3-objectives.tex 2.6 KB

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  1. \iffalse
  2. This chapter describes your Goals and Objectives.
  3. Indicate how your work is intended to expand on previous historical work.
  4. Present your motivations; why are you doing this?
  5. Indicate the type of project you have(see the list above).
  6. Types of Projects:
  7. 2) Design and Construction projects:
  8. These types of projects involve the design and construction of some
  9. electrical or electronic apparatus or device within the bounds
  10. of the department's educational mandate.
  11. \fi
  12. This is just a list of research papers and relative context:
  13. \autocite{5403730} - TTA instruction redundancy remoal method with base plus offset addressing load/store function unit (LSFU)
  14. \autocite{4627144} - TTA code compression using arithmetic coding
  15. \autocite{5936440} - Novel processor for Multiple Instruction Multiple Data packet triggered architecture for pipeline and parallel processing.
  16. \autocite{1213033} - Another template based compression method to improve code density
  17. \autocite{1511285} - Scalable FIR filtering on TTA
  18. \autocite{289981} - MOVE32INT TTA implementation. Achieved parallel processing with 80MHz 320Mops/s comparing to RISC 20MHz 20Mops/s. Includes automated design
  19. \autocite{6855236} - Parallel programming of a TTA for LDPC encoding application
  20. \autocite{922340} - TTA for encryption specific ASIP
  21. \autocite{4595596} - Focuses on software pipelining and solved with GNU Linear Programming Kit (Very interesting)
  22. \autocite{1207041} - Try to reduce power by encoding buses thus reducing switching (read a bit more)
  23. \autocite{6972455} - Reducing VLIW interconnects to achieve 10\% core energy in 4-issue VLIW
  24. \autocite{7363689} - Implementing TTA for SDR and focuses on power optimisations. It show ~24.8-26.1\% decrease in power consumption with 3.3\% area increase.
  25. \autocite{8425389} - Using soft cores in comparision to VLIW to have 67\% of resources with up to 88\% improvement in execution time and 21-49\% cost in program size.
  26. \autocite{8682289} - Low power implementation TTA for FFT
  27. \autocite{8573494} - Compressive Sensing Applications on ARM Cortex-A15, NIOS II and TTA architectures. TTA has lowest time and power consumption, however about 2.5 higher area to NIOS II
  28. \autocite{6128530} - Implemented TTA that is efficent on RSA calculations, 3 1024bit pairs/s at 100MHz
  29. \autocite{1540373} - ASIP TTA for matrix inversion.
  30. \autocite{840031} - Introduce Test space exploration costs for TTA templates.
  31. \autocite{6403142} - A novel microachitecture that combines VLIW and TTA for different applications. Takes less area than existing TTA and VLIW
  32. \autocite{6893206} - Instruction template based compression method for TTA processors