ATHE Level 5 Assignments


Network Design ATHE Level 5 Assignment Answer UK

Network Design ATHE Level 5 Assignment Answer UK

Network Design ATHE Level 5 course delves into the fascinating realm of network architecture, exploring the fundamental principles and strategies behind creating efficient and secure computer networks. Whether you are a seasoned IT professional seeking to enhance your skills or an aspiring network designer eager to embark on a rewarding career, this course will equip you with the knowledge and tools necessary to design robust and scalable networks.

In today’s interconnected world, computer networks serve as the backbone of modern communication and information exchange. From small local area networks (LANs) within homes or offices to vast wide area networks (WANs) spanning continents, network design plays a pivotal role in establishing reliable connections and enabling seamless data flow. A well-designed network can optimize performance, enhance security, and facilitate effective collaboration among users and systems.

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Below, we will provide some assignment outlines. These are:

Assignment Outline 1: Understand networking fundamentals.

Critically evaluate rules of network protocols.

Network protocols are essential for establishing communication and facilitating the exchange of data between devices in a networked environment. While protocols play a crucial role in ensuring reliable and efficient communication, it is important to critically evaluate their rules to understand their strengths and weaknesses. Here are some aspects to consider when evaluating the rules of network protocols:

  1. Correctness: The rules of a network protocol should accurately define how devices should communicate with each other. They should address potential issues such as data corruption, packet loss, or network congestion, and provide mechanisms to handle these situations effectively. A well-designed protocol should minimize errors and ensure the integrity of transmitted data.
  2. Efficiency: Network protocols should aim to achieve efficient data transfer. This includes optimizing data transmission speed, minimizing latency, and utilizing network resources effectively. Protocols that are overly complex or inefficient may result in unnecessary overhead and reduced network performance.
  3. Scalability: A good protocol should be able to handle network growth and increasing demands without sacrificing performance or stability. It should allow for the addition of new devices or users to the network without requiring significant modifications or causing disruptions. Scalable protocols are crucial in today’s interconnected world where network sizes and traffic volumes continue to grow.
  4. Flexibility: The rules of a network protocol should be flexible enough to accommodate diverse network environments and application requirements. Protocols that are too rigid may not be suitable for different types of networks or emerging technologies. Flexibility enables the protocol to adapt to changing needs and support new features or functionalities.
  5. Security: Network protocols should prioritize security to protect data confidentiality, integrity, and availability. Rules related to encryption, authentication, and access control mechanisms should be robust to prevent unauthorized access or data breaches. A protocol that lacks adequate security measures can be vulnerable to various attacks, compromising the privacy and integrity of network communications.
  6. Interoperability: A protocol should enable different devices and software implementations to communicate seamlessly, regardless of their vendors or platforms. Interoperability ensures that devices from different manufacturers can work together effectively, promoting a healthy and competitive network ecosystem. Standards organizations play a vital role in defining protocols that promote interoperability.
  7. Standardization and Documentation: Well-documented protocols with clear and widely accepted standards are essential for ensuring widespread adoption and ease of implementation. Protocols that lack proper documentation or have ambiguous rules can lead to compatibility issues and hinder the development of compatible software and hardware.
  8. Evolution and backward compatibility: Network protocols should have a clear path for evolution and improvement over time. They should allow for the introduction of new features or enhancements while maintaining backward compatibility with older versions. This enables smooth upgrades and reduces disruptions in existing network infrastructures.

It’s important to note that the evaluation of network protocol rules depends on the specific context and requirements of the network. Different protocols may excel in different areas based on the intended use case, network size, or application type. Therefore, it is crucial to consider these factors when evaluating and selecting network protocols for specific deployments.

Evaluate the hardware and software needed to run an IT network successfully.

To run an IT network successfully, you’ll need a combination of hardware and software components that work together efficiently. Here’s an evaluation of the key requirements for both hardware and software in an IT network:

Hardware Requirements:

  1. Servers: These are powerful computers that host and manage network resources. The specific server requirements depend on the network’s size and the services it needs to provide, such as file sharing, email, or web hosting. Servers should have sufficient processing power, memory, storage capacity, and redundancy to handle the network’s workload and ensure high availability.
  2. Network Infrastructure: This includes routers, switches, and firewalls. Routers enable communication between different networks, switches connect devices within a local network, and firewalls provide network security. The hardware should support high-speed data transfer, have ample port capacity, and offer advanced security features like intrusion detection and prevention.
  3. Network Storage: Network-attached storage (NAS) devices or storage area networks (SAN) may be required to centrally store and manage data. NAS devices allow shared access to files, while SANs provide block-level storage for applications requiring high-performance data access. The storage hardware should offer sufficient capacity, scalability, and data redundancy to meet the network’s storage needs.
  4. Network Security Appliances: These devices, such as antivirus and anti-malware solutions, intrusion prevention systems, and virtual private network (VPN) gateways, protect the network from cyber threats. The hardware should have robust security capabilities, including threat detection, prevention, and secure remote access.
  5. End-user Devices: Computers, laptops, smartphones, and other devices used by network users should meet minimum hardware specifications to ensure compatibility and performance. Factors to consider include processing power, memory, storage, network connectivity options, and display capabilities.

Software Requirements:

  1. Network Operating System (NOS): A network operating system manages and controls network resources, provides network services, and allows for centralized administration. Common examples include Windows Server, Linux distributions like Ubuntu Server or CentOS, and network-specific operating systems like Cisco IOS. The choice of NOS depends on the network requirements, administrator familiarity, and application compatibility.
  2. Network Management Software: This software helps monitor and manage network devices, configurations, performance, and security. It allows administrators to detect and troubleshoot issues, allocate network resources efficiently, and implement security policies. Examples include tools like Nagios, Zabbix, SolarWinds, or Cisco Prime.
  3. Security Software: Antivirus, anti-malware, firewall, and intrusion detection/prevention systems are essential to protect the network from external threats. Choose reputable security software from trusted vendors and keep it up to date with the latest threat definitions and patches.
  4. Collaboration and Communication Software: Tools like email servers (e.g., Microsoft Exchange, Zimbra), instant messaging platforms (e.g., Slack, Microsoft Teams), and video conferencing software (e.g., Zoom, Microsoft Teams, Cisco Webex) facilitate communication and collaboration among network users.
  5. Backup and Recovery Software: Robust backup and recovery solutions are crucial to protect data from loss or corruption. Choose software that offers scheduled backups, data encryption, versioning, and quick restoration capabilities.
  6. Application Software: Depending on the network’s purpose, you may need specific software applications such as database management systems, web servers, content management systems, or custom-built software.

It’s important to note that the specific hardware and software requirements may vary based on the size, complexity, and purpose of the network. Consulting with IT professionals or network specialists is recommended to ensure you select the most suitable hardware and software components for your specific network needs.

Assess common methods of managing mobile devices on wireless networks.

Managing mobile devices on wireless networks involves implementing various methods and technologies to ensure secure and efficient usage. Here are some common methods used for managing mobile devices on wireless networks:

  1. Mobile Device Management (MDM): MDM solutions provide centralized management and control over mobile devices. They enable administrators to configure settings, deploy applications, enforce security policies, and remotely monitor and troubleshoot devices. MDM platforms often offer features like device enrollment, data encryption, remote wipe, and application management.
  2. Mobile Application Management (MAM): MAM focuses on managing the applications installed on mobile devices. It allows administrators to distribute, update, and remove applications, as well as enforce policies specific to the use of certain applications. MAM solutions help maintain security, control access to corporate resources, and streamline application deployment and management.
  3. Network Access Control (NAC): NAC systems verify the compliance and security posture of mobile devices before granting them network access. NAC solutions enforce policies such as device authentication, operating system patch levels, antivirus presence, and adherence to security configurations. This helps protect the network from unauthorized or compromised devices.
  4. Certificate-Based Authentication: Certificate-based authentication utilizes digital certificates to verify the identity of mobile devices. Certificates are installed on devices, allowing them to authenticate with the network infrastructure securely. This method enhances security by ensuring only trusted devices can connect to the network.
  5. Virtual Private Networks (VPNs): VPNs create a secure, encrypted connection between mobile devices and the network infrastructure. By tunneling all communication through an encrypted channel, VPNs protect data from interception and unauthorized access, especially when using public Wi-Fi networks or remote access.
  6. Wireless Intrusion Prevention Systems (WIPS): WIPS tools monitor wireless networks for potential security threats. They detect unauthorized access points, rogue devices, and other suspicious activities. WIPS solutions provide real-time alerts, intrusion prevention measures, and forensic analysis to mitigate security risks associated with mobile devices.
  7. Mobile Threat Defense (MTD): MTD solutions focus on protecting mobile devices from various threats, including malware, phishing attacks, and network vulnerabilities. These solutions employ techniques such as app reputation analysis, network traffic monitoring, and device behavior analysis to detect and mitigate risks proactively.
  8. Containerization and Mobile Application Wrapping: Containerization separates corporate data and applications from personal data on mobile devices. It creates secure containers to isolate and protect sensitive information, enabling organizations to enforce security policies and maintain data privacy without compromising the user experience. Mobile application wrapping adds an additional layer of security by encapsulating apps with specific security policies.
  9. Device Encryption: Encrypting data on mobile devices ensures that sensitive information remains secure, even if the device is lost or stolen. Encryption techniques like full-disk encryption or file-based encryption protect data at rest and in transit, adding an extra layer of security to mobile devices.

These methods collectively enhance the security, management, and control of mobile devices on wireless networks. Organizations should consider implementing a combination of these techniques based on their specific requirements and risk profiles.

Analyse the tools available to manage a network.

There are various tools available to manage a network, each serving specific purposes and offering different functionalities. Here are some commonly used tools for network management:

  1. Network Monitoring Tools: These tools help monitor network performance, track the availability of network devices, and detect and troubleshoot issues. Examples include SolarWinds Network Performance Monitor, PRTG Network Monitor, and Nagios.
  2. Network Configuration Management Tools: These tools automate the management of network configurations, allowing administrators to control and standardize device configurations across the network. Examples include Cisco Prime Infrastructure, SolarWinds Network Configuration Manager, and Ansible.
  3. Network Performance Analysis Tools: These tools analyze network traffic and provide insights into network performance and bottlenecks. They help identify bandwidth utilization, latency issues, and potential areas for optimization. Wireshark, SolarWinds NetFlow Traffic Analyzer, and Riverbed SteelCentral Packet Analyzer are commonly used tools in this category.
  4. Network Inventory Management Tools: These tools maintain an inventory of network devices, including information such as device type, serial numbers, software versions, and configurations. They help track and manage network assets effectively. Examples include SolarWinds Network Topology Mapper, ManageEngine OpManager, and Device42.
  5. Network Security Management Tools: These tools focus on managing network security policies, monitoring security events, and detecting and responding to threats. Examples include Cisco Adaptive Security Device Manager (ASDM), Fortinet FortiManager, and Check Point SmartConsole.
  6. Network Troubleshooting Tools: These tools assist in diagnosing and resolving network issues. They provide utilities for testing connectivity, performing traceroutes, and checking network performance. Commonly used tools include Ping, Traceroute, and PathPing utilities, as well as network analyzers like tcpdump and Microsoft Network Monitor.
  7. Network Configuration Backup and Restore Tools: These tools automate the process of backing up network device configurations and facilitate easy restoration in case of configuration errors or device failures. Examples include SolarWinds Network Configuration Manager, RANCID, and Oxidized.
  8. Network Visualization Tools: These tools provide visual representations of network topologies, allowing administrators to understand network structure, dependencies, and connectivity. Examples include Cisco Network Assistant, GNS3, and NetBrain.
  9. Network Bandwidth Management Tools: These tools help monitor and control network bandwidth usage by managing Quality of Service (QoS) policies, traffic shaping, and bandwidth allocation. Examples include SolarWinds NetFlow Traffic Analyzer, Cisco Prime Infrastructure, and MikroTik RouterOS.
  10. Network Reporting and Documentation Tools: These tools generate reports on network performance, configurations, security events, and other relevant metrics. They also aid in network documentation and auditing. Examples include SolarWinds Network Configuration Manager, Microsoft Visio, and NetBrain.

It’s important to note that the choice of network management tools depends on the specific requirements, network size, budget, and complexity of the network infrastructure. Organizations often utilize a combination of these tools to effectively manage and monitor their networks.

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Assignment Outline 2: Be able to design an IT network in accordance with a design brief.

Analyse business needs to design a network.

When analyzing business needs to design a network, several key factors should be considered to ensure the network meets the requirements and objectives of the organization. Here are the steps involved in analyzing business needs for network design:

  1. Identify Business Goals: Understand the overall goals and objectives of the organization. Determine how the network will support these goals, such as improving communication, enhancing collaboration, supporting remote work, or increasing productivity.
  2. Assess Current Infrastructure: Evaluate the existing network infrastructure, including hardware, software, and network topology. Identify any limitations or areas that require improvement, such as outdated equipment, insufficient bandwidth, or security vulnerabilities.
  3. Determine User Requirements: Determine the specific needs and requirements of different user groups within the organization. Consider factors such as the number of users, their roles, their locations (including remote or branch offices), and their usage patterns. This analysis will help determine the capacity and scalability requirements of the network.
  4. Consider Future Growth: Anticipate the organization’s future growth and scalability needs. Will the network need to accommodate additional users, applications, or data in the coming years? This analysis will help ensure that the network design is scalable and can accommodate future expansion.
  5. Analyze Application Requirements: Identify the critical applications and services that rely on the network infrastructure. Consider factors such as bandwidth requirements, latency sensitivity, data security, and Quality of Service (QoS) needs for different applications. This analysis will help determine the network architecture and design principles required to support these applications effectively.
  6. Evaluate Security Needs: Assess the organization’s security requirements and regulatory compliance obligations. Determine the necessary security measures, such as firewalls, intrusion detection systems, encryption protocols, and access controls. Consider the need for secure remote access, data protection, and disaster recovery capabilities.
  7. Consider Network Redundancy and High Availability: Analyze the organization’s tolerance for network downtime and the importance of continuous operations. Determine if redundancy and high availability are necessary to minimize downtime and ensure business continuity. This analysis may involve redundant network links, backup power systems, failover mechanisms, and disaster recovery plans.
  8. Budget and Cost Considerations: Evaluate the available budget and cost constraints for network design and implementation. Balance the business needs with the available resources, ensuring that the proposed network design is cost-effective and aligns with the organization’s financial capabilities.
  9. Engage Stakeholders: Involve key stakeholders, such as IT teams, department heads, and management, in the network design process. Seek their input, gather requirements, and address any concerns or specific needs they may have.
  10. Documentation and Planning: Document the network design plan, including network diagrams, equipment specifications, configurations, and implementation timelines. Create a roadmap for implementation, including any necessary migration or deployment strategies.

By following these steps and considering the specific business needs, an effective network design can be developed to support the organization’s objectives, improve efficiency, and meet the requirements of its users and applications.

Critically evaluate possible solutions to meet a design brief.

To critically evaluate possible solutions to meet a design brief, there are several key factors to consider. Each solution should be assessed based on its feasibility, effectiveness, practicality, cost, sustainability, and alignment with the design brief’s objectives. Here’s a framework to evaluate possible solutions:

  1. Feasibility:
    • Technical feasibility: Assess whether the proposed solution can be realistically implemented considering available technology, resources, and expertise.
    • Time feasibility: Evaluate if the solution can be developed and implemented within the given timeline and project constraints.
    • Resource feasibility: Consider the required materials, equipment, manpower, and budget needed for the solution.
  2. Effectiveness:
    • Evaluate how well each solution addresses the design brief’s requirements and objectives. Does it effectively solve the problem at hand?
    • Consider the potential impact and benefits of each solution, including its functionality, efficiency, and performance compared to alternatives.
    • Assess the potential risks or limitations of each solution and determine if they can be mitigated.
  3. Practicality:
    • Analyze the practical aspects of implementing the solution. Will it be user-friendly and easy to use? Does it integrate well with existing systems or processes?
    • Consider the scalability and adaptability of the solution, especially if it needs to be implemented on a larger scale or in different contexts.
    • Evaluate the maintenance and support requirements for each solution, including training, updates, and ongoing technical support.
  4. Cost:
    • Assess the overall cost of each solution, including initial investment, implementation costs, operational expenses, and potential long-term costs.
    • Compare the cost-effectiveness of different solutions and determine if the benefits outweigh the expenses.
    • Consider the return on investment (ROI) and the potential for cost savings or revenue generation associated with each solution.
  5. Sustainability:
    • Evaluate the environmental impact of each solution, considering factors such as energy consumption, waste generation, and carbon footprint.
    • Assess the social and ethical implications of each solution, including its impact on human well-being, privacy, and inclusivity.
    • Consider the long-term viability and durability of the solution, as well as its potential for future adaptations or upgrades.
  6. Alignment with the design brief:
    • Evaluate how well each solution aligns with the specific requirements, goals, and constraints outlined in the design brief.
    • Assess if the proposed solution meets the desired outcomes and if it enhances or complements the intended user experience.
    • Consider if the solution satisfies any regulatory or legal requirements that may be applicable.

By critically evaluating possible solutions using these criteria, you can determine which option(s) best meet the design brief and make an informed decision about the most suitable solution to pursue. Remember to document and communicate your evaluation process and findings to stakeholders involved in the design project.

Design a structured network to meet a design brief.

Design Brief:

Client: XYZ Corporation

Objective: Design a structured network to support the company’s growing IT infrastructure and ensure secure and efficient data communication across multiple locations.


  1. Scalability: The network should be scalable to accommodate future growth in terms of the number of devices and users.
  2. Security: The network should have robust security measures in place to protect sensitive data from unauthorized access.
  3. Reliability: The network should be highly reliable to minimize downtime and ensure uninterrupted communication.
  4. Performance: The network should provide high-speed connectivity and low latency for efficient data transfer and application performance.
  5. Centralized Management: The network should have a centralized management system for easy monitoring, configuration, and troubleshooting.
  6. Redundancy: The network should incorporate redundancy mechanisms to ensure failover and resilience in case of network failures.
  7. Cost-effectiveness: The design should optimize costs without compromising on performance, security, and reliability.

Design Solution:

Network Topology:

  1. To meet the scalability requirement, a hierarchical network topology like a three-tier architecture can be employed. This architecture separates the network into core, distribution, and access layers.
  • Core Layer: The core layer connects different distribution layer switches and provides high-speed connectivity between locations. It consists of robust and redundant switches capable of handling high traffic volumes.
  • Distribution Layer: The distribution layer connects the core layer to the access layer and performs routing and filtering. It provides scalability and segmentation of the network while ensuring efficient communication between locations.
  • Access Layer: The access layer connects end-user devices such as computers, printers, and phones to the network. It includes access switches and provides connectivity to devices while enforcing security policies.

Security Measures:

  1. To address the security requirement, several measures can be implemented:
  • Firewall: Deploying firewalls at the network perimeter and between network segments to filter and monitor incoming and outgoing traffic.
  • Virtual Private Network (VPN): Implementing VPN technology to create secure tunnels for remote access and site-to-site communication.
  • Intrusion Detection/Prevention System (IDS/IPS): Installing IDS/IPS to detect and prevent unauthorized access and attacks on the network.
  • Access Control: Enforcing strict access control policies, such as role-based access control (RBAC) and two-factor authentication (2FA), to restrict access to sensitive data.

Reliability and Redundancy:

  1. To ensure reliability and redundancy, the following elements can be incorporated:
  • Redundant Core: Implementing redundant core switches with link aggregation (e.g., using technologies like Spanning Tree Protocol) to provide failover in case of core switch failures.
  • Redundant Distribution Layer: Employing redundant distribution switches with protocols like Virtual Router Redundancy Protocol (VRRP) for failover and load balancing.
  • Redundant Power Supply: Using redundant power supplies for critical network devices to prevent downtime due to power failures.
  • Network Monitoring: Implementing network monitoring tools to proactively detect and address issues before they cause significant disruptions.

Performance and Scalability:

  1. To ensure high performance and scalability:
  • Quality of Service (QoS): Implementing QoS mechanisms to prioritize critical traffic, ensuring low latency and high bandwidth for important applications.
  • Network Segmentation: Dividing the network into VLANs or subnets to reduce broadcast traffic and enhance performance.
  • Scalable Addressing: Using IP address schemes that allow for easy scalability, such as subnetting and hierarchical addressing.

Centralized Management:

  1. To facilitate centralized management, a network management system can be implemented. This system should provide features like:
  • Network Monitoring and Alerting: Real-time monitoring of network devices, traffic, and performance, with automated alerts for anomalies.
  • Configuration Management: Centralized configuration and provisioning of network devices.
  • Logging and Reporting: Capturing logs and generating reports for auditing, troubleshooting, and performance analysis.


  1. To optimize costs:
  • Open Source Solutions: Utilizing open-source software and tools where feasible to minimize licensing costs.
  • Virtualization: Employing virtualization technologies like virtual switches and routers to reduce hardware costs and simplify network management.
  • Right-sizing: Designing the network infrastructure based on the actual needs and expected growth, avoiding over-provisioning.

By considering these design elements, the network architecture can meet the client’s requirements for scalability, security, reliability, performance, centralized management, redundancy, and cost-effectiveness.

Develop viable alternative solutions to meet a design brief.

To develop viable alternative solutions to meet a design brief, it’s important to understand the specific requirements and constraints outlined in the brief. However, without knowing the specific details of the design brief, I’ll provide you with a general approach to generating alternative solutions:

  1. Brainstorming: Begin by brainstorming a range of ideas without judgment or evaluation. Encourage creativity and consider both traditional and unconventional approaches to the problem.
  2. Research and Analysis: Conduct research to gather information about existing solutions, industry trends, and technological advancements. Analyze the strengths and weaknesses of current approaches to identify opportunities for improvement.
  3. Divergent Thinking: Use divergent thinking techniques to generate a variety of alternative solutions. This can involve breaking down the problem into smaller components, exploring different perspectives, or combining unrelated ideas to create new concepts.
  4. Prioritization: Evaluate the alternative solutions based on the criteria and constraints specified in the design brief. Prioritize the solutions that best align with the desired outcomes, feasibility, cost-effectiveness, and user needs.
  5. Concept Development: Further develop the selected alternative solutions by creating sketches, diagrams, or prototypes. This will help visualize and refine the ideas, considering factors such as aesthetics, functionality, ergonomics, and user experience.
  6. Evaluation: Assess the developed concepts against the design brief to determine their viability. Seek feedback from relevant stakeholders, users, or experts to gain different perspectives and identify potential improvements.
  7. Iteration: Refine the chosen alternatives based on the feedback received. Iterate through the design process, making necessary adjustments and enhancements to enhance the final solutions.
  8. Comparison: Compare the refined solutions against each other, considering their advantages, disadvantages, and potential impact. Select the most viable alternative that best meets the design brief requirements.

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Assignment Outline 3: Be able to build a network to meet a client brief.

Build a network to meet a client brief.

Client Brief:

The client is a small business owner who wants to build a network for their office. They have 20 employees and require a network infrastructure that can support their daily operations, including internet connectivity, file sharing, and printing. They also want to ensure network security and have separate guest access. The office is spread across two floors, and they want seamless connectivity throughout the premises. The client expects the network to be scalable to accommodate future growth and have room for additional devices.


To meet the client’s requirements, we propose setting up a network infrastructure that incorporates wired and wireless connectivity. Here’s an outline of the components and configuration:

  1. Network Design:
    • Ethernet cabling: Install Ethernet cabling throughout the office on both floors to ensure reliable and high-speed wired connectivity.
    • Wireless Access Points (WAPs): Deploy multiple WAPs strategically on both floors to provide seamless wireless coverage throughout the office.
    • Network Switches: Install network switches to connect the Ethernet cabling and provide sufficient ports for all devices, including computers, printers, and servers.
  2. Internet Connectivity:
    • Internet Service Provider (ISP): Coordinate with a reliable ISP to establish a high-speed internet connection suitable for the office’s needs.
    • Modem/Router: Connect the ISP’s modem/router to the network to enable internet access for all devices.
  3. Network Security:
    • Firewall: Implement a robust firewall solution to protect the network from unauthorized access and potential threats.
    • Virtual Private Network (VPN): Configure a VPN to allow secure remote access to the office network for employees working from outside the premises.
    • Network Segmentation: Segment the network into different VLANs (Virtual Local Area Networks) to enhance security and isolate sensitive resources.
  4. File Sharing and Printing:
    • Network-Attached Storage (NAS): Set up a NAS device to centralize file storage and enable easy file sharing among employees.
    • Network Printing: Connect printers to the network via Ethernet or wireless interfaces to facilitate printing from any device within the office.
  5. Guest Access:
    • Guest Network: Create a separate wireless network specifically for guest access. This network should be isolated from the internal network and have limited access to shared resources.
  6. Scalability:
    • Network Capacity: Design the network to handle potential future growth, ensuring that there are enough ports on the switches and sufficient wireless coverage.
    • Scalable Components: Use network equipment that supports expansion, such as switches with additional module slots or WAPs that can be added as needed.
  7. Network Monitoring and Management:
    • Network Monitoring Tools: Implement network monitoring software to monitor network performance, identify potential issues, and ensure proactive maintenance.
    • Network Management Software: Utilize centralized network management software to streamline configuration, firmware updates, and troubleshooting.
  8. Backup and Disaster Recovery:
    • Regular Backups: Establish a backup system to regularly back up critical data, ensuring data integrity and availability in case of emergencies.
    • Disaster Recovery Plan: Develop a disaster recovery plan that includes off-site backups and a clear process for recovering the network in the event of a major failure.

It is important to note that the specific equipment, software, and configurations may vary based on the client’s budget, preferences, and existing infrastructure. A thorough assessment of the client’s requirements and consultation with network professionals is recommended to tailor the solution accordingly.

Test network against the requirements of the client brief.

To test a network against the requirements of a client brief, we need to compare the network’s capabilities and performance with the specifications outlined in the brief. Here’s a step-by-step guide to help you test the network:

  1. Understand the client brief: Review the client brief thoroughly to identify the specific requirements, goals, and desired outcomes of the network.
  2. Identify network specifications: Determine the specifications of the network, including its architecture, hardware/software components, and any predefined performance metrics.
  3. Evaluate functionality: Check if the network meets the functional requirements specified in the client brief. This may involve examining features, inputs, outputs, and interactions with other systems.
  4. Performance testing: Assess the network’s performance against the performance metrics outlined in the client brief. This could include measuring factors such as response time, throughput, accuracy, scalability, and reliability.
  5. Security and privacy: Verify whether the network adheres to the required security and privacy standards specified by the client. Evaluate the network’s vulnerability to potential threats and the measures taken to protect sensitive data.
  6. User experience: Consider the user experience aspects mentioned in the client brief. Test the network’s usability, accessibility, and any user interface requirements. Gather feedback from potential users, if available.
  7. Compatibility and integration: Determine if the network can integrate with existing systems or technologies mentioned in the client brief. Test compatibility with various operating systems, software versions, or specific hardware devices if required.
  8. Test data and scenarios: Use appropriate test data and scenarios to validate the network’s performance against real-world conditions. This may involve simulating different environments, loads, or user behaviors.
  9. Documentation and reporting: Document the test procedures, results, and any deviations from the client brief’s requirements. Prepare a comprehensive report summarizing the network’s performance and highlighting any areas of concern or improvement.
  10. Client review and feedback: Present the test findings to the client and seek their feedback. Address any questions or concerns they may have and discuss potential solutions or modifications if necessary.

By following these steps, you can effectively test the network against the requirements of the client brief and ensure that it aligns with the client’s expectations.

Evaluate performance issues of built network against client brief.

To evaluate the performance issues of a built network against a client brief, I would need specific details about the client brief, the network architecture, and the performance metrics being considered. However, I can provide you with a general framework to assess network performance and identify potential issues. Here are some common performance aspects to consider:

  1. Latency: Latency refers to the delay or lag in network response time. Evaluate if the network is meeting the specified latency requirements outlined in the client brief. Excessive latency can lead to slow response times and poor user experience.
  2. Throughput: Throughput measures the amount of data that can be transferred through the network within a given time frame. Check if the network is capable of handling the expected volume of traffic as defined in the client brief. Insufficient throughput can result in congestion and data transfer delays.
  3. Reliability: Assess the network’s reliability in terms of uptime and availability. Determine if the network meets the client’s requirements for system availability. Frequent downtime or outages can disrupt operations and negatively impact productivity.
  4. Scalability: Evaluate the network’s ability to accommodate future growth or changes in demand. Determine if the network can scale up or down as needed to meet the client’s evolving requirements. Inadequate scalability can lead to performance degradation when the network experiences increased traffic or user load.
  5. Security: Analyze the network’s security measures and adherence to the client’s security requirements. Assess the effectiveness of the implemented security protocols and mechanisms to safeguard data and protect against unauthorized access or data breaches.
  6. Quality of Service (QoS): Consider whether the network is providing the expected quality of service in terms of prioritizing certain types of traffic, ensuring sufficient bandwidth for critical applications, and maintaining acceptable levels of performance for different services.
  7. Compatibility: Verify if the network aligns with the client’s existing infrastructure and integrates well with other systems. Compatibility issues can impede performance and functionality, leading to inefficiencies and operational challenges.
  8. User Experience: Gather feedback from end-users or stakeholders to assess their satisfaction with the network’s performance. Identify any pain points, user complaints, or usability issues that may require improvement.

By evaluating these performance aspects in relation to the client brief, you can identify specific areas where the built network may be falling short and take appropriate measures to address the issues. Remember that the evaluation should be tailored to the specific requirements and expectations outlined in the client brief.

Recommend security requirements to keep a network safe and secure from unwanted cyber threats/attacks.

To keep a network safe and secure from unwanted cyber threats and attacks, it is important to implement a combination of technical measures, security policies, and user education. Here are some essential security requirements to consider:

  1. Strong Password Policies: Enforce the use of complex passwords and regular password changes. Encourage the use of password managers and multi-factor authentication (MFA) to provide an additional layer of security.
  2. Regular Software Updates and Patch Management: Keep all systems, applications, and firmware up to date with the latest security patches. This helps protect against known vulnerabilities that can be exploited by attackers.
  3. Firewalls and Intrusion Detection/Prevention Systems (IDS/IPS): Deploy firewalls at the network perimeter to monitor and control incoming and outgoing traffic. Implement IDS/IPS solutions to detect and prevent unauthorized access and suspicious activities.
  4. Network Segmentation: Divide the network into multiple segments or zones with different security requirements. This helps limit the impact of a potential breach and contains threats within a specific area.
  5. Access Control and Least Privilege: Implement strong access controls, ensuring that users are granted the least privileges necessary to perform their duties. Regularly review and revoke unnecessary access rights.
  6. Encryption: Implement strong encryption protocols (such as HTTPS, VPNs, and encrypted storage) to protect sensitive data both in transit and at rest. Encryption provides an additional layer of security if data is intercepted or stolen.
  7. Network Monitoring and Logging: Deploy monitoring tools to detect and respond to suspicious activities. Enable logging for network devices, servers, and applications to facilitate forensic analysis in case of a security incident.
  8. Regular Data Backups: Perform regular backups of critical data and verify the integrity of backups. Store backups in a secure, off-site location to ensure data can be restored in the event of a system compromise or data loss.
  9. Security Awareness Training: Educate employees about common cyber threats, phishing attacks, and social engineering techniques. Promote a culture of security and train employees to recognize and report suspicious activities.
  10. Incident Response Plan: Develop and regularly test an incident response plan that outlines the steps to be taken in case of a security incident. This ensures a coordinated and efficient response to minimize the impact of a breach.
  11. Vendor and Third-Party Risk Management: Assess the security practices and controls of vendors and third-party partners who have access to your network or handle sensitive data. Maintain strict oversight and implement contracts that outline security responsibilities.
  12. Regular Security Audits and Penetration Testing: Conduct periodic security audits and penetration tests to identify vulnerabilities and weaknesses in your network infrastructure. Address the identified issues promptly to mitigate risks.

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