OAKTON COMMUNITY COLLEGE COURSE SYLLABUS I. Course Course Course Prefix Number Name Credit:Lecture:Lab: PHY 222 General Physics II 5 4 3 II. Course Prerequisites: PHY 221 and MAT 252 or concurrent enrollment in Mat 252. III. Course Description: As a continuation of PHY 221, this course presents quantitative methods utilizing differential and integral calculus. Topics include charge, electric field and potential, Gauss's Law, Ampere's Law, Faraday's Law, magnetic properties of matter, inductance, capacitance, electromagnetic radiation, geometrical optics, physical optics, introduction to quantum theory and nuclear physics. IV. Learning Objectives: To become proficient in solving physics problems, understand the process of developing an efficient problem-solving strategy, and to be able to implement that process. To be able to apply differential and integral calculus to physics. To be able to follow all of the steps involved in the derivation of the basic formulas used in the course. To have a working knowledge of laboratory safety in the conduct of physics experiments. To have an appreciation of the historical development of the great ideas in physics. To develop an understanding of the applications of physics, particularly as they relate to electronics and optics. To provide a firm background for advanced study in engineering, the physical sciences and mathematics. To demonstrate an understanding of the relationship between current, potential difference, resistance and power. To demonstrate an understanding of transient phenomena in capacitors and inductors. To understand the relationship between electricity and magnetism, particularly, Gauss's Law, Ampere's Law, Faraday's Law and Maxwell's Equations. To demonstrate an understanding of geometrical and physical optics. To demonstrate an understanding of the principles involved in the design of common electrical and optical devices such as motors, generators, transformers, microscopes, and the human eye. V. Academic Integrity: The very nature of higher education requires that students adhere to accepted standards of academic integrity. Therefore, Oakton Community College has adopted a Code of Academic Conduct and a Statement of Student Academic Integrity. These may be found in the Student Handbook. You may also find a summary of the Code of Academic Conduct in the College Catalog. Among the violations of academic integrity listed and defined are: cheating, plagiarism, falsification and fabrication, abuse of academic materials, complicity in academic dishonesty, falsification of records and official documents, personal misrepresentation and proxy, and bribes, favors, and threats. It is the student's responsibility to be aware of behaviors that constitute academic dishonesty. Pursuant to the due process guarantees contained in the Policy and Procedures on Student Academic Integrity, the minimum punishment for the first offense for a student found in violation of the standards of academic integrity is failure in the assignment. In addition, a disciplinary record will be established and kept on file in the office of the Vice President for Student Affairs for a period of 3 years. VI. Sequence of Topics: Coulombs Law Electric field Gauss's Law Electric Potential Capacitors Ohm's Law, Current Energy and Current Source of Magnetic Field Faraday's Law Inductance Magnetic Field in Matter A.C. Circuits Waves Sound Maxwell's Equations Geometrical Optics Diffraction, Interference VII. Methods of Instruction: The lecture, problem-solving and demonstration methods will be used throughout the course. Selected videotapes from the series "Mechanical Universe" will be shown. VIII.Course Practices Required: The required readings will include the textbook, laboratory manual, calculator manuals and selected material supplied by the instructor. Mathematics and problem-solving will be emphasized. Differential and integral calculus will be used throughout the course. The hand-held scientific calculator and the personal computer will be used. Students will be expected to write five laboratory reports. Laboratory practice includes setting up the apparatus correctly, performing the experiment, collecting the data and analyzing it. IX. Instructional Materials: Text: Physics; Leller, Gettys, Skone, 2nd edition, McGraw Hill. Laboratory Manual: Physics Laboratory Experiments; 3rd edition, Jerry Wilson, D.C. Heath and Co. Calculator: A scientific calculator such as the TI-81 or the Casio FX 7000 G. X. Methods of Evaluating Student Progress: There will be eight laboratory reports, three tests plus a comprehensive Final Examination. Each test will consists of a take home assignment plus a classroom test. (Late take home assignments will not be accepted). All Laboratory Reports 20% Classroom tests and take home assignments60% Final comprehensive Exam 20% TOTAL 100% A 90-100% B 80-89.99% C 65-79.99% D 55-64.99% phy222.gen lgc