EE 7000-6: High-Level Synthesis

MWF 7:40 - 8:30                              Spring 2006

Course Handouts and Other Material


Title: EE 7000-6: High-Level Synthesis
Professor: J. (Ram) Ramanujam, 345 EE Bldg., 578-5628 (Email: jxr [at] ece [dot] lsu [dot] edu)
Time and Place:   7:40 - 8:30 MWF, room 149 Elec. Engr. Bldg.
Text: Class notes and recent papers from the literature. NO REQUIRED TEXT
References: 1.  Synthesis and Optimization of Digital Circuits, Giovanni De Micheli, McGraw-Hill, 1994.
2.  High-Level Synthesis: Introduction to Chip and System Design, D. Gajski, N. Dutt, ..., Kluwer, 1992.
3.  Introduction to Algorithms, T. Cormen, C. Leiserson, R. Rivest, MIT Press, 1990.
Prerequisites:   Graduate standing. No need for background in VLSI or compilers.
Goals: To familiarize s tudents with the techniques used in high-level synthesis

Course Description
The course deals with synthesis and optimization of large scale digital systems primarily at the architectural level, starting from a high-level specification. We will also take a look at the effect of compiler transformations on design quality. System-level (hardware and software) design issues will also be discussed. We will discuss relevant graph algorithms for scheduling and other problems in synthesis, along with a discussion of good lower and upper bounds for problems. This course covers topics in an important emerging area in digital design.

Course Topics

  • Introduction: digital synthesis, application-specific ICs.
  • Background in areas such as
    • graph algorithms
      • depth-first and bread-first search
      • shortest and longest path
      • interval graphs
    • combinatorial optimization
      • integer linear programming (ILP)
      • ILP problem formulation
      • lower and upper bounds
  • High-level synthesis of data-flow and control units from architectural spe cifications:
    • clock selection; module selection; resource allocation
    • operation scheduling and register binding
    • register and memory synthesis
    • power optimizations
    • design space exploration
  • Compiler/software optimization: program analysis and transformations.
  • Memory estimation and design
  • System-level synthesis; hardware-software co-design.


Grading

  • Projects, Termpaper and Presentation 40%
  • Two tests (17.5% each)
  • Final 25%
Last modified: Fri Feb 17 14:00:00 CST 2006