The Experts below are selected from a list of 113436 Experts worldwide ranked by ideXlab platform

Raymond Namyst - One of the best experts on this subject based on the ideXlab platform.

  • Madeleine: An Efficient and Portable Communication Interface for RPC-based Multithreaded Environments
    1999
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    We introduce MADELEINE, a Communication Interface specifically designed to support distributed, multithreaded applications in both a portable and efficient way. Thanks to its new API, MADELEINE can implement RPC operations without any extra copy with respect to the underlying protocol. MADELEINE can thus achieve very good performance on a variety of protocols (MPI, TCP, BIP, VIA, etc.) and networks (Fast-Ethernet, Myrinet, SCI, etc.). MADELEINE serves as a building block for the multithread programming environment PM2. We provide detailed experimental results for each representat- ive implementation and discuss a number of possible improvements.

  • MADELEINE: An Efficient and Portable Communication Interface for RPC-Based Multithreaded Environments
    1998
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    Due to their ever-growing success in the development of distributed applications, today's multithreaded environments have to be highly portable and efficient on a large variety of hardware. Most of these environments have an implementation built on top of standard Communication Interfaces such as PVM or MPI, which are widely available on existing architectures. Obviously, this approach ensures a high level of portability. However, we show in this paper that these Communication Interfaces do not meet the needs of RPC-based multithreaded environments as far as efficiency is concerned. The contribution of this paper is to propose a new portable and efficient Communication Interface, called MADELEINE, that is especially designed for such multithreaded environments. We report on several implementations of MADELEINE on top of various network protocols that demonstrate the efficiency of our approach.

  • IEEE PACT - MADELEINE: an efficient and portable Communication Interface for RPC-based multithreaded environments
    Proceedings. 1998 International Conference on Parallel Architectures and Compilation Techniques (Cat. No.98EX192), 1
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    Due to their ever-growing success in the development of distributed applications, today's multithreaded environments have to be highly portable and efficient on a large variety of hardware. Most of these environments have an implementation built on top of standard Communication Interfaces such as PVM or MPI, which are widely available on existing architectures. Obviously, this approach ensures a high level of portability. However, we show in this paper that these Communication Interfaces do not meet the needs of RPC-based multithreaded environments as far as efficiency is concerned. We propose a new portable and efficient Communication Interface, called Madeleine, that is especially designed for such multithreaded environments. We report on several implementations of Madeleine on top of various network protocols that demonstrate the efficiency of our approach.

Luc Bougé - One of the best experts on this subject based on the ideXlab platform.

  • Madeleine: An Efficient and Portable Communication Interface for RPC-based Multithreaded Environments
    1999
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    We introduce MADELEINE, a Communication Interface specifically designed to support distributed, multithreaded applications in both a portable and efficient way. Thanks to its new API, MADELEINE can implement RPC operations without any extra copy with respect to the underlying protocol. MADELEINE can thus achieve very good performance on a variety of protocols (MPI, TCP, BIP, VIA, etc.) and networks (Fast-Ethernet, Myrinet, SCI, etc.). MADELEINE serves as a building block for the multithread programming environment PM2. We provide detailed experimental results for each representat- ive implementation and discuss a number of possible improvements.

  • MADELEINE: An Efficient and Portable Communication Interface for RPC-Based Multithreaded Environments
    1998
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    Due to their ever-growing success in the development of distributed applications, today's multithreaded environments have to be highly portable and efficient on a large variety of hardware. Most of these environments have an implementation built on top of standard Communication Interfaces such as PVM or MPI, which are widely available on existing architectures. Obviously, this approach ensures a high level of portability. However, we show in this paper that these Communication Interfaces do not meet the needs of RPC-based multithreaded environments as far as efficiency is concerned. The contribution of this paper is to propose a new portable and efficient Communication Interface, called MADELEINE, that is especially designed for such multithreaded environments. We report on several implementations of MADELEINE on top of various network protocols that demonstrate the efficiency of our approach.

  • IEEE PACT - MADELEINE: an efficient and portable Communication Interface for RPC-based multithreaded environments
    Proceedings. 1998 International Conference on Parallel Architectures and Compilation Techniques (Cat. No.98EX192), 1
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    Due to their ever-growing success in the development of distributed applications, today's multithreaded environments have to be highly portable and efficient on a large variety of hardware. Most of these environments have an implementation built on top of standard Communication Interfaces such as PVM or MPI, which are widely available on existing architectures. Obviously, this approach ensures a high level of portability. However, we show in this paper that these Communication Interfaces do not meet the needs of RPC-based multithreaded environments as far as efficiency is concerned. We propose a new portable and efficient Communication Interface, called Madeleine, that is especially designed for such multithreaded environments. We report on several implementations of Madeleine on top of various network protocols that demonstrate the efficiency of our approach.

Jean-françois Méhaut - One of the best experts on this subject based on the ideXlab platform.

  • Madeleine: An Efficient and Portable Communication Interface for RPC-based Multithreaded Environments
    1999
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    We introduce MADELEINE, a Communication Interface specifically designed to support distributed, multithreaded applications in both a portable and efficient way. Thanks to its new API, MADELEINE can implement RPC operations without any extra copy with respect to the underlying protocol. MADELEINE can thus achieve very good performance on a variety of protocols (MPI, TCP, BIP, VIA, etc.) and networks (Fast-Ethernet, Myrinet, SCI, etc.). MADELEINE serves as a building block for the multithread programming environment PM2. We provide detailed experimental results for each representat- ive implementation and discuss a number of possible improvements.

  • MADELEINE: An Efficient and Portable Communication Interface for RPC-Based Multithreaded Environments
    1998
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    Due to their ever-growing success in the development of distributed applications, today's multithreaded environments have to be highly portable and efficient on a large variety of hardware. Most of these environments have an implementation built on top of standard Communication Interfaces such as PVM or MPI, which are widely available on existing architectures. Obviously, this approach ensures a high level of portability. However, we show in this paper that these Communication Interfaces do not meet the needs of RPC-based multithreaded environments as far as efficiency is concerned. The contribution of this paper is to propose a new portable and efficient Communication Interface, called MADELEINE, that is especially designed for such multithreaded environments. We report on several implementations of MADELEINE on top of various network protocols that demonstrate the efficiency of our approach.

  • IEEE PACT - MADELEINE: an efficient and portable Communication Interface for RPC-based multithreaded environments
    Proceedings. 1998 International Conference on Parallel Architectures and Compilation Techniques (Cat. No.98EX192), 1
    Co-Authors: Luc Bougé, Jean-françois Méhaut, Raymond Namyst
    Abstract:

    Due to their ever-growing success in the development of distributed applications, today's multithreaded environments have to be highly portable and efficient on a large variety of hardware. Most of these environments have an implementation built on top of standard Communication Interfaces such as PVM or MPI, which are widely available on existing architectures. Obviously, this approach ensures a high level of portability. However, we show in this paper that these Communication Interfaces do not meet the needs of RPC-based multithreaded environments as far as efficiency is concerned. We propose a new portable and efficient Communication Interface, called Madeleine, that is especially designed for such multithreaded environments. We report on several implementations of Madeleine on top of various network protocols that demonstrate the efficiency of our approach.

Francisco Martín González - One of the best experts on this subject based on the ideXlab platform.

  • Wireless Communication Interface for EEG/PSG Holter monitor
    Journal of medical engineering & technology, 2010
    Co-Authors: Ernesto Velarde Reyes, Francisco Marante Rizo, Belkis Morgalo Santos, Jorge Garrote Jorge, Francisco Martín González
    Abstract:

    Communication Interfaces for medical devices are normally wired. For long-term monitoring applications, wired devices limit patient mobility. In this paper a wireless Communication Interface for an EEG/PSG Holter monitor is presented. Selection of broadcasting band, Communication standard, available hardware, and connection algorithm to use are discussed before making a choice. Results of experimental tests carried out on the prototype demonstrate the functionality of the implemented Interface.

  • Innovation Wireless Communication Interface for EEG/PSG Holter monitor
    2010
    Co-Authors: Ernesto Velarde Reyes, Francisco Marante Rizo, Belkis Morgalo Santos, Jorge Garrote Jorge, Francisco Martín González
    Abstract:

    Communication Interfaces for medical devices are normally wired. For long-term monitoring applications, wired devices limit patient mobility. In this paper a wireless Communication Interface for an EEG/PSG Holter monitor is presented. Selection of broadcasting band, Communication standard, available hardware, and connection algorithm to use are discussed before making a choice. Results of experimental tests carried out on the prototype demonstrate the functionality of the implemented Interface.

Zhang Shu-dan - One of the best experts on this subject based on the ideXlab platform.

  • Design of a Serial Communication Interface Used in DSP Chip
    Computer Engineering, 2012
    Co-Authors: Zhang Shu-dan
    Abstract:

    In general,the synchronous serial Communication Interfaces often have the problems of low data transfer rate and poor flexibility when transfering data.A fully new serial Communication Interface is proposed in this paper.A new data transfer protocol is defined,in which multiple data types and the function of address prediction are added.The Interface circuit is implemented by the Hardware Description Language(VHDL) and synthesized in TSMC’s 65 nm CMOS process.Simulation and synthesis results coincide with high data transfer rate of 125 MHz,and the design is successfully applied in a 32-bit Digital Signal Processor(DSP).