Chemistry is a study of the fundamental structure of matter that serves as a basic understanding of science needed in todayÕs world. It is a study of matter, energy, atomic and molecular structure, composition, bonding, the periodic law, chemical equations, acid-base reactions, solutions, gas laws, equilibrium, electrochemistry, and nuclear reactions. The course is designed to foster scientific literacy by using real-life examples and case studies that allow students to use the concepts and skills of chemistry to make informed decisions about current issues and situations. Students will be expected to communicate in a variety of ways the results of their research and investigations. A major part of Chemistry is extensive laboratory experiences in which students will design experiments, control variables, conduct safe investigations, and analyze data.
Prerequisites:
successful completion of Biology
successful completion of Algebra I or Basic Algebra
Prerequisites for honors level:
above average math and reading ability
B or better in Algebra I
Science Department recommendation
New Haven Public Schools
Chemistry Curriculum Pacing
Quarter |
Unit |
Sequence of instruction |
Timeline |
1 |
Matter |
á Types of
Matter á Chemical
Properties/Changes á Density á Elements
and Compounds á Mixtures
& Separation Techniques á Conservation
of Matter á Kinetic
Theory of Matter á States of
Matter á Changes of
State |
2 weeks |
1 |
Energy |
á Conservation
of Energy á Temperature
and Kinetic Energy á Evaporation/Condensation á Vapor
Pressure and Boiling á Heat of
Vaporization á Melting/Freezing á Heat of
Fusion á Exothermic/Endothermic |
2 weeks |
1 |
Atomic Structure |
Periodic Table (atomic number, mass
number)
|
2 weeks |
1 |
Nuclear chemistry |
|
2 weeks |
2 |
Periodic table |
Periodic Table
Electron configuration
|
4 weeks |
2 |
Bonding & Compounds |
Ionic Bonding
Covalent Bonding
|
4 weeks |
3 |
Chemical Reactions & Equations |
á Chemical
Equations á Balancing
Chemical Equations á Indications
of a Chemical á Reaction á Types of
Chemical Reactions |
4 weeks |
3 |
Stoichiometry & Reaction rates |
á The mole á Molar mass á Mole
conversions á Stoichiometry á Limiting
Reactants |
4 weeks |
4 |
Acids & Bases |
á Arrhenius, Bronsted-Lowry and
Lewis definitions á Molecular
Properties of Acids á Molecular
Properties of Bases á Strengths
of Acids and Bases á Neutralization
Reactions á The pH
Scale |
3 weeks |
4 |
Water & Solutions |
WATER á Water and
Its Solutions á Molecular
Structure of Water á Hydrogen
Bonding á Physical
Properties of Water á Water and
the Environment SOLUTIONS á Solvation á Solution
Concentration á Solubility á Coligative properties á
Colloids |
3 weeks |
4 |
Gases |
á Behavior of
Gases á Gas
Pressure á Devices to
Measure Pressure á Pressure
Units á BoyleÕs Law á CharlesÕs
Law á Combined
Gas Law á DaltonÕs
Law á Ideal Gas
Law |
2 weeks |
4 |
Organic chemistry (Hydrocarbons) |
|
3 weeks |
Beginning
Curriculum Map |
Subject: Chemistry |
Grade:
11-12 |
|||
|
August/September |
October |
|
||
Essential
Questions |
How is matter classified,
and observed? How do we measure matter? What are the uses of physical and chemical
properties? |
How have scientists used models to explain atoms? How can we use knowledge
of nuclear chemistry and reactions in deciding on current energy,
environmental and political issues? |
|
||
Content |
Structure of Matter Measurement |
Structure of the Atom Nuclear |
|
||
Objectives |
1. Use properties to
distinguish types of matter. 2. Determine the density
of objects from measurements and grap 3. Know that matter is
composed of particles and how these particles are held together. 4. Describe the three
phases of matter. 5. Know the properties of
metals and non-metals. 6. Define and contrast
physical, chemical, and nuclear changes. 7. Determine whether a
substance is a mixture, element, or compound. 8. Use properties of
matter to separate mixtures. |
1. Develop atomic theory in an historical perspective comparing and
contrasting different models. 2. Describe the discovery of the parts of the atom. 3. Know atomic structure in terms of protons, neutrons, and elections. 4. Define and use concepts of atomic number, mass number, and
isotopes. 5. Develop the concept of atomic weight. 6. Describe the nuclear changes that release energy. 7. Use the concepts of half life to predict
the results of nuclear decay. 8. Know natural and man-made occurrences
of fission and fusion, including medical, industrial and military
applications. 9. Use the scientific concepts involved in nuclear power generation
to make decisions about current societal issues. |
|
||
Instructional
Strategies/ Activities |
1. Use a graph to find
area. 2. Pre/post 1980 penny - mass
measurement. 3. Density Lab –various metals,
water, glycerin. 4. Percentage error calculations. 5. Analysis of various physical and
chemical changes. 6. Investigate the Laws of
Conservation of Mass& Energy. |
1. Beanium. 2. Funky Sand Lab. 3. Fission chain reaction
model. 4. Half life activities. |
|
||
Assessment
Types |
|
Innovations in Chemistry Project Nuclear Energy Debate |
|
||
Science Inquiry Skills |
Measurement skills. Numeracy skills. Experimentation skills. |
Using science to make societal decisions. |
|
||
Interdisciplinary Connections |
|
|
|
||
Beginning
Curriculum Map |
Subject: Chemistry |
Grade:
11-12 |
|||
|
November |
December |
|
||
Essential
Questions |
How does the arrangement of elements in the Periodic
Table predict properties? How does electron configuration predict properties? What are they types of elements and compounds and
how are they used? |
How do compound bonds determine behavior in a
chemical reaction? How is matter and energy conserved in a chemical
reaction? How are chemical reactions
analyzed? |
|
||
Content |
Periodic Table Electron Configuration Elements and Properties Compounds and formulas |
Simple Compound Bonds Types of Chemical Reactions Chemical Equations |
|
||
Objectives |
1. Describe the historical development of the organization of the
Periodic Table and the modern periodic law. 2. Describe atomic properties such as atomic radius, ionization
energy, oxidation number, and electron affinity using the periodic table and
charts. 3. Develop the concept of chemical activity as it relates to atomic
structure. 4. Know the trends in properties of the families and series on the
Periodic Table. 5. Describe the uses of some common elements. 6. Write correct formulas for compounds using ratios and ion charts. 7.
Identify names and formulas and uses for common
compounds and elements. |
1. Determine whether a chemical bond between any two elements is
ionic or covalent. 2. Develop the concept of conservation of mass. 3. Be able to write and balance common equations. 4. Identify the different types of chemical reactions. 5. Develop the concept of mass relationships in a chemical reaction. 6. Identify endothermic and exothermic reactions. |
|
||
Instructional
Strategies/ Activities |
1. Flame Test. 2. Electron arrangements. 3. The Periodic Law
(game). 4. Element Project. 5. Make ion models. 6. MgO
Empirical formula determination. |
1. Balance single and
double replacement reactions. 2. Basic introduction to
Redox reactions – Activity of Metals Laboratory. 3. Determination of
reaction ratio using PbNO3 + KI. |
|
||
Assessment
Types |
Project: Element Project Supermarket Chemistry |
|
|
||
Science
Inquiry Skills |
|
|
|
||
Interdisciplinary Connections |
|
|
|
||
Beginning
Curriculum Map |
Subject: Chemistry |
Grade: 11-12 |
||
|
January |
February |
||
Essential
Questions |
How can we analyze chemical reactions, both
qualitatively and quantitatively? How do chemical reactions affect our life? |
How is energy transformed
or conserved in chemical reactions? How is the kinetic molecular theory used and applied? What is the relationship between heat and phase
changes? |
||
Content |
Reactions and Equations Moles and Stoichiometry Chemistry of Cars |
Endo and Exothermic Reactions Kinetic Molecular Theory Caloriemetry Phases and Phase Changes |
||
Objectives |
1. Determine the molecular mass of a compound. 2. Determine empirical and molecular formulas for compounds. 3. Determine the chemical composition and write a compoundÕs formula
by using percent composition and mole ratios. 4. Given data in mass or moles, calculate masses and yields of
reactants and products in a reaction. 5. Understand the concepts behind limiting reactions |
1. Identify endothermic and exothermic reactions. 2. Identify the three basic assumptions of the kinetic molecular
theory. 3. Describe the basic differences between solids, liquids, and gases
in terms of the kinetic theory. 4. Be able to apply the concepts of phase change to explain everyday
phenomena. 5. Describe energy changes accompanying a change of state. 6. Describe how the intermolecular forces affect the properties of
condensed states of matter. 7. Read and interpret phase change graphs. 8. Describe the factors that effect phase changes. |
||
Instructional
Strategies/ Activities |
1. Molar Lab using iron
filings. 2. Percent of hydration in
crystalline substances. |
1. Volatility laboratory
experiences. 2. Phase Change labs and
graphs. 3. Specific Heat Capacity
Labs 4. Coffee Cup Project |
||
Assessment
Types |
Chemistry in A Car Forum/Project |
Coffee Cup Project |
||
Science
Inquiry Skills |
|
|
||
Interdisciplinary Connections |
|
|
||
Beginning
Curriculum Map |
Subject: Chemistry |
Grade: 11-12 |
|||
|
March |
April |
|
||
Essential
Questions |
How does pressure, volume
and temperature affect the properties of gases? How can the property of gases be
used to explain everyday phenonomena? |
How
can we investigate the behavior of chemicals in solutions (including
electrochemical reactions) in order to analyze commercial and technological
processes? |
|
||
Content |
Gas Laws |
Solutions ElectroChemistry |
|
||
Objectives |
1. Describe the physical properties of gases. 2. Describe volume, temperature, and pressure of a gas and their
units of measurement. 3. Apply the relationships between pressure, temperature,
concentration and volume to gas behavior ( i.e.
BoyleÕs Law, CharlesÕ Law). 4. Develop a conceptual understanding of the ideal gas law. 5.Develop the concept of the absolute zero and the Kelvin temperature
scale. 6. Be able to use formulas to solve real world gas
law problems. 7. Apply gas laws involving temperature and pressure to natural
phenomena. |
1. Describe the types of solutions, the solution process, and the
influence of temperature and pressure on solubility. 2. Analyze and explain the behavior of saturated solutions. 3. Develop the conceptual understanding of solution concentration and
apply this to conductivity.. 4. Make a solution of a specific concentration and describe the
effect the solute has on the physical properties of the solution. 5. Describe dissociation and ionization. 6. Describe the behavior of ions in solution. 7. Analyze
crystals. |
|
||
Instructional
Strategies/ Activities |
1. CharlesÕ and BoyleÕs
Law laboratories and activities. 2. Determination of R
constant with butane. 3. Investigate the molar volume of a gas. |
1. Electrochemistry lab 2. Crystal Lab 3. Create solubility
graphs. 4. Net ionic equations. |
|
||
Assessment
Types |
Gas Laws and Hot Air Balloons |
Labs Tests Quizzes |
|
||
Science
Inquiry Skills |
|
|
|
||
Interdisciplinary Connections |
|
|
|
||
Beginning
Curriculum Map |
Subject: Chemistry |
Grade:
11-12 |
|||
|
May |
June |
|
||
Essential
Questions |
How do acid/base/salt reactions show the principles
of chemistry? What are the application of acid/base reactions and
their impact on our lives and the environment? |
What are the uses of organic compounds and plastics? How
can we investigate the structure and behavior of common carbon-based
compounds and their role in manufacturing, living organisms.
and the environment? |
|
||
Content |
Acid/Base Structure Acid/base reactions |
Organic Bonding Plastics/Petroleum |
|
||
Objectives |
1. Define acids and bases in the traditional and modern sense. 2. Distinguish between forms of acids and bases using their
properties. 3. Compare the strengths of acids and bases and apply these concepts
to buffer solutions. 4. Be able to complete an acid base neutralization reaction
and predict the products. 5. Use the concept of molarity to determine the concentrations of a
titration reaction. |
1. Model covalent bonds using electron-dot diagrams. 2. Hypothesize the shapes of molecules based on their bonds. 3. Be able to draw structural formulas and name organic compounds. 4. Describe the existence and uses of some organic compounds. 5. Be able
to identify and analyze monomers and polymers. |
|
||
Instructional
Strategies/ Activities |
1. pH Lab 2. titration lab 3. acid rain simulation and
debate |
1. making plastic lab 2. petroleum lab 3. recycling plastic
activities 4. tie-dye lab |
|
||
Assessment
Types |
Acid Rain debate/Project |
Labs Tests Quizzes |
|
||
Science
Inquiry Skills |
|
|
|
||
Interdisciplinary Connections |
|
|
|
||
CHEMISTRY
Essential Questions: How is matter classified, and observed?
How do we measure
matter?
What are the uses of
physical and chemical properties?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Use properties to distinguish types of
matter. 2.
Determine the density of objects from measurements and grap 3.
Know that matter is composed of particles and how these particles are held
together. 4. Describe the three phases of matter. 5. Know the properties of metals and
non-metals. 6. Define and contrast physical,
chemical, and nuclear changes. 7. Determine whether a substance is a
mixture, element, or compound. 8. Use properties of matter to separate
mixtures. |
|
1.
Use a graph to find area. 2. Pre/post 1980 penny - mass
measurement. 3. Density Lab –various metals,
water, glycerin. 4. Percentage error calculations. 5. Analysis of various physical and
chemical changes. 6. Investigate the Laws of
Conservation of Mass& Energy. |
|
3 weeks |
|
CHEMISTRY
Essential Questions: How have scientists used models to explain atoms?
How can we
use knowledge of nuclear chemistry and reactions in deciding on current energy , environmental and political issues?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Develop atomic theory
in an historical perspective comparing and contrasting different models. 2. Describe the discovery
of the parts of the atom. 3. Know atomic structure
in terms of protons, neutrons, and elections. 4. Define and use concepts of atomic number, mass number, and isotopes. 5. Develop the concept of
atomic weight. 6. Describe the nuclear
changes that release energy. 7. Use the concepts of half life to predict the results of nuclear decay. 8. Know natural and man-made
occurrences of fission and fusion, including medical, industrial and military
applications. 9. Use the scientific
concepts involved in nuclear power generation to make decisions about current
societal issues. |
|
1.
Beanium. 2.
Funky Sand Lab. 3.
Fission chain reaction model. 4.
Half life activities. |
Innovations in Chemistry
Project Nuclear Energy Debate |
4 weeks |
|
CHEMISTRY
Essential Questions: How does the arrangement of elements in the Periodic Table and
electron configuration predict properties?
What are they types of
elements and compounds and how are they used?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Describe the historical
development of the organization of the Periodic Table and the modern periodic
law. 2. Describe atomic
properties such as atomic radius, ionization energy, oxidation number, and
electron affinity using the periodic table and charts. 3. Develop the concept of
chemical activity as it relates to atomic structure. 4. Know the trends in
properties of the families and series on the Periodic Table. 5. Describe the uses of
some common elements. 6. Write correct formulas
for compounds using ratios and ion charts. 7. Identify names and formulas
and uses for common compounds and elements. |
|
1.
Flame Test. Electron
arrangements. 2.
The Periodic Law (game). 3.
Element Project. 4.
Make ion models. 5.
MgO Empirical formula determination. |
Element
Project Supermarket
Chemistry |
3 weeks |
|
CHEMISTRY
Essential Questions: How do compound bonds determine behavior in a chemical reaction?
How is matter and
energy conserved in a chemical reaction?
How are
chemical reactions analyzed?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Determine whether a chemical bond between any two elements is
ionic or covalent. 2. Develop the concept of
conservation of mass. 3. Be able to write and
balance common equations. 4. Identify the different
types of chemical reactions. 5. Develop the concept of
mass relationships in a chemical reaction. 6. Identify endothermic
and exothermic reactions. |
|
1.
Balance single and double replacement reactions. 2.
Basic introduction to Redox reactions – Activity of Metals Laboratory. 3.
Determination of reaction ratio using PbNO3 + KI. |
Labs Tests Quizzes |
4 weeks |
|
CHEMISTRY
Essential Questions: How can we analyze chemical reactions, both qualitatively and
quantitatively?
How do chemical
reactions affect our life?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Determine the molecular
mass of a compound. 2. Determine empirical and
molecular formulas for compounds. 3. Determine the chemical
composition and write a compoundÕs formula by using percent composition and
mole ratios. 4. Given data in mass or
moles, calculate masses and yields of reactants and products in a reaction. 5. Understand the concepts
behind limiting reactions |
|
Molar Lab using iron filings. Percent of hydration in crystalline substances. |
Chemistry in A Car
Forum/Project MIDTERM
EXAM (atoms, elements, compounds, reactions) |
4 weeks |
|
CHEMISTRY
Essential Questions: How is
energy transformed or conserved in chemical reactions?
How
is the kinetic molecular theory used and applied?
What
is the relationship between heat and phase changes?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Identify endothermic
and exothermic reactions. 2. Identify the three
basic assumptions of the kinetic molecular theory. 3. Describe the basic
differences between solids, liquids, and gases in terms of the kinetic
theory. 4. Be able to apply the
concepts of phase change to explain everyday phenomena. 5. Describe energy changes
accompanying a change of state. 6. Describe how the
intermolecular forces affect the properties of condensed states of matter. 7. Read and interpret
phase change graphs. 8. Describe the factors
that effect phase changes. |
|
1.
Volatility laboratory experiences. 2.
Phase Change labs and graphs. 3.
Specific Heat Capacity Labs 4.
Coffee Cup Project |
Coffee
Cup Project |
3 weeks |
|
CHEMISTRY
Essential Questions: How does pressure, volume and temperature
affect the properties of gases?
How can
the property of gases be used to explain everyday phenonomena?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Describe the physical
properties of gases. 2. Describe volume,
temperature, and pressure of a gas and their units of measurement. 3. Apply the relationships between
pressure, temperature, concentration and volume to gas behavior ( i.e. BoyleÕs Law, CharlesÕ Law). 4. Develop a conceptual understanding of
the ideal gas law. 5. Develop the concept of the absolute
zero and the Kelvin temperature scale. 6. Be able to use formulas to solve
real world gas law problems. 7. Apply gas laws involving temperature
and pressure to natural phenomena. |
|
1.
CharlesÕ and BoyleÕs Law laboratories and activities. 2.
Determination of R constant with butane. 3. Investigate the molar volume of a gas. 4. Gas Laws and Hot Air
Balloons |
Labs Tests Quizzes |
|
|
CHEMISTRY
Essential
Questions: How can we investigate the behavior of chemicals
in solutions (including electrochemical reactions)
in order to analyze commercial and technological processes?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1.
Describe the types of solutions, the solution process, and the influence of
temperature and pressure on solubility. 2.
Analyze and explain the behavior of saturated solutions. 3.
Develop the conceptual understanding of solution concentration and apply this
to conductivity.. 4.
Make a solution of a specific concentration and describe the effect the
solute has on the physical properties of the solution. 5.
Describe dissociation and ionization. 6.
Describe the behavior of ions in solution. 7. Analyze crystals. |
|
Electrochemistry lab Crystal Lab Create
solubility graphs. Net
ionic equations |
Labs Tests Quizzes |
3 Weeks |
|
CHEMISTRY
Essential Questions: How do acid/base/salt reactions show the principles of chemistry?
What are the
application of acid/base reactions and their impact on our lives and the environment?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCE |
1. Define acids and bases
in the traditional and modern sense. 2. Distinguish between
forms of acids and bases using their properties. 3. Compare the strengths
of acids and bases and apply these concepts to buffer solutions. 4. Be able to complete an acid base neutralization reaction and predict the
products. 5. Use the concept of
molarity to determine the concentrations of a titration reaction. |
|
1. pH Lab 2. titration
lab 3. acid
rain simulation and debate |
acid rain simulation and debate |
3 weeks |
|
CHEMISTRY
Essential Questions: What are the uses of organic compounds and plastics?
How can we investigate
the structure and behavior of common carbon-based compounds and their role in manufacturing,
living organisms. and the
environment?
OBJECTIVES |
CORRESPONDING CT FRAMEWORKS |
RECOMMENDED INSTRUCTIONAL STRATEGIES |
ASSESSMENT TOOL |
TIMELINES |
RESOURCES |
1. Model covalent bonds using electron-dot diagrams. 2. Hypothesize the shapes of molecules based on their bonds. 3. Be able to draw structural formulas and name organic compounds. 4. Describe the existence and uses of some organic compounds. 5. Be able
to identify and analyze monomers and polymers. |
|
1.making plastic lab 2.petroleum lab 3.recycling plastic activities 4. tie-dye lab |
labs FINAL EXAM (heat, gases, acids, solutions, organics) |
|
|