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ERP Documents using epr softwares
Typology: Summaries
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Our research contributes to the relevant literature in a variety of ways. For starters, this study expands our understanding of P2P devices and their functioning in a given environment. This enabled us to build a suitable network linking departments utilizing P2P devices and associated equipment. Various gadgets will be employed in our network to provide smooth and fast communication. Network devices are generally used in computer networks to transmit and receive data between computers in a timely and secure manner. These specialized devices chosen for installation in the network will be used to execute their specific jobs extremely well. Fig.1: Existing Network Diagram We opted wireless connectivity to handle the problem of connecting many departments with the presence of a lake in the middle. We recommended employing P2P devices with the inclusion of protocols to ensure the network has a consistent availability, efficiency, security, and optimum connection across all buildings. Except for the link between the HQ and R&D, which was impeded by a lake, the connections from departments to the HQ were mostly standard. Using the P2P network rather than other technologies such as Ethernet cables or wireless routers, we were able to address a wide range of challenges. Ethernet cables would have been prohibitively expensive and impractical due to their maximum length of roughly 90 metres, which would not have sufficed for this architecture. Furthermore, employing wireless routers was not an option since the bandwidth required by the various end devices in each department would be insufficient. Furthermore, wireless routers are not scalable and are only appropriate for small LAN topologies. This naturally led us to choose a P2P network. Using this P2P network, we were able to build a functional and efficient link between the HQ and R&D despite the presence of a lake in the middle. In each department, the network consisted of two CPE devices (the factory uses four CPE devices) and one POE switch (the factory uses two POE switches). Furthermore, the headquarters housed a WLC capable of managing all protocols, traffic flows, and network devices. All network traffic will be directed to its destination via the WLC, where the administrator may choose to encrypt it, split it and send it to various networks, or filter it to prioritize it based on the defined quality policies. The WLC at the HQ may be used to configure every device on the network. An alert mechanism on the WLC may be designed to notify administrators of any security breaches or network device failures. PoE switches are used to connect end devices to the P2P network, which has several advantages such as data and power transmission through a regular Ethernet connection, which removes the need for AC/DC power sources and outlets to power PD equipment. Because you don't require an electrician to provide electricity where you wish to place your new PDs, the expenses of adding or installing appropriate PD equipment are reduced. Furthermore, PoE deployments that use managed PoE switches allow you to remotely restart connected PoE devices. This can be done manually, automatically, or on a schedule. PoE switches include watchdog functionality (Powered Device Manager [PDM]), which cuts power to offline devices and then resupplies it, causing them to reboot. This feature significantly reduces the downtime of the linked devices. Furthermore, a safe and optimum connection capable of handling increased user traffic during peak hours was built utilizing the protocols that were used in the network. There was no need for complex connections to connect the devices because this network was totally wireless. In the sense that it could recover from a failure, the network was reliable. Data replication, node failure detection, and recovery were all dependability factors examined. P2P devices are simple to replace and setup in the case of a failure. This ensures that the network is always up and running because the network engineer is not required to be there to fix the faulty device. Flexibility is a crucial factor in organizations that want to link their departments. The liberty of peers in a point-to- point network allows them to join and leave at their discretion. In order to deal with the scale and dynamism,
the qualities of adaptability and self-organization are taken into account while creating a P2P network. The WLC will include a super node that will keep a list of the file names of their connected peers in order to avoid overloading all system peers. The planned network would ensure that all departments have constant access to all necessary data. Other modes of connection, such as broadband and SDSL, are prone to security difficulties; thus, the suggested solution would construct an intranet where data between departments may be sent safely since it is a direct link from one department to the next. To strengthen security, the CPE device will be set such that it does not display its SSID. It is easy to monitor data use across all sites when all offices use the same connection. This assists in ensuring that certain standards are met and surpassed. A point-to-point network allows you to prioritize particular types of data, resulting in a quick and stable connection.
A Lightweight Access Point (LWAP) will serve as the Wireless LAN Controller's (WLC) client. When it receives a frame from a connected device, it passes it to the WLC rather than the destination device. Based on the security settings that have been configured, the WLC decides whether to forward or reject the received frame. If the frame must be forwarded, it is sent to the LWAP to which the target device is connected. The LWAP then transmits this frame to the target device. In this case, the WLC-LWAP configuration is commonly used to spread a single wireless network over a vast geographical region, which in our case will be used to link the departments to one another. This configuration lets users move throughout the building while remaining connected to the network. The Controller Based AP stationed at the headquarters will be connected to all P2P devices. By doing so, we can easily manage all network- connected devices from a single location. Adding a new AP will be simple since no configuration is required; the WLC will manage and setup the new AP. Furthermore, it enables the setup of all APs from a single location, saving time spent travelling to and from the configuration devices. Simply input the configuration on the single WLC and this will push the configuration to the targeted AP. This also cuts down on time spent debugging faults at each location. If an error occurs, just discover the source of the issue and return there if required to resolve it.
EDIMAX Pro APC APC500 Wi-Fi access point controller
This diagram depicts the operation of P2P networks. The devices communicate with one another through satellite. These CPE devices may be either the client or the access point. Each of these CPE devices is linked to a PoE (Power over Ethernet) switch. A point-to-point connection creates a dedicated link between two devices that may be used to transfer data between them. A point- to-point network links two devices via a layer 2 data connection, resulting in a closed network. Because the network is exceedingly secure, only a little data encryption is required. Following the deployment of the devices, you may do a spectrum analysis to determine the best channel. This may be done in the CPE devices' GUI settings menu. The spectrum analysis will enable the network administrator to examine the signal strength and environmental noise of each frequency in real time, allowing the administrator to select the optimum channel.