CCOG for CH 105 archive revision 201403
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- Effective Term:
- Summer 2014 through Winter 2016
- Course Number:
- CH 105
- Course Title:
- Allied Health Chemistry II
- Credit Hours:
- 5
- Lecture Hours:
- 40
- Lecture/Lab Hours:
- 0
- Lab Hours:
- 30
Course Description
Includes stoichiometry, gases, oxidation-reduction, acid-base concepts, equilibrium, physical and chemical properties of solutions, nuclear chemistry, and organic hydrocarbons. This is the second course in a three course sequence. Audit available.
Intended Outcomes for the course
Upon successful completion students should be able to:
- Assess the impact of physical and organic chemical theory on phenomena encountered in everyday life including the environment and human health.
- Apply critical thinking skills and an understanding of scientific inquiry to make evidence-based decisions on issues that affect the environment and the community and encourage lifelong learning.
- Formulate mathematical and chemical models based on quantitative and qualitative reasoning in order to solve problems.
- Communicate complex scientific concepts and reasoning effectively, both orally and through formal and informal writings and reports.
- Collaborate effectively with a diverse team to solve complex problems and accomplish tasks effectively.
- Critically evaluate sources of scientific information to determine the validity of the data.
Quantitative Reasoning
Students completing an associate degree at Ë¿¹ÏÊÓÆµ will be able to analyze questions or problems that impact the community and/or environment using quantitative information.
Course Activities and Design
- Active Learning: Problem-solving assignments
- Full-class Learning: Recitation exercises
- Collaborative Learning: Laboratory activities
- Independent Learning: Reading and lecture
Outcome Assessment Strategies
- Hand in assignments for grading.
- Participation
- Lab reports
- Testing
Course Content (Themes, Concepts, Issues and Skills)
- GASES
- Explain the application of
- Boyle's law
- Charles' law
- Dalton's law of partial pressures
- standard conditions
- kinetic molecular theory
- gas constant R
- Solve problems using
- Ideal gas equation
- Combined gas equation
- Explain the application of
- WATER AND THE LIQUID PHASE
- Define the following terms and demonstrate appropriate use:
- vapor pressure
- boiling point
- melting point
- heat of vaporization
- heat of fusion
- heating curve
- hydrogen bonds
- Solve problems involving heat and phase changes
- Write equations for selected reactions of water.
- Define the following terms and demonstrate appropriate use:
- SOLUTIONS
- Define and apply the following terms
- solute
- solvent
- concentrate vs. dilute solution
- supersaturation
- Solve problems to demonstrate application of the following
- molarity
- molality
- normality
- percent
- dilutions
- Restate the relationship between concentration and
- freezing point
- boiling point
- osmotic pressure
- Use a solubility table to predict the outcome of mixing solutions.
- Define and apply the following terms
- ACIDS, BASES, AND IONIC SOLUTIONS
- Define and apply the following terms
- Arrhenius acid
- Bronsted/Lowry acid
- Lewis acid
- salt
- neutralization
- strong vs. weak electrolytes
- nonelectrolytes.
- Write and balance net ionic equations.
- Write the equation showing the ionization of water
- Calculate pH and apply the pH scale
- Calculate the results of acid-base titrations
- Define and apply the following terms
- CHEMICAL EQUILIBRIUM
- Define and apply the following terms
- equilibrium constants
- percent ionization
- buffering
- predict the effect of LeChatelier's principle on
- temperature
- concentration
- catalyst
- pressure
- Use equilibrium theory to solve problems using
- Ka
- Ksp
- Kw
- Keq
- Define and apply the following terms
- ELECTROCHEMISTRY
- Define and apply the following terms
- oxidation
- reduction
- Apply redox theory to balance equations in acid or basic solution
- Sketch and describe the operation of an electrochemical cell
- Define and apply the following terms
- NUCLEAR CHEMISTRY
- Define and apply the following terms
- alpha radiation
- beta radiation
- gamma radiation
- half-life
- fission
- fusion
- Describe the relationship between:
- radioactivity and atomic structure
- penetrating power and the types of radiation.
- Define and apply the following terms
- HYDROCARBONS: ALKANES
- Describe the bonding of carbon in alkanes
- Identify the functional groups of carbon
- Use the IUPAC system to name a structure and vice versa
- Compare the effect of homologous series to physical properties of alkanes.
- Predict the products of the following reactions of alkanes combustion monohalogenation
- Identify the functional groups of organic molecules
- UNSATURATED HYDROCARBONS
- Define and apply the following terms
- sigma bond
- pi bond
- aromatic
- ortho, meta, and para
- Identify the following for unsaturated hydrocarbons
- structures
- nomenclature
- physical properties
- chemical reactions
- Define and apply the following terms
THE FOLLOWING IS A BRIDGE TOPIC BETWEEN CH 105 AND CH 106. IT MAY BE INTRODUCED IF THE INSTRUCTOR HAS THE TIME.
- ALCOHOLS, PHENOLS, ETHERS
- Define and apply the following terms: Primary, Secondary, and Tertiary Alcohols
- Examine the IUPAC name and draw the structure of the molecule
- Analyze the structure and write the IUPAC and common name.
- Contrast the physical bonding properties of hydrogen-bonding compounds with the non-polar hydrocarbons.
- Predict the products of chemical reactions involving each class of alcohols.