Network Work Design Date 11042015 Project Name

Network Work Designdate 11042015project Name Network Designproject

Network Work Designdate 11042015project Name Network Designproject

NETWORK WORK DESIGN Date: 11/04/2015 Project Name: NETWORK DESIGN Project Sponsor: Name: Department: SERVICE GRUOP Organization: NETCOMHALL Contact Information: Business Problem Statement: Ultimate network communication infrastructure provides better coordination capability to the company. It offers reliable communication networking and leverages a competitive advantage over business rivals, in terms of information security. It may provide the required speed and data storage capabilities, and there will be proper time management with regards to reducing idle time and data processing time. High-Level Functional Requirements: The network is intended to reduce choked systems which result in data or signal loss, costing the company a quarter of a million dollars annually.

It is an opportunity to refurbish the old existing system, which does not coordinate properly with other modern network systems. High-Level Proposed Solution and Business Benefits: It will be easier to manage and replace any device or component since the modern design has spare parts readily available in the market. Special Issues or Constraints: The design should be supported by a backbone network system, so the company can continue to operate while the new design is implemented. Employee training will be necessary to manage the updated system. Objectives: The communication design aims to enhance coordinated communication in the business environment, ensuring standards are met to satisfy both technical and business needs.

Poor design may lead to communication mismatch, errors, attenuation, and interference. This project aims to elaborate on the design layout of a computer communication network structure for a medium-sized company with about sixty employees. The network will be designed to achieve several specific business and operational objectives: • Secure services on both wired and wireless networks. • Integration and update: developing a WAN that integrates and updates LANs to support collaboration. • Scalability: this design allows adding more branches as expansion occurs without redoing the entire network. Other requirements include speed, media type, security, storage, error and signal loss management, and adherence to best practices.

Lab 2 – MIPS Assembly Language Programming with MARS IDE Decisions and Loops The purpose of this lab is to introduce students to the layout and structure of the Mars IDE development environment, focusing on decision and loop statements using MIPS Assembly language.

Procedure: I. Follow the same setup as in Lab 1. II. From the main menu, choose “File – New”. III. Type the following code snippet, which exemplifies decision and loop constructs in MIPS Assembly:

# ---------------------------- Lab 2 ------------------------------------
------------------ -----Decision and Loop -------------- 
-------------------------By: Dr. Abdal lah---------------------------
--------------------------- --- -- ------------------------- 
li $s6, 0
li $s3, 3
li $s5, 10
li $t0, 10
sw $t0, 0($s6)
sw $t0, 4($s6)
sw $t0, 8($s6)
sw $t0, 12($s6)
sw $t0, 16($s6)
sw $t0, 20($s6)
sw $t0, 24($s6)
sw $t0, 28($s6)
li $t0, 2
sw $t0, 32($s6)
loop:
sll $t1, $s3, 2
add $t1, $t1, $s6
lw $t0, 0($t1)
bne $t0, $s5, exit
addi $s3, $s3, 1
j loop
exit:

IV. Click the “Assemble the current file” icon. V. Run the program step-by-step using “Run one step at a time”. Record register and memory values after each step in Table 1. Copy these values into your report.

Questions: 1. Draw the memory and its contents starting from the base address ($s6). 2. What does the final value of $s3 represent?

Paper For Above instruction

The network design project undertaken for the company aims to develop a modern, reliable, and scalable communication infrastructure to support current and future business needs. The initiative stems from the necessity to replace outdated networking systems that hinder efficient data exchange, security, and collaboration among approximately sixty employees. The project’s core focus is on creating a robust network architecture capable of offering secure wired and wireless services, facilitating system integration via Wide Area Networks (WAN) and Local Area Networks (LAN), and ensuring scalability for organizational growth.

Fundamentally, the business problem addresses the significant costs incurred due to network inefficiencies—specifically, data and signal loss leading to about a quarter of a million dollars annually. These losses are primarily due to choked systems and incompatible existing infrastructure, which hampers operational effectiveness and places the organization at a competitive disadvantage. Upgrading the network is poised to mitigate these issues by offering faster data transmission, superior security, and more reliable communication pathways, thereby enhancing overall productivity and information security.

The proposed network solution will leverage modern technologies such as fiber-optic cabling for backbone support, high-speed wireless access points, and integrated security measures including firewalls and intrusion detection systems (IDS). Moreover, the design emphasizes ease of management and maintenance, allowing straightforward replacement of devices owing to the availability of spare parts. The system will also incorporate redundancy features to minimize downtime, ensuring that business operations remain uninterrupted during the transition phase.

Strategic considerations include the necessity for the network to be scalable, meaning additional branches or departments can be incorporated without major reconfigurations. This is essential for future expansion and aligns with the overall growth objectives of the organization. The design will also support data storage solutions, error management, and measures to combat signal interference, which is critical for maintaining seamless and efficient communication. Security features will be integrated at all levels to protect sensitive business data from malicious threats and unauthorized access.

In addition to technical specifications, the design process involves employee training programs to enable internal staff to effectively manage and troubleshoot the new system. Such measures ensure the sustainability of the network and minimize dependency on external vendors, reducing long-term operational costs. The project’s alignments with best practices in network architecture, including redundancy, security, and scalability, underpin its potential to deliver significant business value, including improved operational efficiency, reduced costs, and competitive advantage.

Similarly, the lab exercise demonstrates the importance of decision-making and looping constructs in MIPS assembly language—highlighting the connection between theoretical computer architecture concepts and practical implementation. The code provided in the lab entails initializing memory, traversing data arrays, and performing conditional jumps based on register comparisons, illustrating core principles of low-level programming and control flow.

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