High Level Architecture Sample Clauses

High Level Architecture. The Platform architectural design is strategically arranged to promote Customer data confidentiality, integrity and availability. This architecture includes: - Data segregation; - Consistency checks; - Log management; and - Active monitoring using situational awareness algorithms.
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High Level Architecture. BOUNCE aims to build an open architecture to maximise the benefits of combining technologies and data from different partners and organisation. The architecture will be constructed based on an iterative incremental process of software development. Short iterations will help keep quality under control by driving to a releasable state frequently, which will prevent the project from collecting a large backlog of defect correction work. Refinements of the architecture will take place during the whole lifetime of the project driven by the iterative feedbacks from all stakeholders. The general BOUNCE architecture is envisioned as a framework, which integrates several building blocks oriented to support/predict the resilience of women with breast cancer. The building blocks are organized in three tiers:
Sample 1
High Level Architecture. Figure 3 presents the architectural elements of RESOLVD platform and their interconnections, briefly explained below and presented in more detail in Table 1 and in the next chapters. Figure 3 RESOLVD Platform The RESOLVD platform is composed of the following architectural elements: • The Enterprise Service Bus (ESB), acting as an integration middleware; • The Data Analytics Platform (DAP), acting as a central data repository and data analysis and visualization provider; • The AAA Server, serving as the security infrastructure; • The Operation Applications, managing advanced grid operations and providing a UI. Table 1 RESOLVD Platform Components Component Name Description Enterprise Service Bus The Enterprise Service Bus (ESB) is the means to connect service consumers with service providers, enabling them to route service calls, transform messages, mediate between communication protocols and data models and orchestrate complex business processes. In the context of the project, the ESB will be used for interfacing and interaction among the various legacy system as well as applications and services that will be implemented in the project, through standard interfaces. The ESB will be responsible for the orchestration of the execution of the various modules, as well as the coordination of data exchanges with different systems (GIS, MDMS, DAP, WAMS etc.). Data Analytics Platform The DAP consists of the infrastructure that is responsible for data management, analysis and visualization. On one hand, it will integrate and homogenize data from third party applications and services via appropriate interfaces, which may differ among different data providers. It will act as a centralized storage of data from legacy systems and results of computation algorithms, allowing the decoupling of the legacy systems from the operation of the advanced functionalities offered by the operation applications. DAP will also be able to host the calculations of key performance indicators e.g. regarding the impact of the grid operations, being able to provide them as a service. Finally, DAP will provide visualizations, enabling end users to view both raw data stored on DAP as well as the insights gained from analytic computations. AAA Server The AAA Server will be utilized for the integration of security mechanisms in a network of services. This security infrastructure will provide authentication, authorization, and accounting and will safeguard the platform’s resources/services. Operati...
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High Level Architecture. In the upper part of the architect the Modelling Xxxxx resides. In this layer, three distinct editors exist. Initially, the Service Graph Editor is responsible to author and maintain application templates of cloud-native components. Since the term cloud-native is usually “overloaded”, the definition that applies consistently across this document is that a cloud- native component is any software artefacts that follows the 12-factor principles [36]. According to these principles, any software component that can operate on top of an isolated compute-environment with abstracted configuration profile and dependencies can be considered as cloud-native. These templates formulate a direct acyclic graph (DAG) and in the context of RAINBOW should be verified both at design- and runtime; fog nodes hosting these cloud-native components should be able to provide verifiable evidence on their configuration integrity and correctness, thus, enabling the creation of privacy- and trust-aware service graph chains with the capability of Secure Zero Touch Provisioning (S-ZTP). S-ZTP allows the automatic and secure establishment of trust, called enrolment, between a new fog node/device connected to the network and the Orchestration Lifecycle Manager, without the need of any manual intervention. S-ZTP eliminates the need of trust on first use or out-of-band trust establishment schemes, which, in practice can be very unreliable from the perspectives of trust model, organization and cost. As can be seen in Section 6.3, the result of a successful enrolment will be based on the output of the RAINBOW trust enablers (i.e., attestation agents) and will be materialized by the issuance of an appropriate (TLS) certificate that can be then used to securely communicate with the backend Orchestrator or with other nodes. Existing cloud-orchestrators (as the ones examined in 2.2 such as Docker Swarm, Kubernetes) maintain their own version of DAG representation (e.g. docker- compose[37], Helm charts [38]). RAINBOW will maintain backward compatibility with the de-facto DAG models. However, on top of these models, specific modelling extensions will be provided that will drive sophisticated orchestration logic. These metadata include, mainly, deployment constraints, resource constraints, operational constraints and security constraints. For example, let us assume an application that aims to capture live video from several drones and use these streams in order to perform both local and remote data p...
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High Level Architecture 
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Related to High Level Architecture

  • Architecture The Private Improvements shall have architectural features, detailing, and design elements in accordance with the Project Schematic Drawings. All accessory screening walls or fences, if necessary, shall use similar primary material, color, and detailing as on the Private Improvements.

  • Physical Architecture 59.2.1 CenturyLink's network architecture in any given local exchange area and/or LATA can vary markedly from another local exchange area/LATA. Using one or more of the NIMs herein, the Parties will agree to a physical architecture plan for a specific LATA, or if appropriate based on other requirements in Section 59, Local Calling Area. The physical architecture plan, as described in the Local Interconnection POI Profile, will be discussed during joint implementation planning. CLEC and CenturyLink agree to Interconnect their networks through existing and/or new Interconnection Facilities between CLEC switch(es) and CenturyLink's End Office Switch(es) and/or Tandem Switch(es). The physical architecture plan will be in accordance with Forecasting and Planning requirements in Article IV.

  • Configuration Management The Contractor shall maintain a configuration management program, which shall provide for the administrative and functional systems necessary for configuration identification, control, status accounting and reporting, to ensure configuration identity with the UCEU and associated cables produced by the Contractor. The Contractor shall maintain a Contractor approved Configuration Management Plan that complies with ANSI/EIA-649 2011. Notwithstanding ANSI/EIA-649 2011, the Contractor’s configuration management program shall comply with the VLS Configuration Management Plans, TL130-AD-PLN-010-VLS, and shall comply with the following:

  • Network Interconnection Architecture Each Party will plan, design, construct and maintain the facilities within their respective systems as are necessary and proper for the provision of traffic covered by this Agreement. These facilities include but are not limited to, a sufficient number of trunks to the point of interconnection with the tandem company, and sufficient interoffice and interexchange facilities and trunks between its own central offices to adequately handle traffic between all central offices within the service areas at P.01 grade of service or better. The provisioning and engineering of such services and facilities will comply with generally accepted industry methods and practices, and will observe the rules and regulations of the lawfully established tariffs applicable to the services provided.

  • Start-Up and Synchronization Consistent with the mutually acceptable procedures of the Developer and Connecting Transmission Owner, the Developer is responsible for the proper synchronization of the Large Generating Facility to the New York State Transmission System in accordance with NYISO and Connecting Transmission Owner procedures and requirements.

  • Schematic Design Phase Services § 3.2.1 The Architect shall review the program and other information furnished by the Owner, and shall review laws, codes, and regulations applicable to the Architect’s services.

  • Industry Troubleshooter Where a difference arises between the parties relating to the dismissal, discipline, or suspension of an employee, or to the interpretation, application, operation, or alleged violation of this Agreement, including any question as to whether a matter is arbitrable, during the term of the Collective Agreement, Xxxxx XxXxxxxxxx, Xxxx Xxxxxx, Xxxxx Xxxxxxxx, or a substitute agreed to by the parties, shall at the request of either party:

  • Design Development Phase Services 3.3.1 Based on the Owner’s approval of the Schematic Design Documents, and on the Owner’s authorization of any adjustments in the Project requirements and the budget for the Cost of the Work, the Architect shall prepare Design Development Documents for the Owner’s approval. The Design Development Documents shall illustrate and describe the development of the approved Schematic Design Documents and shall consist of drawings and other documents including plans, sections, elevations, typical construction details, and diagrammatic layouts of building systems to fix and describe the size and character of the Project as to architectural, structural, mechanical and electrical systems, and other appropriate elements. The Design Development Documents shall also include outline specifications that identify major materials and systems and establish, in general, their quality levels.

  • Interface A defined set of transmission facilities that separate Load Zones and that separate the NYCA from adjacent Control Areas. Investor-Owned Transmission Owners. A Transmission Owner that is owned by private investors. At the present time these include: Central Xxxxxx Gas & Electric Corporation, Consolidated Edison Company of New York, Inc., New York State Electric & Gas Corporation, Niagara Mohawk Power Corporation, Orange and Rockland Utilities, Inc., and Rochester Gas and Electric Corporation.

  • Interfaces Bellcore’s GR-446-CORE defines the interface between the administration system and LIDB including specific message formats. (Bellcore’s TR-NWP-000029, Section 10)

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