on-chip and Embedded Software Perspectives and Needs



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Systems-on on-chip and Embedded Software - Perspectives and Needs Miguel Santana Central R&D, STMicroelectronics STMicroelectronics

Outline Current trends for SoCs Consequences and challenges Needs: Tackling SoC design complexity Needs: Embedded software development 2

Outline Current trends for SoCs Consequences and challenges Needs: Tackling SoC design complexity Needs: Embedded software development 3

Market size for different sectors 2000 Electronics 4

Market size for different sectors TGV+Satellite launchers 2005 Military Aircrafts Civil Aviation Semiconductors Petroleum exportations 5

Convergence: Voice,, Data, Multimedia Media-Centric Game MP3 Player Imaging Phone Web Pad Voice-Centric Smartphone Communicator PDA Notebook Data-Centric 6

Example: wireless applications HW/SW functions inside 3G phones 2.5G baseband function 3G WCDMA baseband Multimedia engine (MPEG4, MP3..) OS processor GPS / Bluetooth / 802.11 engine DTV 7

Moore s law and price evolution Microelectronic functions are one million times less expensive than in the 70 s 75 000 euros Megabit price 5 000 euros 400 euros 120 euros 30 euros 1973 Source: Siemens 1977 1981 1984 1987 1990 5 euros 0,5 euro0,05 euro 1995 2000 8

SoC at the heart of conflicting trends Time-to-market: Process roadmap acceleration Consumerization of electronic devices Link FEI Dolby AC3 Denc ST20 MPEG2 Video Complex systems: ucs, DSPs HW/SW SW protocol stacks RTOS s Digital/Analog IPs On-Chip busses 2 x 3 DAC Deep sub micron effects: crosstalk electro migration wire delays mask costs (OPC, PSM) 9

Outline Current trends for SoCs Consequences and challenges Needs: Tackling SoC design complexity Needs: Embedded software development 10

The Design Productivity Gap 10000 100000 1000 100 10 1 0.1 0.01 Logic Transistors per Chip (M) Logic Transistors per Chip (M) Productivity (K)Trans./Staff-Mo. Productivity (K)Trans./Staff-Mo. 0.001 CAGR 58% Production CAGR 21% 10000 1000 100 10 Design 1 0.1 0.01 Source ITRS roadmap 1999 1981 1983 1985 1987 1989 1991 1993 1995 1997 1999 2001 2003 2005 2007 2009 11

10 12 Embedded Software more critical 10 10 Gates/chip: 2x / 18 months SW/Chip: 2x / 10 months SW productivity: 2x / 5 years 10 8 10 6 10 4 10 2 +50% / year +140% / year Lines of code 1 60 70 80 90 2000 2010 2020 Gates 12

The Verification Gap 10 000 x more vectors required to validate 100x / 6 years 10B 100M 1M 2002 1996 1990 100k 1M 10M 100x Gate Count 100 x 10 000 = 1 million times more simulation load 10x / 6 years 13

Low Power Requirements System Level Architecture Power/Performance trade-off Memory size and bandwidth optimization Code optimization Quality of Service Disk Drive Controller HCMOS8 0.18um RTL to Layout Activity control Gated clock Power based synthesis Leakage control Supply control Mix High-Speed and Low-Leakage libs HCMOS8 ST20 / ST40 Smart Power/Low-voltage operation Multi-voltage support On-chip voltage regulator(s) 0.25um BiCMOS GSM Power Mgnt 14

Miscellaneous Increasing number of embedded processors No longer 1 or 2, but Heterogeneous processors in many cases Managing parallelism Real-time SW working with the HW Managing threads/tasks in a real-time environment Verifying the right behavior Increasing cost of masks 15

Outline Current trends for SoCs Consequences and challenges Needs: Tackling design complexity Needs: Embedded software development 16

Closing the gap 1000 CAGR 58% 100000 Logic Transistors per Chip (M) Logic Transistors per Chip (M) Productivity (K)Trans./Staff-Mo. CAGR 21% System Level Specification RTL-to-Layout HW-SW co-design IP Reuse Low Power 0.001 Libraries 0.01 Analog-Mixed Signal 1981 1995 2009 17

Tools for SoC Designers System spec. HW/SW partitioning H/W CAD flow Co-design S/W CAD flow IO LOGIC Analog RF Place & route Code Core Data I O LOGIC Data Code Core Processor Analog RF 18

Platform-Based SoC Design 2D graphics MPEG2 video decoder DRAM/SRAM Configurable STBus ROM/OTP FLASH Glue Logic Standard I/O blocks D/A, A/D Reconfigurable Platform e.g: Set-Top Box Display coprocessor 3D processor MMDSP+ ST20/40 uprog peripherals Analog ASIC Proc MPEG2 decoder Display coprocessor SRAM Configured STBus MMDSP+ FLASH ST20 Glue Logic Firewire D/A, A/D S/W S/W F/W uprog peripherals Customer1 Specific Product SW customization HW Blocks Selection Bus Configuration Memories MPEG2 decoder 3D processor SRAM Configured STBus MMDSP+ S/W ROM ST40 S/W Glue Logic Firewire D/A, A/D uprog peripherals F/W Customer2 Specific Product 19

Composing an architecture Configuration items Decomposed application Configurable hw platform SoC 20

Configurable processors Configurable core Application specific instructions Execution units Parameterized control unit Coprocessors Software/hardware marriage Compiler friendly Synthesis friendly Standard interfaces Control Communication ALU 1 Memory MAC Unit ALU 2 Address Unit Config. core processor Shifter Co processor... 21

Outline Current trends for SoCs Consequences and challenges Needs: Tackling design complexity Needs: Embedded software development 22

Hardware vs Embedded Software Log (Number of lines/gates) Systems-on-Chip Chip composition Embedded Software Hardware 1960 1970 1980 1990 2000 2010 23

Progress Achieved Embedded software development Migration to high-level languages High-quality code generation Improvement of processor I/S Interaction with HW development Better support for HW platforms Integration with HW design tools Support for performance evaluation Accurate processor modeling 24

Unresolved Issues Orthogonal embedded processors Irregularities (encoding, registers, ) Specific features Optimizing compilers for embedded software Code size improvement Memory optimization Optimization interaction Adopt/adapt new optimization methods Tool integration Plug-in modules 25

Converging HW/SW CAD flows System specification Operational Constraints Configurable platform Hardware / software partitioning Architectural choices Software coding Tools: analysis and synthesis architecture application OS communications System: hardware + software (correct by construction) Functional and temporal tests OK KO + diagnostic 26

Compilers and SoCs Keystone for embedded software development Synthesizing application code into processor I/S Exploiting processor features Optimizing code and resource usage Driving processor architecture evolution Compiler as a CAD tool for SoCs Compiling for a HW platform (instead of a processor) Assisting SoC architects Automating some choices Interactive work with designers Application analysis feedback Case-based reasoning Managing real-time aspects Compiler Application Architecture 27

Embedded real-time software Support for temporal constraints Specification, modeling, coding, verification Respecting real-time constraints Synthesis of embedded real-time code Static or dynamic scheduling RTOS generation Verifying temporal constraints Modeling application environment Generation of test scenarios Performance evaluation Not max but average performances WCET 28

Other topics System debugging Monitoring distributed systems Observing system evolution Configurable RTOS Customized for application needs Evolution of embedded system developers Mixed software/hardware profile Physical design knowledge Multiprocessing 29

Backup slides 30

Requirements Requirements specification, representation Analysis (cost, schedule, scope) Allocation, partitioning Spec/Design Languages + Modeling Fundamentals Functionality and constraints specification Specification formalisms (formal) Heterogeneity, emerging languages System Design System design conceptual model(s) Design processes/methodology (refinement, validation, constraint propagation, performance evaluation, integration, guidelines) Environment: Distributed Design System Architecture Design space exploration Performance evaluation (quality estimation) System environment description Architecture Description Language Low Power Architecture Synthesis Platform Design Platform modeling Mapping of spec on given platform Product vs technology platforms Reconfigurability/Scalability Programmability Research Domains System IP reuse 31 Reuse/integration of know-how, methods, algorithms, solutions Repository of assets Encapsulation, Interfaces (IF-based design) System Analysis/Estimation (Quality) Functionality vs Architecture Performance analysis / computing (accuracy) High-speed, Low-power, Fault tolerance, RT Automated support Validation/Verification/Testing Validation: requirements, standards Verification: static/dynamic, formal, safety Testing: hierarchical, model-based Reliability Embedded SW reuseable, scalable, flexible, optimised SW architectures, operating systems (RT) Analog, RF, Microsystems Interfacing, performance, reconfiguration Link to Implementation Integration of reconfigurable cores HW/SW Co-design, autom. synthesis, verif Mixing C/HDL models Interconnect driven chip design Best Practice EDA Support, Quality, Standards Training Model design engineers