Comprehensive Network Design Proposal for Anthony’s Potato Chip Company

Introduction.

In this essay, we present a detailed plan for Anthony’s Potato Chip Company’s network architecture, in which we will address their current issues and solutions tailored to their unique needs. The aim is to build a secure and scalable network infrastructure that will support exchanging the data and interactions that the business expects presently and in the future. A comprehensive materials and methods section provides the reader with the high-level and specific requirements to build the network, suggested hardware, rough costs, and a few comments on the design decisions. This gives Anthony’s Potato Chip Company a platform to establish credibility and a solid operational framework.

Requirement Analysis

A network application needs study was done for Anthony’s Potato Chips. Mobile devices and IoT and VPN data from PCs, laptops, and phones will create most of this data. Data will be enhanced using Llicker and cloud servers. It can accommodate 500 users in various locations and service levels. The network must accommodate their service objectives and needs. Transmission speed is crucial, so a fiber optic backbone line that supports large bandwidth across long distances is preferable. These manufacturing companies’ equipment includes laptops, printers, and workstations that use 150 to 500 kilobits per second, according to their components’ load estimates. Data will be saved on desktops and network-attached storage. Reliable networks must have 99.2% availability and a 1 in 100000 failure rate. Managers must maintain a company’s network infrastructure. The system may be modified to suit the target audience’s needs and offer Anthony durable, secure, high-performance networking. Consider needs and future objectives by accomplishing the requirements above and possibilities.

High-level Diagram

Network architecture dominates the multi-level schematic design of all Anthony’s Potato Chip Company facilities. This photo shows the Escondido sales center, Alpine manufacturing, and central office building in San Diego. Every branch’s LAN works with the company’s WAN. WANs make secure data transfer and communication between geographically dispersed sites easier (Moser.,2021). This is achievable because of the fast Internet. This aerial view shows the network’s simple components.

Detailed Designs

The LAN’s three-tiered hierarchical model comprises core, distribution, and access layers. Cisco Business 110 series switches link computers, printers, and WiFi access points. Data from Cisco Business 250 series switches provide a backbone for inter-VLAN routing at the distribution layer. The core layer uses a Cisco Business 220 series high-speed backbone switch. This architecture offers performance, scalability, redundancy, and high availability. User, device, and application logical isolation in VLANs improves security and bandwidth usage. Cat6 and fiber optic cabling provide layer one speed.

The distribution layer switches terminate redundant fiber optic cables that provide a high-bandwidth backbone for wide-area network (WAN) connections between sites. The Internet is connected via many connections with load balancing and failover. Voice over IP is prioritized under the Quality of Service policy (Mine et al.,2020). Virtual private networks encrypt data between locations. This solution offers low-latency, redundant, secure communication across all sites for bandwidth-intensive applications and future growth. Hierarchical WAN technology allows modular scalability and reasonable growing costs (Hossain & Markendahl.,2021). Best practices for network stability, availability, and security influenced design choices.

Equipment Analysis

Below is a table outlining the suggested hardware components for a network, including the models of switches, wireless access points, cables, and the quantities needed. In order to help with budgeting, we have included the costs. Nothing beats the trusted Cisco Business family of solutions regarding reliability and end-to-end interoperability.

The Cisco range’s enterprise-grade performance, security, manageability, and lifetime guarantee were the deciding factors in its selection. Regularly, Cisco is ranked first by network specialists and analyst groups such as Gartner. Cisco’s enormous installed base and resources are made possible by relying on a single vendor, guaranteeing compatibility and long-term supportability.

Reflection

This network design includes data transport and networking fundamentals. The hierarchical LAN architecture’s core, distribution, and access layers follow industry-standard multi-layer design. This enables redundancy, performance optimization, traffic segmentation, and scalability. VLANs, quality of service, link aggregation, and robust security controls are available with managed Cisco switches (Gaur et al.,2021). Modern twisted-pair and fiber optics enable a high-bandwidth, low-interference physical layer design. This application rejected mesh and ring LAN topologies due to their complexity and cost.

Layer 1 specifies physical fiber/cable connection, Layer 2 Ethernet/PPP data link, Layer 3 IP/routing, Layer 4 TCP/UDP end-to-end transport, and Layer 5-7 application-level security with VPNs and encryption. These layers underpin WAN architecture. While not following the OSI reference model’s vertical protocol stack, this structure covers the same logical networking terrain (Yu & Zhong., 2023). A simpler 5-layer TCP/IP architecture may have replaced the OSI paradigm’s top layers. This flexible solution, which uses core networking principles, meets Anthony’s needs.

Conclusion

Conclusively, this system articulation outlines a complete classical structured network, which is adapted to meet the performance objectives, dependability, security, and scalability issues of Anthony’s Chips Company. A reputable vendor comprising the most up-to-date switch management, fiber optics, and wireless systems will ground the fast LAN (local area network) and WAN (vast area network). The infrastructure based on these features promises reduced power consumption, higher quality of service settings, and support for expanding your network. With the help of this plan, Anthony’s will be able to reinforce the backbone of its information technology infrastructure. This step would improve communications, the production rate, and the ability to compete now and in the future. Conversely, it reassures the organization with legitimate requests for its operational and economic functions worldwide.

References

Gaur, K., Kalla, A., Grover, J., Borhani, M., Gurtov, A., & Liyanage, M. (2021). A survey of virtual private LAN services (VPLS): Past, present and future. Computer Networks, p. 196, 108245. https://doi.org/10.1016/j.comnet.2021.108245

Hossain, M. I., & Markendahl, J. I. (2021). Comparison of LPWAN technologies: Cost structure and scalability. Wireless Personal Communications, 121(1), 887-903. https://link.springer.com/journal/11277

Mine, G., Hai, J., Jin, L., & Huiying, Z. (2020, August). A design of SD-WAN-oriented wide area network access. In 2020 International Conference on Computer Communication and Network Security (CCNS) (pp. 174–177). IEEE. https://ieeexplore.ieee.org/abstract/document/9240730

Moser, G. (2021). Performance Analysis of an SD-WAN Infrastructure Implemented Using Cisco System Technologies. https://www.divaportal.org/smash/record.jsf?pid=diva2%3A1632279&dswid=2650

Yu, C., & Zhong, R. Y. (2023, August). An Internet-Based 5-Layer Framework for Logistics in the Greater Bay Area. In 2023 IEEE 19th International Conference on Automation Science and Engineering (CASE) (pp. 1–6). IEEE.