Hardware-Software Codesign

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The Experts below are selected from a list of 360 Experts worldwide ranked by ideXlab platform

A Cabrera - One of the best experts on this subject based on the ideXlab platform.

  • hardware software Codesign of configurable fuzzy control systems
    Applied Soft Computing, 2004
    Co-Authors: A Cabrera, Santiago Sanchezsolano, Piedad Brox, A Barriga, R Senhadji
    Abstract:

    Abstract Fuzzy inference techniques are an attractive and well-established approach for solving control problems. This is mainly due to their inherent ability to obtain robust, low-cost controllers from the intuitive (and usually ambiguous or incomplete) linguistic rules used by human operators when describing the control process. This paper focuses on the hardware/software Codesign of configurable fuzzy control systems. Two prototype systems implemented on general-purpose development boards are presented. In both of them, hardware components are based on specific and configurable fuzzy inference architecture whereas software tasks are supported by a microcontroller. The first prototype uses an off-the-shelf microcontroller and a low-complexity Xilinx XC4005XL field programmable gate array (FPGA). The second one is implemented as a system on programmable chip (SoPC), integrating the microcontroller together with the fuzzy hardware architecture and its interface circuits into a Xilinx Spartan2E200 FPGA.

  • hardware software Codesign methodology for fuzzy controller implementation
    IEEE International Conference on Fuzzy Systems, 2002
    Co-Authors: A Cabrera, Santiago Sanchezsolano, A Barriga, R Senhadji, C J Jimenez
    Abstract:

    Describes a HW/SW Codesign methodology for the implementation of fuzzy controllers on a platform composed of a general-purpose microcontroller and specific processing elements implemented on FPGAs or ASICs. The different phases of the methodology, as well as the CAD tools used in each design stage, are presented, with emphasis on the fuzzy system development environment Xfuzzy. Also included is a practical application of the described methodology for the development of a fuzzy controller for a dosage system.

  • prototyping of fuzzy logic based controllers using standard fpga development boards
    Rapid System Prototyping, 2002
    Co-Authors: Santiago Sanchezsolano, A Cabrera, R Senhadji, C J Jimenez, I Aturone, A Arriga
    Abstract:

    This paper describes a design methodology for fuzzy logic-based control systems. The methodology employs hardware/software Codesign techniques according to an 'a priori' partition of the tasks assigned to the selected components. This feature makes it possible to tackle the control system prototyping as one of the design stages. In our case, the platform considered for prototyping has been a development board containing a standard microcontroller and an FPGA. Experimental results from an actual control application validate the efficiency of this methodology.

Preeti Ranjan Panda - One of the best experts on this subject based on the ideXlab platform.

R Senhadji - One of the best experts on this subject based on the ideXlab platform.

  • hardware software Codesign of configurable fuzzy control systems
    Applied Soft Computing, 2004
    Co-Authors: A Cabrera, Santiago Sanchezsolano, Piedad Brox, A Barriga, R Senhadji
    Abstract:

    Abstract Fuzzy inference techniques are an attractive and well-established approach for solving control problems. This is mainly due to their inherent ability to obtain robust, low-cost controllers from the intuitive (and usually ambiguous or incomplete) linguistic rules used by human operators when describing the control process. This paper focuses on the hardware/software Codesign of configurable fuzzy control systems. Two prototype systems implemented on general-purpose development boards are presented. In both of them, hardware components are based on specific and configurable fuzzy inference architecture whereas software tasks are supported by a microcontroller. The first prototype uses an off-the-shelf microcontroller and a low-complexity Xilinx XC4005XL field programmable gate array (FPGA). The second one is implemented as a system on programmable chip (SoPC), integrating the microcontroller together with the fuzzy hardware architecture and its interface circuits into a Xilinx Spartan2E200 FPGA.

  • hardware software Codesign methodology for fuzzy controller implementation
    IEEE International Conference on Fuzzy Systems, 2002
    Co-Authors: A Cabrera, Santiago Sanchezsolano, A Barriga, R Senhadji, C J Jimenez
    Abstract:

    Describes a HW/SW Codesign methodology for the implementation of fuzzy controllers on a platform composed of a general-purpose microcontroller and specific processing elements implemented on FPGAs or ASICs. The different phases of the methodology, as well as the CAD tools used in each design stage, are presented, with emphasis on the fuzzy system development environment Xfuzzy. Also included is a practical application of the described methodology for the development of a fuzzy controller for a dosage system.

  • prototyping of fuzzy logic based controllers using standard fpga development boards
    Rapid System Prototyping, 2002
    Co-Authors: Santiago Sanchezsolano, A Cabrera, R Senhadji, C J Jimenez, I Aturone, A Arriga
    Abstract:

    This paper describes a design methodology for fuzzy logic-based control systems. The methodology employs hardware/software Codesign techniques according to an 'a priori' partition of the tasks assigned to the selected components. This feature makes it possible to tackle the control system prototyping as one of the design stages. In our case, the platform considered for prototyping has been a development board containing a standard microcontroller and an FPGA. Experimental results from an actual control application validate the efficiency of this methodology.

C J Jimenez - One of the best experts on this subject based on the ideXlab platform.

  • hardware software Codesign methodology for fuzzy controller implementation
    IEEE International Conference on Fuzzy Systems, 2002
    Co-Authors: A Cabrera, Santiago Sanchezsolano, A Barriga, R Senhadji, C J Jimenez
    Abstract:

    Describes a HW/SW Codesign methodology for the implementation of fuzzy controllers on a platform composed of a general-purpose microcontroller and specific processing elements implemented on FPGAs or ASICs. The different phases of the methodology, as well as the CAD tools used in each design stage, are presented, with emphasis on the fuzzy system development environment Xfuzzy. Also included is a practical application of the described methodology for the development of a fuzzy controller for a dosage system.

  • prototyping of fuzzy logic based controllers using standard fpga development boards
    Rapid System Prototyping, 2002
    Co-Authors: Santiago Sanchezsolano, A Cabrera, R Senhadji, C J Jimenez, I Aturone, A Arriga
    Abstract:

    This paper describes a design methodology for fuzzy logic-based control systems. The methodology employs hardware/software Codesign techniques according to an 'a priori' partition of the tasks assigned to the selected components. This feature makes it possible to tackle the control system prototyping as one of the design stages. In our case, the platform considered for prototyping has been a development board containing a standard microcontroller and an FPGA. Experimental results from an actual control application validate the efficiency of this methodology.

Santiago Sanchezsolano - One of the best experts on this subject based on the ideXlab platform.

  • hardware software Codesign of configurable fuzzy control systems
    Applied Soft Computing, 2004
    Co-Authors: A Cabrera, Santiago Sanchezsolano, Piedad Brox, A Barriga, R Senhadji
    Abstract:

    Abstract Fuzzy inference techniques are an attractive and well-established approach for solving control problems. This is mainly due to their inherent ability to obtain robust, low-cost controllers from the intuitive (and usually ambiguous or incomplete) linguistic rules used by human operators when describing the control process. This paper focuses on the hardware/software Codesign of configurable fuzzy control systems. Two prototype systems implemented on general-purpose development boards are presented. In both of them, hardware components are based on specific and configurable fuzzy inference architecture whereas software tasks are supported by a microcontroller. The first prototype uses an off-the-shelf microcontroller and a low-complexity Xilinx XC4005XL field programmable gate array (FPGA). The second one is implemented as a system on programmable chip (SoPC), integrating the microcontroller together with the fuzzy hardware architecture and its interface circuits into a Xilinx Spartan2E200 FPGA.

  • hardware software Codesign methodology for fuzzy controller implementation
    IEEE International Conference on Fuzzy Systems, 2002
    Co-Authors: A Cabrera, Santiago Sanchezsolano, A Barriga, R Senhadji, C J Jimenez
    Abstract:

    Describes a HW/SW Codesign methodology for the implementation of fuzzy controllers on a platform composed of a general-purpose microcontroller and specific processing elements implemented on FPGAs or ASICs. The different phases of the methodology, as well as the CAD tools used in each design stage, are presented, with emphasis on the fuzzy system development environment Xfuzzy. Also included is a practical application of the described methodology for the development of a fuzzy controller for a dosage system.

  • prototyping of fuzzy logic based controllers using standard fpga development boards
    Rapid System Prototyping, 2002
    Co-Authors: Santiago Sanchezsolano, A Cabrera, R Senhadji, C J Jimenez, I Aturone, A Arriga
    Abstract:

    This paper describes a design methodology for fuzzy logic-based control systems. The methodology employs hardware/software Codesign techniques according to an 'a priori' partition of the tasks assigned to the selected components. This feature makes it possible to tackle the control system prototyping as one of the design stages. In our case, the platform considered for prototyping has been a development board containing a standard microcontroller and an FPGA. Experimental results from an actual control application validate the efficiency of this methodology.