Budapest University of Technology and Economics, Faculty of Electrical Engineering and Informatics

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    Microelectronics Design

    A tantárgy neve magyarul / Name of the subject in Hungarian: Mikroelektronikai tervezés

    Last updated: 2015. február 6.

    Budapest University of Technology and Economics
    Faculty of Electrical Engineering and Informatics

    Branch of Electrical Engineering
    BSc
    Microelectronics design and manufacture specialization 

    Course ID Semester Assessment Credit Tantárgyfélév
    VIEEAC01 5 2/1/0/v 4  
    3. Course coordinator and department Dr. Horváth Péter,
    4. Instructors

    Name:

    Affiliation:

    Department, institute:

    Dr. Peter Gaertner

    Hon. associate professor

    Department of Electron Devices

    Dr. Sándor Ress

    Associate professor

    Department of Electron Devices

    Dr. György Bognár

    Associate professor

    Department of Electron Devices

    Gyula Horváth

    Assistant professor

    Department of Electron Devices

    5. Required knowledge

    Microelectronics, Electronics 1, Digital technic 1-2

    6. Pre-requisites
    Kötelező:
    ((Szakirany("AVINmikrogyart", _) VAGY
    Szakirany("AVINmikroterv", _) VAGY
    Szakirany("AVIelektro", _) VAGY
    Szakirany("AVImikro", _) )

    VAGY Training.code=("5NAA7") )

    ÉS NEM ( TárgyEredmény( "BMEVIEEA328" , "jegy" , _ ) >= 2
    VAGY
    TárgyEredmény("BMEVIEEA328", "FELVETEL", AktualisFelev()) > 0)

    A fenti forma a Neptun sajátja, ezen technikai okokból nem változtattunk.

    A kötelező előtanulmányi rendek grafikus formában itt láthatók.

    Ajánlott:

    Recommended:
    Signature in Electronics 1.
    Obtained credits in Microelectronics

    7. Objectives, learning outcomes and obtained knowledge

    The course gives insight to the design, realization and verification of modern digital circuits. The course discusses the properties of programmable devices and integrated circuits which are manufactured in small quantities or during prototyping.

    The course introduces the modern computer aided design (CAD) tools and their structure and functionality. It shows the usual algorithms of design, simulation and synthesis used to construct such circuits. The course gives detailed information on the methodology of standard cell IC design from specification to tape-out.

    It introduces high-level languages, programmable devices and CAD systems used to design and describe digital systems.

    8. Synopsis

    1.      Implementation of digital circuits (full-custom, semi-custom, PLA, CPLD, FPGA, etc.). Implementation alternatives of different hardware devices,

    2.      Cooperative design and manufacture from full-custom to FPGA. The tasks of the designer,

    3.      Hardware-software co-design,

    4.      Design flow, production flow,

    5.      Synchronous and asynchronous digital circuits. General issues of low power design,

    6.      Virtual Component (VC) and intellectual property (IP) based design,

    7.      Static and dynamic CMOS and BiCMOS circuit implementations,

    8.      Circuit simulation, models, model parameters,

    9.      Logic simulation, definition of models and parameters from circuit simulation,

    10.  Functional and structural tests,

    11.  Failure-models, structural test generation, failure simulation. Digital test automation. Design for testability, scan-path,

    12.  Design systems (CAD, Mentor, Cadence), top-down, bottom-up design style.

    13.  Masks and technologies necessary for integrated circuit manufacture. Layout design rules,

    14.  Cell placement and routing algorithms,

    15.  Design with HDL. Steps of synthesis. Verilog commands and their effect on synthesis. Synthesis and timing. Timing analysis, wire-load model, preliminary placement,

    16.  Structure and operation of microprocessors, microcontrollers and signal processors. Neumann and Harvard processors. Static and dynamic memories.

    17.  Technology-dependent design steps of FPGA devices (format converters, logic partitioning, placement and routing modules),

    18.  Structure, operation, dissipation and costs of GPP, FPGA, SoC, SiP, microcontroller devices,

    19.  Program and data memory. I/O operations, interrupt, DMA handling, adaption and operation of input devices and displays in programmable devices,

    20.  Simulation, testing, calibration, cost-efficiency.

    The course has a laboratory practice (2 hours/week)

    1.      Introduction of the design of a complete ASIC specification as a use-case. The role of the designer as the contact person between the procurer and the manufacturer should be highlighted,

    2.      Use-case of a digital system design. E.g. washing machine controller ASIC described in Verilog using top-down methodology and hierarchy,

    3.      Design for testability. Introduction of ad-hoc methods on concrete circuits. Extension of an ASIC with scan-path circuit, demonstrated with simulations.

    4.      Usage of programmable devices in circuit realization,

    5.      Demonstration of alternatives after circuit synthesis (ASIC vs. FPGA),

    6.      Demonstration of the synthesis of a moderately complex ASIC Verilog description.

    7.  Demonstration of floorplanning from description to full chip layout.

    9. Method of instruction

    3 hours/week lecture and 2 hours/week computer based demonstration with practical examples, case studies and hands-on tutorials. Demonstration of design using CAD tools. Typical calculations, design and sizing are demonstrated with practical examples.

    10. Assessment

    Conditions of signature:

    One mid-semester test. The acquired signature can be brought forward to the next semester.

    One exam in exam period. Pre-exam can be written provided the mid-semester test reached mark 4.

    11. Recaps

    There is one repeat possibility in the supplementary period.

    12. Consultations

    By appointment with the instructors.

    13. References, textbooks and resources

    ·         Dr. Mojzes Imre editor., „Mikroelektronika és technológia”, Műegyetem kiadó, 2005, ISBN 9634208479

    ·         Wai-Kai Chen , ”The VLSI handbook”, CRC Press LLC, 2000. ISBN 0-8493-8593-8

    ·         Kovács F. Ferenc, „Az informatika VLSI áramkörei”, Pázmány Egyetem Elektronikus Kiadó, 2004,

    14. Required learning hours and assignment

    Classes

    60

    Preparation for classes

    0

    Preparation for test

    20

    Homework

    0

    Learning the prescribed matters

    15

    Preparation for exam

    25

    Sum

    120

    15. Syllabus prepared by

    Name:

    Affiliation:

    Department, institute:

     

    Dr. György Bognár

    Associate professor

    Department of Electron Devices

    Dr. Peter Gaertner

    Hon. associate professor

    Department of Electron Devices

    Dr. András Timár

    Assistant professor

    Department of Electron Devices

    Gyula Horváth

    Assistant professor

    Department of Electron Devices