Course Form I. Summary of Proposed Changes Dept / Program Applied Computing & Electronics Electronics Technology Solid State Electronics I Solid State Electronics II Semiconductors Electronics Lab II Amplifier Lab Short Title (max. 26 characters incl. spaces) Prefix and Course # EET 205 EET 206 EET 121 EET 122 EET 123 Course Title Summarize the change(s) proposed Solid State Elect. I Solid State Elect. II Semiconductors Electronics Lab II Amplifier Lab Course Additions: EET 205 and EET 206 Course Deletions: EET 121, EET 122 and EET 123 II. Endorsement/Approvals Complete the form and obtain signatures before submitting to Faculty Senate Office Please type / print name Signature Requestor: Thomas Gallagher Phone/ email : 243.7814 Thomas.gallagher@uMontana.edu Program Chair/Director: Thomas Gallagher Date Other affected programs Dean: Lynn Stocking Are other departments/programs affected by this modification Please obtain signature(s) from the because of Chair/Director of any such department/ (a) required courses incl. prerequisites or corequisites, program (above) before submission (b) perceived overlap in content areas (c) cross-listing of coursework III: To Add a New Course Syllabus and assessment information is required (paste syllabus into section V or attach). Course should have internal coherence and clear focus. Common Course Numbering Review (Department Chair Must Initial): YES NO Does an equivalent course exist elsewhere in the MUS? Check all relevant disciplines if X course is interdisciplinary. (http://www.mus.edu/Qtools/CCN/ccn_default.asp) If YES: Do the proposed abbreviation, number, title and credits align with existing course(s)? Please indicate equivalent course/campus. If NO: Course may be unique, but is subject to common course review. Be sure to include learning outcomes on syllabus or paste below. The course number may be changed at the system level. Exact entry to appear in the next catalog (Specify course abbreviation, level, number, title, credits, repeatability (if applicable), frequency of offering, prerequisites, and a brief description.) U 205 Solid State Electronics I 4 cr. Offered autumn and spring. Prereq. EET 105 DC Circuit Analysis. An introduction to semiconductor technologies used in solid state electronics with an emphasis on diodes and transistors. Classroom concepts are reinforced through lab-based experiments. U 206 Solid State Electronics II 3 cr. Offered autumn and spring. Prereq. EET 205 Solid State Electronics II. An introduction to semiconductor technologies used in solid state electronics with an emphasis on amplifier circuits, field effect transistors, thyristors, and operational amplifiers. Classroom concepts are reinforced through lab-based experiments. Justification: How does the course fit with the existing curriculum? Why is it needed? EET 205 Solid State Electronics I and EET 206 Solid State Electronics II will be degree requirements for Electronics Technology students. The EET 205/206 sequence will be delivered over two semesters as a replacement to the EET 121/121/123 lecture/lab course block currently delivered during a single semester. Students have found the material challenging to fully comprehend during a single semester of study. Our motive is to improve student success and retention from semester two to semester three. Content covered in EET 121 Amplifier Lab will be completed as a component of the student’s capstone activity. The request re-sequences content and does not involve deletion or addition of material. Are there curricular adjustments to accommodate teaching this course? No Complete for UG courses (UG courses should be assigned a 400 number). Describe graduate increment - see procedure 301.30 http://umt.edu/facultysenate/committees/grad_council/procedures/default.aspx Complete for Co-convented courses Companion course number, title, and description (include syllabus of companion course in section V) See procedure 301.20 http://umt.edu/facultysenate/committees/grad_council/procedures/default.aspx. New fees and changes to existing fees are only approved once each biennium by the YES NO Board of Regents. The coordination of fee submission is administered by Administration and Finance. Fees may be requested only for courses meeting specific conditions according to Policy 940.12.1 http://mus.edu/borpol/bor900/940-12-1.pdf . Please indicate whether this course will be considered for a fee. If YES, what is the proposed amount of the fee? $15 Justification: Course contains a lab where consumable electronic components (i.e. diodes, transistors, & measurement tools) will be required for students. IV. To Delete or Change an Existing Course – check X all that apply Deletion Title EET 121 Basic Electronics EET 122 Electronics Lab I EET 123 Amplifier Lab Course Number From: Level U, UG, From: Change G To: To: Co-convened Description Change Change in Credits From: To: Prerequisites 1. Current course information at it appears in catalog (http://www.umt.edu/catalog) Repeatability Cross Listing (primary program initiates form) Is there a fee associated with the course? 2. Full and exact entry (as proposed) U 121 Semiconductors 4 cr. Offered spring. Prereq., EET 111, 112. Coverage of diode, bipolar transistors and field effect transistor circuits used in electronic applications. The study and analysis of the components and circuits used in semiconductor electronics and an introduction to operational amplifiers. U 122 Electronics Lab II 3 cr. Offered spring. Coreq., EET 121. Bread-boarding, troubleshooting and measuring the electronic characteristics of diodes, bi-polar transistors, JFETS and operational amplifiers. The impact of impedance matching, filtering and power effects on stages of electronic circuits will be covered. U 123 Amplifier and Power Supply Lab 1 cr. Offered spring. Coreq., EET 121. An audio amplifier and dual regulated power supply will be built throughout the semester. 3. If cross-listed course: secondary program & course number 4. If co-convened course: companion course number, title, and description (include syllabus of companion course in section V) See procedure 301.20 http://umt.edu/facultysenate/committees/grad_council/procedures/default.aspx. 5. Is this a course with MUS Common Course Numbering? http://www.mus.edu/Qtools/CCN/ccn_default.asp If yes, please explain below whether this change will eliminate the course’s common course status. YES NO X 6. Graduate increment if level of course is changed to UG. Reference procedure 301.30: http://umt.edu/facultysenate/committees/ grad_council/procedures/default.aspx (syllabus required in section V) 7. Other programs affected by the change Have you reviewed the graduate increment guidelines? Please check (X) space provided. 8. Justification for proposed change Course(s) will no longer be programmatic requirement(s). Electronics Technology V. Syllabus/Assessment Information (must include learning outcomes) Required for new courses and course change from U to UG. Paste syllabus in field below or attach and send digital copy with form. The University of Montana College of Technology Department of Applied Computing and Electronics Course Syllabus EET 205 Solid State Electronics I Credits: 4 Pre-requisite: EET 105 DC Circuit Analysis Faculty Contact: Wally Higgins Thomas Gallagher. Phone: 243.7922 Phone: 243.7814 E-mail: Wally.Higgins@UMontana.edu E-mail: Thomas.Gallagher@UMontana.edu Course Description: An introduction to semiconductor technologies used in solid state electronics with an emphasis on diodes and transistors. Classroom concepts are reinforced through lab-based experiments. Course Overview: Solid State Electronics I is the first in a two-course sequence covering semiconductor technologies. It is delivered using a lecture/lab approach. Over the traditional semester, it meets weekly for two one-hour classroom sessions and one two-hour laboratory session. Classroom activities include lectures, presentations, and demonstrations. Tactile lab activities will be used to reinforce theories and conceptual learning. Students are encouraged to partner on lab activities. Written assignments, lab reports, quizzes, and unit exams will be used to assess student understanding. Course Outcomes: Upon completion of the course students will be able to: Describe and analyze the physical characteristics of semiconductor materials. Analyze the behavior and list the physical characteristics of diodes and transistors including proper biasing. Construct electronic circuits and build practical devices demonstrating theories in solid state electronics. Demonstrate proficiency in the use of test equipment for analyzing and troubleshooting electronic circuit. Use schematics to design, build, and troubleshoot electronic circuits. Required Materials: Malvino, Albert & Bates, David (2007). Electronic Principles. Seventh Edition McGraw Hill. Malvino, Albert & Bates, David (2007). Experiments Manual to accompany Electronic Principles. Seventh Edition McGraw Hill. Scientific Calculator (TI 84-Titanium, TI 86, or TI 89) Digital Multi-meter Assessment Procedures: Assessment Area Lab Reports Chapter Tests Homework 25% 60% 15% Grading Scale 90 to 100 80 to 89 70 to 79 60 to 69 A B C D Topic Outline: 1. Introduction 2. Semiconductors 3. Diode Theory 4. Diode Circuits 5. Special-Purpose Diodes 6. Bi-Polar Junction Transistors 7. Transistor Fundamentals 8. Transistor Biasing The University of Montana College of Technology Department of Applied Computing and Electronics Course Syllabus EET 206 Solid State Electronics II Credits: 3 Pre-requisite: EET 205 Solid State Electronics II Faculty Contact: Wally Higgins Thomas Gallagher. Phone: 243.7922 Phone: 243.7814 E-mail: Wally.Higgins@UMontana.edu E-mail: Thomas.Gallagher@UMontana.edu Course Description: An introduction to semiconductor technologies used in solid state electronics with an emphasis on amplifier circuits, field effect transistors, thyristors, and operational amplifiers. Classroom concepts are reinforced through lab-based experiments. Course Overview: Solid State Electronics II is the second in a two-course sequence covering semiconductor technologies. It is delivered using a lecture/lab approach. Over the traditional semester, it meets weekly for two one-hour classroom sessions and one two-hour laboratory session. Classroom activities include lectures, presentations, and demonstrations. Tactile lab activities will be used to reinforce theories and conceptual learning. Students are encouraged to partner on lab activities. Written assignments, lab reports, quizzes, and unit exams will be used to assess student understanding. Course Outcomes: Upon completion of the course students will be able to: Analyze the behavior and list the physical characteristics of amplifier circuits. Analyze the behavior of field effect transistors, thyristors, and operational amplifiers. Describe the effects of amplification of frequency on AC and DC circuit model. Construct electronic circuits and build practical devices demonstrating theories in solid state electronic. Demonstrate proficiency in the use of test equipment for analyzing and troubleshooting electronic circuit. Use schematics to design, build, and troubleshoot electronic circuits. Required Materials: Malvino, Albert & Bates, David (2007). Electronic Principles. Seventh Edition McGraw Hill. Malvino, Albert & Bates, David (2007). Experiments Manual to accompany Electronic Principles. Seventh Edition McGraw Hill. Scientific Calculator (TI 84-Titanium, TI 86, or TI 89) Digital Multi-meter Assessment Procedures: Assessment Area Lab Reports Chapter Tests Homework 25% 60% 15% Grading Scale 90 to 100 80 to 89 70 to 79 60 to 69 A B C D Topic Outline: 9. Introduction 10. AC Models 11. Voltage Amplifiers 12. CC and CB Amplifiers 13. Power Amplifiers 14. JFETs 15. MOSFETs 16. Thyristors 17. Frequency Effects 18. Differential Amplifiers 19. Operational Amplifiers VI Department Summary (Required if several forms are submitted) In a separate document list course number, title, and proposed change for all proposals. VII Copies and Electronic Submission. After approval, submit original, one copy, summary of proposals and electronic file to the Faculty Senate Office, UH 221, camie.foos@mso.umt.edu. Revised 8-23-11