Spectrum; energy, wavelength & frequency; Review historical models of the atom - Bohr...; Wave mechanical model; Valence electrons & Lewis dot symbols; Energy levels, subshells & orbitals; Ground vs. Excited states; Electron configurations & orbital diagrams; Atomic properties & trends on the periodic table - Ionization energy, electron affinity, electronegativity, atomic vs. ionic size; spectral analysis
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Ionic vs. molecular compounds; polyatomic ions (Table E); Intro to IUPAC system:
1. Binary Compounds
a. Group I & II metals with a nonmetal
b. Transition metal with a nonmetal
c. Covalent molecular compounds - two nonmetals
2. Ternary Compounds
a. Group I & II metals with a polyatomic ion
b. Transition metal with a polyatomic ion
3. Identifying and naming acids & bases
4. Naming hydrates
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| Introduction to Chemical Reactions |
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Reaction (equation) basics - reactants vs. products; evidence for chemical reactions; Balancing equations and the Law of Conservation of Mass (Matter);
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Types of Chemical Reactions:
1. Combustion
2. Combination (synthesis)
3. Decomposition
4. Double Replacement (Table F)
* Acid-base neutralizatoin reactions
* Intro to indicators
5. Single Replacement
6. Redox - oxidation-reduction reactions
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| Introduction to the periodic table |
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Groups (families), periods, organization, element names; metals vs. nonmetals properties; basic characteristics of the atom - early discoveries and theories/models; atomic number, atomic mass, isotopes, Ions (cations vs. anions), allotropes, atomic vs. ionic size
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Students will be able to explain, discuss and diagram the organizational aspects of the periodic table.
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Students will research and present findings on the developement of modern view of the structure of the atom (Dalton, JJ Thom., Rutherford, Chadwick, Miliken, Bohr, Wave-mech etc...).
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Students will be able to complete basic atomic calculations (atomic number, mass, # of P, # of N, # of e etc...).
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Define and classify matter; physical vs. chemical properties and changes;
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Forms of energy; System vs. Surroundings; KE,Temperature, STP conditions, PE; Endothermic vs. Exothermic; Intro to Enthalpy and Entropy; Heating & cooling curves (Hv, Hf etc...); Calorimetry; Hess' Law
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Students will be able to reproduce, discuss and apply the classification scheme used for matter;
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Recognize physical vs. chemical properties and changes
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Radioactivity - the nature of radioactive emissions; radioisotopes; transmutation - alpha, beta and gamma emission and detection; half life defined and calculated; Nuclear equations; Tables N and O; Dating with Radioisotopes
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Matter & Energy; fission vs. fusion; applications - nuclear power plants
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Radiation exposure - time, distance and shielding
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Particle physics and new subatomic particles
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Counting by weighing; The mole and Avogadros number; Mole conversions; Percent composition; Empirical and molecular formulas; hydrate formulas & percent composition of water
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Balancing Review - subscripts vs. coefficients; Coefficient ratios; Limiting reactant concepts; Percent yields - theoretical vs. actual; yield applications
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Intramolecular forces and the types of chemical bonds - ionic, covalent and metallic
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Lewis structures for Covalent compounds; Polar vs. nonpolar covalent bonds; VSEPR and molecular shapes - symmetric and asymmetric structure
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Metallic bonds
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Working with Models
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Intro to the concept of Intermolecular forces of attraction
1. Dipole attractions
2. Hydrogen bonding
3. London dispersion forces
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The Chemistry of Carbon; Bonding of Carbon atoms; Formulas review - molecular, structural, condensed, ball and stick and space filling models
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Hydrocarbons - Alkanes (saturated), Alkenes (unsaturated) & Alkynes (unsaturated); Homolgous series; IUPAC naming of hydrocarbons (Tables P & Q)
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Kinetic molecular theory; Key variables and their units - pressure, temperature, volume & moles; ideal gas law and behavior; molar mass, molar volume and density of gases
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Solution concentration and units - molarity, molality, ppm, % by mass, % by volume
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Solution concentration and units - molarity, molality, ppm, % by mass, % by volume
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Colligative properties - Vapor pressure, Freezing point depression, Boiling point elevation
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Solubility - rules (Table F), Graphs (Table G) and definitions (saturated vs. unsaturated vs. supersaturated solutions)
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Reactions => collisions, spatial arragnement and energy (activation)
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Rates of Reactions => covalent vs. ionic bonded substances; concentration; surface area; pressure; catalysts; temperature
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Bond Breaking vs. Bond making and Table H
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Potential Energy Diagrams => PEreactants, PE products, activation energy, DH (enthalpy change or heat of reaction), activated complex (transition states)
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Equilibrium => Rf = Rr
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Phase equilibrium => fusion(melting)/crystallization; evaporation/condensation;
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Solution equilibrium
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Chemical equilibrium
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Le Chatelier's Principle => the effect of changing concentration, pressure (volume) and temperature on equilibrium
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pH Scale; Acid/Base basics and theories
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Acid - Base Titration
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Acid-Base Indicators
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Basics of Oxidation & Reduction; Redox Reactions => single replace, synthesis, decomposition, combustion
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Assigning oxidation numbers => steps and applications
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Examining Redox reactions => oxidation and reduction half reactions; balance and writing net ionic redox reactions
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Electrochemical Cells => Voltaic (Galvanic) vs. Electrolytic; Batteries
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Regents Part A & B
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Regents Part C
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Putnam Valley Central School District, 146 Peekskill Hollow Road, Putnam Valley,
NY 10579
Phone (845) 528-8143 Fax (845) 528-0274 |
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