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Advanced VLSI Physical Design Course

Objectives

This course is designed to help VLSI career aspirants in the field of VLSI Physical Design. It covers complete details from VLSI design specification till VLSI IC physical design flow, helps to acquire suffiecient skills as needed by Industry. Course modules are designed as per Industry needs and provides complete indepth knowledge to handle challenges in VLSI Back End Flow. Aspiring candidates will learn complete knowledge from netlist to GDS2, by working on advanced lower nanometer technology nodes. The course will benefit VLSI Engineers seeking to enter into VLSI backend design job. In this role engineers will be working for Block & full chip level Physical Design Implementation.

The main focus of the course is to make each engineer understand physical design of IC from netlist through GDSII, creating physical layout representation for each logical functions with in blocks to enable IC fabrication process. While in course work, for every candidate more emphasis is given on learning through practicals backed by theoritical concepts taught during classes & in the lab sessions.

Eligibility

With Electronics as major subject in B.E/B.Tech/M.E/M.Tech, atleast 60% throughout academic career. Basic knowledge in Verilog/VHDL, Good knowledge on Digital design, Good knowledge on any Microcontroller/Processor architectures, and Good logical & analytical ability

Selection based on written test and personal Interviews for eligible interested Candidates. Syllabus for written test covers Digital logic design, Processor architecture, and Analytical and Logical questions. Please walkin/mail/call us to schedule for written test & personal interview. Working VLSI/Software professionals will get direct admissions.

Course Outline

    Overview of Digital design methodology, Representations of Digital Design and understanding of digital systems, logic gates, combinational and sequential logic. Review HDL’s and RTL implementation of digital logic systems.


    Introduction to semiconductor technologies, logic gates, Review CMOS basics, CMOS digital design concepts. Understanding CMOS process parameters and characterization of logic gates


    Overview of ASIC/SOC design flow, Digital Design Concepts and Physical Design flow setup. Review of ASIC fundamentals & fabrication methodologies.


    a) Introduction to digital design
    b) Number representation, complements and Boolean logic
    c) Basic logic gates and logic functions
    d) Optimization techniques for logic functions
    e) Design of combinational circuits.
    f) Implementation and analysis of combinational circuits like, adders, comparator, multiplier etc.
    g) Design of synchronous sequential circuits.
    h) Implementation and analysis of sequential circuits Flip-Flops, registers, counters, and simple processor
    i) Design of Asynchronous Sequential Circuits
    j) Design of Finite State Machines (FSM)
    k) Discussion - Special circuits like LFSR, FIFO, barrel shifter etc.
    l) Case study – PROTOCOLS LIKE AHB, APB, PCI, UART etc.


    a) Introduction to Verilog HDL.
    b) Gate-Level modeling.
    c) Dataflow modeling.
    d) Operators.
    e) Data types.
    f) Modeling timing and delays.
    g) Behavioral modeling.
    h) Parameters, tasks and functions.
    i) Compiler directives.
    j) System tasks.
    k) File input/output.
    l) Switch-level modeling.
    m) User Defined Primitives.
    n) Design examples – FSM, ALU, RAM, ROM, UART, Traffic light signal.


    a) Introduction to ASIC's and ASIC flows
    b) Insight into various ASIC design Architecture
    c) Writing RTL for ASIC design flow
    d) ASIC Design Flow using Synopsys and cadence Tools
    e) Using special digital modules in ASIC design
    f) Static RAM and Dynamic RAM
    g) Clock and Reset managements, power sequencing
    h) Clock gating and low power designs
    i) Dedicated arithmetic functions


    a) Simulation and synthesis issues.
    b) RTL design strategies.
    c) Static timing analysis.


    a) Introduction to STA
    b) Comparison with DTA
    c) Timing Path and Constraints
    d) Different types of clocks
    e) Clock domain and Variations
    f) Clock Distribution Networks
    g) How to fix timing failure
    h) Introductions to timing static and dynamic hazards,
    i) Path delay, Gate delay, Metastability states.
    j) Sequential timing delays like set-up time, hold time,
    k) Maximum frequency, violations, slew, slack.
    l) Delay analysis
    m) Sequential logic pad to set up,
    n) pad to pad,
    o) clk to next Reg,
    p) Reg to o/p and
    q) Reg to Reg. violations wrt sequential circuit.


    Design data preparation, process technologies and standard cell libraries. Understanding of standard cell technology parameters, netlist generation and technology mapping. Reviewing timing constraints and IO constraints. Low power and low area design concepts


    Implementation of RTL design and synthesis, generating netlist and estimating performance of synthesized design. Area/timing report checks, design constraints for synthesis. Efficient synthesis techniques. SDF generation


    Design plan for hierarchical and flat design implementation, better partition techniques and flow setup. Special cells and IO cells usage planning, congestion removal techniques and implementation constraint setup.


    Understanding various floor planning techniques, setting up guidelines for better floor planning and meeting design goals. IO PAD placement planning, power planning. Adding power rings and power mesh.


    Placement techniques, various optimization techniques to avoid design congestion. Performing timing analysis at various levels of floor planning. Pre and post placement optimization technique, setting up placement goals to meet design placement constraints, fixing placement issues.


    Implementation of clock tree in placed design, understanding various aspects of timing parameters like clock setup/hold, skew and latency issues, Adding buffers in clock tree and implementing clock tree. Analyzing timing reports after clock tree synthesis and fixing issues.


    Various types of routing, trial route, special route, global routing and detailed routing. Analyzing routed design checking post routed design issues, DRC checks, timing checks, optimization of routing constraints.


    Doing complete path and module based timing analysis, checking timing optimizer reports, identifying failing paths, fixing issues. Extracting capacitor table values for the design. IR drop and electro migration analysis.


    Perform DRC, Logical Equivalence checking, generating detailed timing/power reports, generating power reports. GDS-II generation.


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Sunil K L

Very happy to get trained in vlsi physical design from neoschip Technology, got oppurtunity to learn from basics to full chip implementation. very good lab facilities with 14+ expirience facuilty.

Jyothi R

Excellent training provided in VLSI Physical design, this institute is best in Bangalore for VLSI training. Thanks to Neoschip for helping to get my dreamjob

Raju P

excellent training center for VLSI, I have taken physical design training which helped to get into my dream job