Code: | EEC0153 | Acronym: | MICA |
Keywords | |
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Classification | Keyword |
OFICIAL | Telecommunications |
Active? | Yes |
Web Page: | http://moodle.up.pt |
Responsible unit: | Department of Electrical and Computer Engineering |
Course/CS Responsible: | Master in Electrical and Computers Engineering |
Acronym | No. of Students | Study Plan | Curricular Years | Credits UCN | Credits ECTS | Contact hours | Total Time |
---|---|---|---|---|---|---|---|
MIEEC | 8 | Syllabus | 5 | - | 6 | 56 | 162 |
This curricular unit aims at empowering students with the abilities and competences to design analogue and mixed-signal circuits in MOS sub-micron technologies. Following the study of the fundamental physics and manufacturing process principles, the simulation and modelling of active and passive components is discussed taking into consideration their implementation in silicon substrates and signals’ amplitude and frequency operating conditions. Afterwards, one proceeds with the design simulation and layout of different analogue and mixed-signal functional modules using dedicated CAD tools.
Deepening of the knowledge on the physics and functional principles of semiconductor devices; get acquainted with fabrication technologies and layout of active and passive devices of MOS circuits; systematic approach to the design of circuits with MOS transistors in different operating modes; understanding of the restrictions and limitations imposed by non-idealities resulting from circuits’ specific functional characteristics and those resulting from implementation and manufacturing processes; analysis of small systems where analogue and mixed-signal circuits and blocks are used.
Knowledge of: circuits’ theory; analysis of circuits with MOS transistors operating in linear and switching modes, principles of feedback theory, frequency response and compensation.
1- Introduction to microelectronics – MOS technology and manufacturing process. Design cycle of and integrated circuit; abstraction levels in the design and simulation of integrated circuits.
2 – Modelling and simulation of MOS circuits: overview of MOSFET’s concepts and operation; MOFET modelling in weak, moderate and strong inversion; advanced SPICE models.
3 – Technology and physical design of MOS active and passive components: optimisation of MOS circuits design for temperature, parasitics, process parameters variability, current leakaging, power, matching, and geometry. Layout of MOS transistors – simple structures, interdigited, common centroid. Design of passive components: capacitors, resistors, and inductors. Interconnections in VLSI analogue circuits: interconnections physics, RC models and transmission lines. Crosstalk and electromigration phenomena.
4 - Design and layout of Basic cells: current and voltage sources, current mirrors, switches, MOS resistors, MOS super transístor.
5 – Design, functional characterization and layout of analogue and mixed-signal modules considering optimization requirements for linearity, symmetrical excursion, frequency response, power consumption and noise: multipliers, operational and transconductance amplifiers (fully-differential and folded cascade architectures and with common-mode feedback), comparators, current conveyor.
6 – Implementation of linear, non-linear, and translinear operators in microelectronics technology
7 – Simulation and sensitivity analysis to functional deviations – variability of manufacturing process parameters, sensitivity analysis and optimum design (design centering), Monte Carlo and corners simulation
8 – Study of particular cases of microsystems involving continuous and discrete time and amplitude circuits: audio systems, wireless, wireline, and optical communication interfaces
The approach to be followed is based on complementing theoretical study with laboratory exercises in order to complete the cycle of specification, design and functional analysis, physical design and optimization of the circuits.
In the set of tutorial and laboratory classes it is sought, for each subject, to obtain a balance among theoretical study, circumstantial analysis of functional and design particularities, and use of CAD tools. In the theoretical classes subjects are presented with reference to pointed-out study material, examples are analyzed and problems solved. Students’ participation is motivated with the preparation and presentation in the class of short synthesis works, monographies, or project results. In laboratory classes students will have the opportunity to get familiar with the use of microelectronics CAD tools.
One can consider that the main teaching and learning methods involved in this approach include, at different levels: lecturing, class discussion, case studies, tutoring, and project based learning.
Designation | Weight (%) |
---|---|
Exame | 30,00 |
Participação presencial | 14,00 |
Prova oral | 21,00 |
Trabalho laboratorial | 35,00 |
Total: | 100,00 |
Designation | Time (hours) |
---|---|
Elaboração de projeto | 42,00 |
Elaboração de relatório/dissertação/tese | 8,00 |
Estudo autónomo | 35,00 |
Frequência das aulas | 48,00 |
Trabalho laboratorial | 32,00 |
Total: | 165,00 |
It is mandatory, in accordance to the general evaluation rules, to attend and participate in at least ¾ of the laboratorial classes.
The approval in this curricular unit requires obtaining at least 9,0/20,0 points in the final exam and at least 9,5/20,0 points in the weighted average of exam and continuous evaluation components.
The final mark comprises two components: continuous evaluation (CE) with a weight of 70% and the final exam (E) with a weight of 30%, i. e., Final Mark = 0,7xCE + 0,3xE.
Continuous evaluation is based on the assessment of students' attitude and performance in the classes and on the evaluation of projects, presentations and reports developed by the student.
Students to whom attending classes is not mandatory, according to current general evaluation rules, should develop a design project together with the delivery of a final report.
Students with particular statute (working students, associations’ leaders, …) have to solve a final exam whose result shall be conjugated with the continuous evaluation mark, maintaining the criterion Final Mark=0,7.CE+0,3.E to calculate the final mark.
The improving of the final mark can be obtained, by the realization of an exam (to be done in the normal exams’ season of the next academic year), which can be theoretical or laboratory, or by the development of a project together with the delivery of a report for the improving of the continuous evaluation.