The Experts below are selected from a list of 4638636 Experts worldwide ranked by ideXlab platform

Mike Kelley - One of the best experts on this subject based on the ideXlab platform.

  • sysml executable systems of system architecture definition a working example
    2017 Annual IEEE International Systems Conference (SysCon), 2017
    Co-Authors: Judith Dahmann, Aleksandra Markinakhusid, Allison Doren, Thomas Wheeler, Matthew Cotter, Mike Kelley
    Abstract:

    This paper provides a working example of an SoS architecture in systems Modeling Language (SysML) using IBM Rational Rhapsody that was developed in support of the Defense Advanced Research Projects Agency (DARPA) systems of systems (SoS) program Cross-Domain Maritime Surveillance and Targeting (CDMaST). One goal of this effort was to provide the CDMaST program industry participants with an example of an executable SysML model that represented an SoS architecture and supported the DARPA desire for SoS documentation through a model-based implementation approach. The SoS architecture was defined as a selection of platforms, weapons, sensors, and mission systems (elements) operating collectively in the maritime environment, the assignment of weapons, sensors, and mission systems to platforms, the interfaces between elements, and the services SoS elements provide. An architecture element is a distinct component in the overall SoS architecture. Elements include platforms, weapons, communications and data links, sensors, battle managers (manned and unmanned), and systems that support mission processing (e.g. data fusion, targeting etc.). An SoS architecture model provides the framework for two lines of reasoning about the SoS. First, the model reflects the results of physics-based trades conducted to inform architecture decisions. Second, the model defines the systems and behaviors which will be analyzed to demonstrate their operational effectiveness in mission and campaign modeling analyses. The model aims to capture information that is important for analysis, implementation and testing activities.

Kai Zhao - One of the best experts on this subject based on the ideXlab platform.

  • capabilities based requirement demonstration method for weapon system of systems
    International Conference on Intelligent Transportation Systems, 2014
    Co-Authors: Yanping Fan, Qisheng Guo, Kai Zhao
    Abstract:

    In order to correct the unclear cognition on weapon systems-of-system requirement demonstration, there are four contents discussed in this paper. Firstly, the capabilities-based principle is put forward to direct the weapon systems-of-system requirement demonstration. Secondly, the contents of weapon systems-of-system requirement demonstration and their interactional relationship are discussed in detail. Thirdly, the normative analysis workflow and its compositive steps are defined. Finally, the methods are proposed including the decomposing method, the mapping method and the evaluating method. Thus, the researchers are able to understand the contents, the workflow and the methods clearly, and can help improve the work efficiency greatly.

Judith Dahmann - One of the best experts on this subject based on the ideXlab platform.

  • sysml executable systems of system architecture definition a working example
    2017 Annual IEEE International Systems Conference (SysCon), 2017
    Co-Authors: Judith Dahmann, Aleksandra Markinakhusid, Allison Doren, Thomas Wheeler, Matthew Cotter, Mike Kelley
    Abstract:

    This paper provides a working example of an SoS architecture in systems Modeling Language (SysML) using IBM Rational Rhapsody that was developed in support of the Defense Advanced Research Projects Agency (DARPA) systems of systems (SoS) program Cross-Domain Maritime Surveillance and Targeting (CDMaST). One goal of this effort was to provide the CDMaST program industry participants with an example of an executable SysML model that represented an SoS architecture and supported the DARPA desire for SoS documentation through a model-based implementation approach. The SoS architecture was defined as a selection of platforms, weapons, sensors, and mission systems (elements) operating collectively in the maritime environment, the assignment of weapons, sensors, and mission systems to platforms, the interfaces between elements, and the services SoS elements provide. An architecture element is a distinct component in the overall SoS architecture. Elements include platforms, weapons, communications and data links, sensors, battle managers (manned and unmanned), and systems that support mission processing (e.g. data fusion, targeting etc.). An SoS architecture model provides the framework for two lines of reasoning about the SoS. First, the model reflects the results of physics-based trades conducted to inform architecture decisions. Second, the model defines the systems and behaviors which will be analyzed to demonstrate their operational effectiveness in mission and campaign modeling analyses. The model aims to capture information that is important for analysis, implementation and testing activities.

Yanping Fan - One of the best experts on this subject based on the ideXlab platform.

  • capabilities based requirement demonstration method for weapon system of systems
    International Conference on Intelligent Transportation Systems, 2014
    Co-Authors: Yanping Fan, Qisheng Guo, Kai Zhao
    Abstract:

    In order to correct the unclear cognition on weapon systems-of-system requirement demonstration, there are four contents discussed in this paper. Firstly, the capabilities-based principle is put forward to direct the weapon systems-of-system requirement demonstration. Secondly, the contents of weapon systems-of-system requirement demonstration and their interactional relationship are discussed in detail. Thirdly, the normative analysis workflow and its compositive steps are defined. Finally, the methods are proposed including the decomposing method, the mapping method and the evaluating method. Thus, the researchers are able to understand the contents, the workflow and the methods clearly, and can help improve the work efficiency greatly.

Aleksandra Markinakhusid - One of the best experts on this subject based on the ideXlab platform.

  • sysml executable systems of system architecture definition a working example
    2017 Annual IEEE International Systems Conference (SysCon), 2017
    Co-Authors: Judith Dahmann, Aleksandra Markinakhusid, Allison Doren, Thomas Wheeler, Matthew Cotter, Mike Kelley
    Abstract:

    This paper provides a working example of an SoS architecture in systems Modeling Language (SysML) using IBM Rational Rhapsody that was developed in support of the Defense Advanced Research Projects Agency (DARPA) systems of systems (SoS) program Cross-Domain Maritime Surveillance and Targeting (CDMaST). One goal of this effort was to provide the CDMaST program industry participants with an example of an executable SysML model that represented an SoS architecture and supported the DARPA desire for SoS documentation through a model-based implementation approach. The SoS architecture was defined as a selection of platforms, weapons, sensors, and mission systems (elements) operating collectively in the maritime environment, the assignment of weapons, sensors, and mission systems to platforms, the interfaces between elements, and the services SoS elements provide. An architecture element is a distinct component in the overall SoS architecture. Elements include platforms, weapons, communications and data links, sensors, battle managers (manned and unmanned), and systems that support mission processing (e.g. data fusion, targeting etc.). An SoS architecture model provides the framework for two lines of reasoning about the SoS. First, the model reflects the results of physics-based trades conducted to inform architecture decisions. Second, the model defines the systems and behaviors which will be analyzed to demonstrate their operational effectiveness in mission and campaign modeling analyses. The model aims to capture information that is important for analysis, implementation and testing activities.