We have total of 144 credits in our undergraduate program.
1st Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | MA1101 | Mathematics IA MA1101 MATHEMATICS IA (4 CREDITS) Syllabus:
References:
| 4 |
2 | FI1101 | Elementary Physics IA FI1101 ELEMENTARY PHYSICS IA (4 CREDITS) Syllabus:
Outcomes:
References:
| 4 |
3 | KI1101 | General Chemistry IA KI1101 GENERAL CHEMISTRY IA (3 CREDITS) Syllabus:
Outcomes:
References: Jespersen, N.D., Brady, J.E., and Hyslop, A, Chemistry: The Molecular Nature of Matter, 6 nd, John Wiley, New York, 2012 | 3 |
4 | KU1011 | Indonesian Language: Scientific Writing KU1011 INDONESIAN LANGUAGE: SCIENTIFIC WRITING Syllabus:
Students get materials on variety of language of scientific writing and their characteristics; spelling, capitalization, loan translation, and use of punctuation; word formation and use of word formation in sentences; basic sentence patterns, effective sentences, and sentence variation; terminologies, definitions, and syllogisms; conditions, kinds, developments of paragraphs; selection of topics, themes, titles, and outlining; introductory chapter, issues, analysis, and conclusions; initial complementation and final complementation; typing, citations, and references. | 2 |
5 | KU1160 | Introduction to Mathematics and Natural Sciences KU1160 INTRODUCTION TO MATHEMATICS AND NATURAL SCIENCES Syllabus: This course introduces essensial concepts in mathematics and natural sciences. This course also gives academic culture and the way of thinkings on the development of mathematics and natural sciences. | 2 |
6 | KU1102 | Introduction to Computation KU1102 INTRODUCTION TO COMPUTATION Syllabus:
References:
| 3 |
TOTAL | 18 |
2nd Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | MA1201 | Mathematics IIA MA1201 MATHEMATICS IIA (4 CREDITS) Syllabus:
References:
| 4 |
2 | FI1201 | Elementary Physics IIA FI1201 ELEMENTARY PHYSICS IIA (4 CREDITS) Syllabus:
Electrostatic (electric field, Coulomb Law) , Electric Potential Energy, Electrical Potential, Capacitor. Magnetostic, Electromotive force , Alternating Current, Electromagnetic Wave, Modern Physics, Atomic Physics References:
| 4 |
3 | KI1201 | General Chemistry IIA KI1201 GENERAL CHEMISTRY IIA (3 CREDITS) Syllabus:
Outcomes: After attending this course, students are expected to the ability: 1. To think logically, rationally and critically in solving chemical problems (PLO A) 2. To design or carry out chemical experiments, as well as analyze and interpret data (PLO G) References: Jespersen, N.D., Brady, J.E., and Hyslop, A, Chemistry: The Molecular Nature of Matter, 6, John Wiley, 2012 | 3 |
4 | KU1001 | Sports KU1001 SPORTS Syllabus:
The course includes the theory and practice. The theory involves the importance of sports, the body fitness, nutrition, sports and the principles of training and various games of sport. The Practice includes the physical exercise Outcomes: After attending this course, students are expected to be able to maintain and improve their physical fitness level and be able to understand the positive values of the sport and be able to apply it to life on campus or the general public. References:
| 2 |
5 | KU1202 | Introduction to Engineering and Design KU1202 INTRODUCTION TO ENGINEERING AND DESIGN Syllabus:
References: Philip Kosky et al., Exploring Engineering : An Introduction to Engineering and Design, , , Academic Press, 2010 | 3 |
6 | KU1204 | English KU1204 ENGLISH Syllabus:
| 2 |
TOTAL | 18 |
3rd Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | FI2101 | Mathematical Physics 1A FI2101 MATHEMATICAL PHYSICS 1A (4 CREDITS) Syllabus:
References: 1. M. L. Boas, Mathematical Methods in The Physical Sciences, 3rd, John Wiley & Sons, 2006 2. K. F. Riley, M. P. Hobson, S. J. Bence, Mathematical Methods for Physics and Engineering, , Cambridge University Press, 2006 | 4 |
2 | FI206X | Relegion and Ethics KU206X RELIGION AND ETHICS Related Courses:
| 2 |
3 | FI2102 | Mechanics FI2102 MECHANICS Syllabus:
References:
| 4 |
4 | FI2103 | Electronics FI2103 ELECTRONICS Syllabus:
#analog electronics, analog signal, signal sources, amplifier, #atomic structure of semiconductors, pn junction, diode characteristics, rectifiers, diode limiting and clamping circuits, zener diode, varactor, #structure of BJT, BJT bias circuit, small-signal amplifier, (CE, CC, CB), transistor as switch, #structure of FET, JFET characteristic, JFET biasing, MOSFET characteristics, MOSFET biasing, FET linear amplifiers, #multi-stage amplifiers, power amplifier, #operational amplifier (op-amps), ideal op-amp characteristics (open-loop), op-amps golden rules, inverting, non-inverting, differentials, summing amplifiers, DAC circuit, integrator, differentiator, instrumentation amplifier, comparator, osilator, #pasif filter, bode-plot, amplitude response, phase response, LPF, HPF, BPF, active filters, #voltage regulators, series regulators, shunt regulators, switching regulators, #digital electronics, binary system, logic gates, boolean aljabar, carnoug map, adder circuit, flip-flop, JK flip-flop, counter References:
| 4(2) |
5 | FI2104 | Data Processing and Analysis FI2104 DATA PROCESSING AND ANALYSIS Syllabus:
Understand about the needs of data processing and analysis in physical sciences and others; basic theories of probability (bayesian and frequentist) and probability density functions; using graphs in presenting data, central tendency and dispersion of data and presenting results of measurements; expectation value of probability density function, binomial distribution, normal distribution and chi squares distribution and their applications; uncertainty and error in measurements and its propagation, systematic and biased errors; confidence interval, single and 2-tails intervals, upper and lower limits of measurements in various probability distributions; statistical hypothesis testing, test if the data agrees with the hypothesis, test if the data does not agree with the hypothesis, test of comparison hypothesis, curve fitting and modelling, least squares or chi-squares criteria, fitting using least squares and maximum likelihood; introduction to multivariate analysis for multivariable models; overview of big data References:
| 2 |
TOTAL | 16 |
4th Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | FI2201 | Mathematical Physics IIA FI2201 MATHEMATICAL PHYSICS IIA (4 CREDITS) Syllabus:
References:
| 4 |
2 | FI2202 | Electromagnetic Fields FI2202 ELECTROMAGNETIC FIELDS Syllabus:
References:
| 4 |
3 | FI2203 | Modern Physics FI2203 MODERN PHYSICS Syllabus:
Outcomes:
References:
| 4 |
4 | KU2071 | Pancasila and Civic Education KU2071 PANCASILA AND CIVIC EDUCATION Syllabus:
Outcomes:
References:
| 2 |
5 | FI2204 | Measurement Methods FI2204 MEASUREMENT METHODS Syllabus:
Criteria for precise and accurate measurements; system calibration and error (static and dynamic); measurement indicator system (in analogue, digital and display), data storage; conversion component variable (bridge circuit, the measurement of resistance, inductance, capacitance, frequency and phase) ; system signal conditioning amplifier, differentiator, system integrators), sensor technology (sensor capacitive, resistive, magnetic, hall-effect, piezoelectric, strain gauge, piezoresistive, optical); sensor measurements (temperature, pressure, flow). References: Alan S Moris, Measurement and Instrumentation Principle, , Butterworth Heinemann, 2001 | 2 |
6 | FI2205 | Experimental Physics I FI2205 EXPERIMENTAL PHYSICS I Syllabus:
Introduction to the Physics Experiment I: the basic concept of experimentation; the basics of data representation, processing and interpretation; reporting of experimental results (oral and written). Mechanics (Tensile Strength, Damped Pendulum Oscillation), Waves (Diffraction of X-Rays by periodic structures, Waveguide), Optics (Optical Fibers, Laser spectra & Cavity Modes), Fluids (Flowrate and Permeability) RBL References:
| 2(2) |
TOTAL | 18 |
5th Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | FI3101 | Waves FI3101 WAVES (4 CREDITS) Syllabus:
Outcomes:
References:
| 4 |
2 | XXLING | Environmental Compulsory Courses XXLING ENVIRONMENTAL COMPULSORY COURSES Related courses:
| 2 |
3 | FI3102 | Quantum Physics FI3102 QUANTUM PHYSICS Syllabus:
References:
| 4 |
4 | FI3103 | Thermodynamics FI3103 THERMODYNAMICS Syllabus:
Temperature, Simple Thermodynamic Systems, Work, Heat and the First Law of Thermodynamics, Ideal Gas, Second Law of Thermodynamics, The Carnot Cycle and Kelvin Temperature Scale, Entropy, Pure Substance, Characteristic Functions and Maxwell Relation, First Order Phase Transation and Clausius-Clapeyron Equation. References:
| 3 |
5 | FI3104 | Experimental Physics II FI3104 EXPERIMENTAL PHYSICS II Syllabus:
Introduction to the Physics Experiment II: the basic concept of experimentation; the basics of data representation, processing and interpretation; reporting of experimental results (oral and written). Fluids, Electromagnetism (Charge distribution in metal, Magnetic filed by current), Thermodynamics (Efficiency of heat engine, Analysis of thermodynamics cycle), Modern Physics (Frank-Hertz, Electron diffraction) RBL. References:
| 2(2) |
TOTAL | 15 |
6th Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | FI3201 | Computational Physics FI3201 COMPUTATIONAL PHYSICS Syllabus:
References:
| 3(1) |
2 | FI3202 | Fluid Mechanics FI3202 FLUID MECHANICS Syllabus:
The material covered in this course includes transport phenomena, stationary fluids, Lagrangian and Eulerian frame, stream- and streak-line, mass conservation, momentum and energy conservation, Bernoulli equation, potential flow, viscosity (Newtonian and non-Newtonian fluids), viscous flow, stress and strain tensor, Navier-Stokes equation, non-dimensional analysis (similarity and Reynolds number), force equilibrium, rotational flow, vorticity, laminar boundary layer, drag on plate, turbulence, and introduction to computational fluid dynamics. The course is delivered via lectures, discussions, video, and demonstration by simple experiments. The final note is determined by take-home tests, presentation of scientific articles, and two examinations. References:
| 3 |
3 | FI3203 | Statistical Physics FI3203 STATISTICAL PHYSICS Syllabus:
The topics discussed in this course includes Energy states and energy levels, Macrostates and microstates, The Fundamental Postulate of Statistical Physics, Thermodynamics probability for Bose-Einstein statistics, Fermi-Dirac statistics and Maxwell-Boltzmann statistics, The statistical interpretation of entropy, Gibbs’ paradox, Semi-classical perfect gas, Distribution functions for Bose-Einstein statistics, Fermi-Dirac statistics and Maxwell-Boltzmann statistics, The partition function of Maxwell-Boltzmann statistics, Application of Maxwell-Boltzmann statistics on classical monatomic ideal gas, Equipartition of energy, The harmonic oscillator, The diatomic molecule, Application of Bose-Einstein statistics on Bose-Einstein gas, Black body radiation (the photon gas), The specific heats of solids (the phonon gas), Application of Fermi-Dirac statistics on Fermi-Dirac gas, The electron gas in a metal, Ensembles, The differences between microcanonical ensemble and canonical ensemble, Thermodynamic properties of the canonical ensemble, The partition function of canonical ensemble. References:
| 3 |
4 | XXMANJ | Management Compulsory Courses XXMANJ MANAGEMENT COMPULSORY COURSES Related Courses:
| 2 |
5 | FI3204 | Experimental Physics III FI3204 EXPERIMENTAL PHYSICS III Syllabus:
Four research group based experiments (Nuclear Spectroscopy, Particle Transport Simulation, Geoelectric Method, Seismic Method, Electronic Properties of Material, Electronic Device and Magnetic Properties of Material); Two characterization experiments (Micro-CT, NMR, XRD, SEM, VI characterization); one research rased learning experiment Outcomes:
References:
| 2(2) |
TOTAL | 13 |
7th Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | FI4001 | Solid State Physics FI4001 SOLID STATE PHYSICS Syllabus:
References:
| 3 |
2 | FI4002 | Simulation and Modelling of Physics Systems FI4002 SIMULATION AND MODELLING OF PHYSICS SYSTEMS Syllabus:
References:
| 3 |
3 | FI4003 | Problem Solving in Physics FI4003 PROBLEM SOLVING IN PHYSICS Syllabus:
Every week, students will be provided 2-3 problems in class and 1 problem home works in the area of mechanics, electricity and magnetism, thermodynamics, vibration and wave, optics and atomic physics. The problem should be solved collaboratively in a group of three students to develop mangement skill and teamwork. Outcomes:
References:
| 2 |
4 | FI4091 | Final Project I FI4091 FINAL PROJECT I Syllabus:
FinalProject I andII are integrated coursesthatintroduceresearch to studentsunder theguidance of supervisor. As an introduction, the objective of the research is not intended for high novelty. Outcomes:
| 3(3) |
TOTAL | 11 |
8th Semester
Code | Course Name | Credit(s) | |
---|---|---|---|
1 | FI4004 | Nuclear and Particle Physics FI4004 NUCLEAR AND PARTICLE PHYSICS Syllabus:
Outcomes:
References: Brian Martin, Nuclear and particle physics - an introduction, , John Wiley, 2006 | 3 |
2 | FI4005 | Scientific Communication FI4005 SCIENTIFIC COMMUNICATION Syllabus:
Outcomes: Students should be able to write a scientific paper and be able to make an effective oral presentation References:
| 3 |
3 | FI4092 | Final Project II FI4092 FINAL PROJECT II Syllabus:
Outcomes:
| 3(3) |
TOTAL | 9 |
Elective Courses
Code | Course Name | Credit(s) | Reccomendation semester | |
---|---|---|---|---|
1 | FI2161 | Capita Selecta Earth Physics and Complex System FI2161 CAPITA SELECTA EARTH PHYSICS AND COMPLEX SYSTEM Syllabus:
Introduction to Earth and its interior, from the core, mantle, up to the crust as well as the dynamics and tectonics theory. The introduction of rock parameters such as porosity, permeability, and cracks. The introduction of several types of rocks (carbonate, sandstone, shale, clay), rock mineralogy. Gravity exploration method: from theory, data processing to interpretation, magnetic, elastsitas rocks, refraction seismic, reflection seismic, geoelectric, electromagnetic methods, the complex system of the earth. Outcomes:
References:
| 3 | 3 |
2 | FI2211 | Special Theory of Relativity F12211 SPECIAL THEORY OF RELATIVITY Syllabus:
The course will provide students with basic knowledge about special and general theory of relativity and their consesquences and implications. In general, this course emphasizes the physical and conceptutal aspects, not the mathematical aspects References:
| 2 | 4 |
3 | FI2221 | Science and Technology of Optics and Magnetics FI2221 SCIENCE AND TEHCNOLOGY OF OPTICS AND MAGNETICS Syllabus:
References:
| 2 | 4 |
4 | FI2251 | Biophysics FI2251 BIOPHYSICS Syllabus:
References:
| 2 | 4 |
5 | FI2261 | Physics of Volcanoes and Geothermal Systems FI2261 PHYSICS OF VOLVANOES AND GEOTHERMAL SYSTEMS Syllabus:
Outcomes: Students understand the physics of volcanoes and geothermal system Student can apply their knowledge to analyse the physics of volcanoes and the potency of geothermal energy. Students mastering the systems of volcanoes and principal of geothermal exploration and exploitation References:
| 2 | 4 |
6 | FI2271 | Instrumentation System FI2271 INSTRUMENTATION SYSTEM Syllabus:
Outcomes:
References:
| 3 | 4 |
7 | FI3111 | General Theory of Relativity FI3111 GENERAL THEORY OF RELATIVITY Syllabus:
References:
| 2 | 5 |
8 | FI3121 | Photonics Theory and Applications FI3121 PHOTONICS THEORY AND APPLICATIONS Syllabus:
References:
| 2 | 5 |
9 | FI3131 | Material Science and Engineering FI3131 MATERIAL SCIENCE AND ENGINEERING Syllabus:
Outcomes:
References:
| 2 | 5 |
10 | FI3141 | Nuclear Application and Instrumentation FI3141 NUCLEAR APPLICATIONS AND INSTRUMENTATION Syllabus:
Outcomes:
References:
| 2 | 5 |
11 | FI3151 | Physics of Radiology FI3151 PHYSICS OF RADIOLOGY Syllabus:
Outcomes:
References:
| 2 | 5 |
12 | FI3171 | Microcontroller and Digital Instrumentation FI3171 MICROCONTROLLER AND DIGITAL INSTRUMENTATION Syllabus:
References: Greg Dunko, A Reference Guide to the Internet of Things, , Bridgera LLC, RIoT, 2017 | 2 | 5 |
13 | FI3091 | Insternship FI3091 INTERNSHIP Syllabus:
Outcomes:
| 2(2) | 6 |
14 | FI3092 | Independent Study FI3092 INDEPENDENT STUDY Syllabus:
In this course, the student studies about specific topic independently under supervise of a supervisor. The topic should be discussed and approved by the supervisor. Outcomes:
| 2(2) | 6 |
15 | FI3211 | Advanced Quantum Physics FI3211 ADVANCED QUANTUM PHYSICS Syllabus:
References:
| 2 | 6 |
16 | FI3212 | Group Theory and Symmetry in Physics FI3212 GROUP THEORY AND SYMMETRY IN PHYSICS Syllabus:
References:
| 2 | 6 |
17 | FI3221 | Material Characterizations FI3221 MATERIAL CHARACTERIZATIONS Syllabus:
This course is offered to equipped students with knowledge of materials characterization techniques such as imaging, scattering, spectroscopy. Topics covered in this course are : Introduction to quantitative quality criterion of materials; microscopy, scattering and spectroscopy techniques; qualitative analysis of SEM, TEM and AFM data; X-ray and Neutron imaging techniques; X-ray and Neutron diffraction techniques; vibrational spectroscopy (infrared and Raman); photoelectron spectroscopy (EDS, XPS, XAS) References:
| 2 | 6 |
18 | FI3231 | Synthesis and Characterizations of Electronic Materials FI3231 SYNTHESIS AND CHARACTERIZATIONS OF ELECTRONIC MATERIALS Syllabus:
Students are considered to be competent and pass if at least get 50% of maximum mark from 4 assignments: presentation assignment, mid test and final test. Final Score (NA) Is calculated as follow: 25% Final Oral presentation of the class paper + 25% Final Class Paper Final Grade = 40% Final Exam + 40% Mid-Term Exam + 20% assignments | 3 | 6 |
19 | FI3241 | Reactor Physics FI3241 REACTOR PHYSICS Syllabus:
Outcomes:
References:
| 3 | 6 |
20 | FI3242 | Nuclear Fuel Management FI3242 NUCLEAR FUEL MANAGEMENT Syllabus:
References: R. G. Cochran and N. Tsoulfanidis, The Nuclear Fuel Cycle: Analysis and Management, , ANS, 1999 | 2 | 6 |
21 | FI3251 | Dosimetry and Radiation Protection FI3251 DOSIMETRY AND RADIATION PROTECTION Syllabus:
References:
| 2 | 6 |
22 | FI3252 | Electrophysiology and Bioenergetics FI3252 ELECTROPHYSIOLOGY AND BIOENERGETICS Syllabus:
References: P.S. Nobel, Physicochemical and Environmental Plant Physiology, , Elsevier, 2009 | 2 | 6 |
23 | FI3261 | Econophysics FI3261 ECONOPHYSICS Syllabus:
Outcomes:
References:
| 2 | 6 |
24 | FI3271 | Network-based Instrumentation FI3271 NETWORK-BASED INSTRUMENTATION Syllabus:
References: Greg Dunko, A Reference Guide to the Internet of Things, , Bridgera LLC, RIoT, 2017 | 2 | 6 |
25 | FI4011 | Selected Topics in Theoretical Physics FI4011 SELECTED TOPICS IN THEORETICAL PHYSICS Syllabus:
| 3 | 7 |
26 | FI4051 | Selected Topics on Biophysics and Medical Physics FI4051 SELECTED TOPICS ON BIOPYSICS AND MEDICAL PHYSICS Syllabus:
References:
| 3 | 7 |
27 | FI4121 | Synthesis and Physical Properties of Materials as well as their Functionalizations FI4121 SYNTHESIS AND PHYSICAL PROPERTIES OF MATERIAL AS WELL AS THEIR FUNCTIONALIZATIONS Syllabus:
This course is offered to equipped students with knowledge of the synthesis method of soft materials and the underlying physics and chemistry principless. The participants will be also introduced to physical properties of matter as well as their functionalization for advanced technology applications. The topics of this lecture are: methods of synthesizing soft materials, phenomenological models of physical properties such as: heat and electric conduction properties, magnetic properties and optical properties; and the method of characterization. References: I. W. Hamley, Introduction to soft matter, , John Wiley & Sons, 2007 | 3 | 7 |
28 | FI4131 | Electronic and Optoelectronic Devices FI4131 ELECTRONIC AND OPTOELECTRONIC DEVICES Syllabus:
This course will be systematically discussed following topic: (1) cleanroom technology, (2) substrate/wafer cleaning technique, (3) vacuum technology (4) quantum structure fabrication and thin film deposition technique. (5) lithography and etching technology (6) process integration. This course also discusses the technology development of transistor, spintronics, LED and solar cell devices. References:
| 3 | 7 |
29 | FI4141 | Thermal Hydraulics and Nuclear Safety FI4141 THERMAL HYDRAULIC AND NUCLEAR SAFETY Syllabus:
References:
| 2 | 7 |
30 | FI4161 | Electromagnetic Methods FI4161 ELECTROMAGNETIC METHODS Syllabus:
Review of the theory of electromagnetic field (EM): Maxwell equations, diffusion equations and electromagnetic waves, skin effect, transmission and reflection of EM fields. EM field sources: natural sources, electric dipole, magnetic dipole. Response function of the earth: the impedance tensor, tipper, apparent resistivity and impedance phase. EM methods: the method of magnetotelluric (MT), CSAMT, transient EM (TEM), Very Low Frequency (VLF) method, Ground Penetrating Radar (GPR), measurement techniques, processing and analysis of data, EM data interpretation, application of EM methods for exploration and Earth study. References:
| 2 | 7 |
31 | FI4171 | Computation and Smart Instrumentation System FI4171 COMPUTATION AND SMART INSTRUMENTATION SYSTEM Syllabus:
References:
| 2 | 7 |
32 | FI4041 | Special Topics on Nuclear Physics FI4041 SPECIAL TOPICS ON NUCLEAR PHYSICS Syllabus:
References: Physical Review C, | 2 | 8 |
33 | FI4221 | Selective Topics in Physics of Magnetism and Photonics FI4221 SELECTIVE TOPICS IN PHYSICS OF MAGNETISM AND PHOTONICS Syllabus:
| 2 | 8 |
34 | FI4231 | Selected Topics on Electronic Materials FI4231 SELECTED TOPICS ON ELECTRONIC MATERIALS Syllabus:
Outcomes: students should be able to understand nano materials and devices, related to physical properties and characterization including the syntesis methods and their device applications by eperimentation and computation | 3 | 8 |
35 | FI4261 | Physics of Rocks and Porous Media FI4261 PHYSICS OF ROCKS AND POROUS MEDIA Syllabus:
Outcomes:
References:
| 2 | 8 |
36 | FI4271 | Special Topics in Instrumentation Physics FI4271 SPECIAL TOPICS IN INSTRUMENTATION PHYSICS Syllabus:
in this course we will discuss current topics in instrumentation physics whichc is used in various applications. For example analytical instrumentation, medical instrumentation, and other special applications | 2 | 8 |