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Module Description - FT UNJ - Universitas Negeri Jakarta

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Nguyễn Gia Hào

Academic year: 2023

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Module Description

Module name Course Module Module level, if

applicable

Bachelor of Electrical Engineering Code, if applicable 5115-082-3

Subtitle, if applicable

-

Course, if applicable

Elektronics 1 (Elektronika 1)

Semester(s) in which the module is taught

3rd (odd semester)

Person responsible for the module

Lecturer of Course

Lecturer Mochammad Dajohar, ST, M.Sc

Language Indonesian

Relation to Curriculum

This course is a compulsory course and offered in the 3rd semester (odd semester).

Type of teaching, contact hours

Teaching methods used in this course are:

 Lecture (i.e., group investigation, small group discussion, case study, and video based learning)

 Structured assignments (i.e., essays and case study)

 Practice (jobsheets)

The class size for lecture is 30 students.

Contact hours for lecture is 40 hours, assignments (structured tasks) is 48 hours and learn individually 48 hours

Workload For this course, students are required to meet a minimum of 131 hours in one semester, which consist of :

-35 hours for lecture

-48 hours for structured assignments -48 hours for learn individually

Credit points 3 credit points (equivalent with 4.5 ECTS) Requirements

according to the examination regulations

Students must have attended all classes and submitted all class assignments that are scheduled before the final tests.

Recommended prerequisites

The Elektronics 1 course is a continuation of the Electrical Circuits 1 course, so that students have completed the Electrical Circuits 1 course and obtained a minimum grade of C which is a prerequisite to be able to take the Elektronics 1 course.

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Module

objectives/intended learning outcomes

After completing the course and given with this case : Course Learning Objectives (CLO) :

1. Mastering knowledge of semi-conductor components (Diodes, transistors) (10)

2. Calculating the current and voltage on the load of the clipper circuit, clampper, rectifier, transistor load as an amplifier, current and voltage of the Op-amp amplifier circuit, frequency on the active filter (20)

3. Simulating with software the Diode circuit as clipper, clamper and rectifier, transistor circuit as amplifier and switch, mutivibrator circuit, op-amp circuit as amplifier and active filter (30)

4. Able to assemble a series of diodes as clippers, clampers and rectifiers, transistor circuits as amplifiers and switches, mutivibrator circuits, op-amp circuits as amplifiers and active filters (40)

Content Students will learn about :

the basics of the field of electronics so that it can be used to explore the field of advanced electronics. The lecture material includes a discussion of diode semiconductors, half-wave and full-wave rectifiers; CRC, L, LC, CLC filters; Voltage multiplier, Clipper, Clamper, characteristics and uses of Zener Diode, Varactor Diode, Tunnel diode, Photo diode, LED, Infra Red, Photo conductive cell.

Semiconductor Transistor, NPN and PNP Bipolar Transistor, Refraction Transistor. Bipolar transistor as a switch. Multivibrator, Astable, Monostable and Bistable, Op-Amp.

Forms of Assessment

Assessment is carried out based on written examinations, assessment/evaluation of the learning process and performance with the following components: Structured tasks & Jobsheets : 40% ; Mid Test : 30% Final Test: 30%

Study and examination requirements and forms of examination

Study and examination requirements:

- Students must attend 15 minutes before the class starts.

- Students must switch off all electronic devices.

- Students must inform the lecturer if they will not attend the class due to sickness, etc.

- Students must submit all class assignments before the deadline.

- Students must attend the exam to get final grade.

Form of examination:

Written exam: Essay

Media employed Direct Whiteboard and Power Point Presentation.

Reading list Main Reference:

1. Richard Blocher (2004). Dasar Elektronika. Andi Yogyakarta 2. Mike Tooley (2005). Electronic Circuit : Fundamentals and

Application, Burlington

3. K, Lal Kishore(2008). Electronic Device and circuits, BS Publication. Hyderabad

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4. Thomas L. Floyd, David L. Buchla (2014). Electronics Fundamentals Circuits, Devices and Applications, Pearson Edinburg Gate

5. Eighth Edition ESDM. (2019-2028). Rencana Usaha Penyediaan Tenaga Listrik. Jakarta

6. Drs. Purwanto Gendrono (2012) Jobsheet Elektonika pendidikan teknik Elektro Universitas Negeri Jakarta, Jakrta

Referensi

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