System Architecture Clause Samples

System Architecture. We start with a description on the architecture, security features and thread model.

System Architecture. It is recommended that there be a single PCB-Design containing all interfaces for connectors, LCD, switches and buttons.

System Architecture. <A description of the physical system architecture, to include the system management. A diagram will be needed here>

System Architecture. The VVDC system comprises a WinTV-USB device (details for this device are available at ▇▇▇▇://▇▇▇.▇▇▇▇▇▇▇▇▇.▇▇▇/html/usb_data.htm) and a personal computer. It is designed for both online and offline operations on a regular personal computer running Windows 2000 or Windows XP. The personal computer used for VVDC system development was a Dell Latitude D600 laptop computer with a Pentium M 1.6 GHz Central Computing Unit, 1-GB memory, and a 32-MB ATI Radeon 9000 video card. It ran the Windows XP Professional operating system. The WinTV-USB device is used for digitizing live video signals. When the VVDC system is executed offline, it reads digitized video images from a storage media, and the WinTV-USB device is not necessary. For online operations, the VVDC system reads real-time images from the WinTV-USB device from the location where a live video signal source is connected. The live video source can be a video cassette player or a video camera. The components of the VVDC system and possible video data sources are shown in Figure 6-1. Video Data link Computer Video Data Source The software component of the VVDC system was written in the Microsoft Visual C# programming language. It has six modules: a live video capture module, a user input module, a background extraction module, a vehicle detection module, a shadow removal module, and a length-based classification module. The relationships among these modules are illustrated in Figure 6-2. Details of each module are described in the following sections. Background Extraction Queue Image media Nth Image … 2nd Image Live video No Detection line occupied? Yes No Vehicle registered? No Yes Yes Count long vehicle Count the vehicle USB Port Extracted background Pixel-based length New Frame Get Bounding Box Shadow sample LV threshold Virtual detector Vide capture Edge Detection Compute Centroid Shadow Removal Find the median of color values for each pixel 1st Image USB Port Live video Vide capture No Detection line Yes No Yes Count the vehicle

System Architecture. MODULES: 1. Authority User Verification 2. Privacy-preserving 3. Key distribution &Access control 4. Collusion attack 5. Secure data sharing 6. Cloud storage

System Architecture. Initial Source code to the development team for customization and rapid development of standard code to work securely in the specific architecture on Govt/NCDG Cloud.

System Architecture. The sender will retrieve the receiver’s public key from the certificate authority and validate the authenticity of the public key by checking its certificate, which implies that no direct communication from the receivers to the sender is necessary. Then, the sender can send any secret messages to any chosen subset of the receivers.

System Architecture. The WSDOT has an extensive regional architecture currently in place along the l-5 corridor in accordance with the tenets of the ITS national architecture. The SC&DI program has developed installation, operations, and maintenance standards for this ITS infrastructure. This study recommends the expansion of the existing SC&DI field devices, and SONET based fiber optic communications infrastructure north of the Marysville area. The expansion is highlighted by two specific projects recommended as part of this study. The northwest region TSMC expansion project would extend the SC&DI infrastructure north to the Mt. ▇▇▇▇▇▇ Area (MP 223). The Mt. Vernon and Bellingham area TMS project would further the SC&DI infrastructure north to the Bellingham area (MP 256). It would also introduce remote monitoring and control terminals in the Bellingham area at a remote Traffic Operations Center (TOC). The initial phases of these two projects would focus on the installation of fiber optic communications infrastructure and field devices at priority corridor locations, followed by the final build-out of the ITS field devices and communications infrastructure in future phases. Other recommended projects would be deployed throughout the corridor utilizing the ITS field devices when applicable and introducing new technologies to address the identified corridor needs such as rest area security, weather-related incidents, and low bridges. Finally, ITS technologies would be deployed at the U.S./Canadian border to enhance the efficiency of border crossing operations. Certain project elements would utilize leased communication lines for both field device and control center communications in the short-term followed by their integration with the WSDOT-owned fiber optic communication links as this infrastructure is extended northward along the corridor. It is important that each of the recommended projects allow for the exchange of data with the WSDOT Smart Trek ITS backbone currently being developed under the U.S. DOT Model Deployment Initiative (MDI) program. Each effort must emphasize the utilization of consistent communication protocols and data exchange schemes. The data exchange would benefit the individual projects along the corridor by providing access to corresponding traffic information. It would also benefit the ITS backbone system itself by adding valuable data to this integrated traveler information network. Executive Summary I-5 Seattle to Vancouver, B.C. ITS Early Deploymen...

System Architecture. An internal review of development of the system architecture revealed three main challenges to the implementation and development of the PATHS system. • Hardware stability • Parallel work versus sequential dependency • Diverging and numerous technologies