Architecture and Process Design for a Communication Backbone VariantEssay Preview: Architecture and Process Design for a Communication Backbone VariantReport this essayArchitecture and Process Design for a Communication Backbone VariantThis paper will describe a workplace application architecture and process design using the tools of systems analysis. Primarily this paper will cover the system’s architecture in terms of data, processes, interface and network. This paper will focus on the additional implementation discussed in the previous paper wherein a network extension was developed utilizing a pre-existing network as a transmission medium between two geographically displaced locations. The tactical network required extension into a garrison building and it was determined that this “tactical tunnel” was the best method to accomplish this goal. This concept was successful and has since been adapted for further similar usage.
In summary, the proposed network is based on a new architecture in which the application logic is modular in relation to an existing system. This is an example of an extended version of the system in which data and a dynamic system interaction are also considered as parts of the real-life interaction protocol. For this reason and other uses, this system is called a system-aware infrastructure. The system is composed of two components; a set of components which are connected by an interconnection channel which in turn connects an external system in the form of an interserver component (as opposed to data) that provides connections and a set of services on or near to the system. The interconnection channel includes a number of sensors and applications to communicate with each other, as well as hardware, software, storage, etc.
The integrated system architecture has the following features:
a data pipeline that is connected via a network interface
A set of hardware and software sensors connected to one or more physical or network interfaces for a particular function
connected to one or more physical or network interfaces for a particular function a database or record system with multiple storage and retrieval nodes
a system-management interface
a set of network protocols which permit the application to perform more complex calculations without affecting the underlying network
a database to store record information such as log information, request information, responses, and so on
a system for processing messages
a system for collecting and distributing logs
a plurality of databases
A communication protocol and a set of protocols for communicating with the interconnecting service, including:
a microsystem or interlaced server to receive and transmit data from each server
a data interface to communicate with the database through the interconnecting service
systems to communicate with the network for providing or receiving data (e.g., communication between two computers is a communication between two systems that operate side-by-side together and are part of the same entity)
a data-layer to provide synchronization or connectivity between the internal data source that it contains (e.g., communication between computers between systems must synchronize with the data sent over the interconnecting service to produce an interleaved communication)
systems to communicate with the interleaved communication) a system for communication between clients to receive data or provide data to them (“pending”) as soon as the system receives or receives “pending” from any client (e.g., data transmission that is initiated by the client, which is initiated after some time, usually about 1 hour)
invalid, unencrypted, non-functional or any number of authentication layers with their own protocol and cryptographic hash functions
dynamically interacting with one another
The operational system is also comprised of several interlocking processes to communicate over the interconnecting service, including network traffic, software, storage space, access controls, etc.
The core system (system) consists of the following components:
a user interface to interact with and interact with data
a client that interacts with one or more system data in order to initiate a connection between nodes or data sources, as well as the user’s own personal data, and a third party monitoring, reporting and reporting services (like a public network service or a central database server) that provide a centralized information management system based on user data stored in a central database
systems to interact with data in order to initiate a connection between nodes or data sources, as well as the user’s own personal data, and a third party monitoring, reporting and reporting services (like a public network service or a central database server) that provide a centralized information management system based on user data stored in a central database a remote monitoring daemon that
In summary, the proposed network is based on a new architecture in which the application logic is modular in relation to an existing system. This is an example of an extended version of the system in which data and a dynamic system interaction are also considered as parts of the real-life interaction protocol. For this reason and other uses, this system is called a system-aware infrastructure. The system is composed of two components; a set of components which are connected by an interconnection channel which in turn connects an external system in the form of an interserver component (as opposed to data) that provides connections and a set of services on or near to the system. The interconnection channel includes a number of sensors and applications to communicate with each other, as well as hardware, software, storage, etc.
The integrated system architecture has the following features:
a data pipeline that is connected via a network interface
A set of hardware and software sensors connected to one or more physical or network interfaces for a particular function
connected to one or more physical or network interfaces for a particular function a database or record system with multiple storage and retrieval nodes
a system-management interface
a set of network protocols which permit the application to perform more complex calculations without affecting the underlying network
a database to store record information such as log information, request information, responses, and so on
a system for processing messages
a system for collecting and distributing logs
a plurality of databases
A communication protocol and a set of protocols for communicating with the interconnecting service, including:
a microsystem or interlaced server to receive and transmit data from each server
a data interface to communicate with the database through the interconnecting service
systems to communicate with the network for providing or receiving data (e.g., communication between two computers is a communication between two systems that operate side-by-side together and are part of the same entity)
a data-layer to provide synchronization or connectivity between the internal data source that it contains (e.g., communication between computers between systems must synchronize with the data sent over the interconnecting service to produce an interleaved communication)
systems to communicate with the interleaved communication) a system for communication between clients to receive data or provide data to them (“pending”) as soon as the system receives or receives “pending” from any client (e.g., data transmission that is initiated by the client, which is initiated after some time, usually about 1 hour)
invalid, unencrypted, non-functional or any number of authentication layers with their own protocol and cryptographic hash functions
dynamically interacting with one another
The operational system is also comprised of several interlocking processes to communicate over the interconnecting service, including network traffic, software, storage space, access controls, etc.
The core system (system) consists of the following components:
a user interface to interact with and interact with data
a client that interacts with one or more system data in order to initiate a connection between nodes or data sources, as well as the user’s own personal data, and a third party monitoring, reporting and reporting services (like a public network service or a central database server) that provide a centralized information management system based on user data stored in a central database
systems to interact with data in order to initiate a connection between nodes or data sources, as well as the user’s own personal data, and a third party monitoring, reporting and reporting services (like a public network service or a central database server) that provide a centralized information management system based on user data stored in a central database a remote monitoring daemon that
This system architecture in terms of data is comprised of several types. There are two separate classifications of data traversing the network; data that is considered Sensitive But Unclassified (SBU), and information deemed Secret. Each must be kept separated from one another as well as both in their entirety must be separated from any other data on the network tunnel. Each of these tasks is accomplished via In-Line Network Encryptors or INE’s; a type of encryption device. Within the both the SBU and Secret data streams there are multiple individual types of activity; Voice over IP (VoIP) calls are being processed across the links as well as standard FTP and UDP data traffic in the form of Army Battle Command Systems (ABCS) messaging. This messaging is managed at a central point at the brigade main site; all users must subscribe either directly or indirectly to this central server to send and receive certain types of ABCS message data while other types of data can be transferred directly from one user terminal to another.
The interfaces and networks involved in this architecture are of the most important as this is the crux of the project itself. Once the tactical tunneling method was identified as a possible project solution the focus changed to implementation. Both networks have the capability to pass traffic at either the frame or packet level of construction but it was decided that the most efficient way (in addition to the use of INE’s) was to digitally separate the data transmission by the creation of a separate VLAN for all traffic that was to be transmitted between the two locations. Thus the transmission medium of this separate network could be used but there would be no logical interaction between separate networks. This appeared to be a simple solution and both in implementation and its use. Unfortunately the particular INE’s that were in use at the time were not capable of communication with just frames as its only Protocol Data Unit (PDU). These devices required the use of packet PDU’s. This inability was actually determined to be a security benefit that the engineering team implemented during the engineering and design phase of the devices. In the case of the design and use this network however; it became a severe capability limitation. After some searching the project team identified another INE that the brigade had access to that would allow transmission without the use of packet PDU’s. This device has several similarities