TEC-ITS43-07 · Lesson 1 · 36 clock hours · theory
Project Planning, Scoping, and Design
Objective. Given a written small-business scenario, the student will produce a complete project plan including a network topology diagram, IP address table, hardware bill of materials, and a project schedule with milestones.
⚠ Pending professional review
This lesson, its worked examples and its practice questions has not yet been verified by an industry-certified professional or by a certification or approval body. It is a study draft and may contain errors. Do not use it as instructions for work on a job site or on live equipment. Always follow your instructor, your supervising professional, and current official references and regulations.
VoTechWorks program approval and accreditation are still in progress. Credentials are issued only by the certifying bodies named in each program, after their own exams.
Why Project Planning Comes First
Every successful IT deployment—whether you are setting up a single workstation or building a network for a growing business—begins with a plan. Jumping straight to purchasing equipment or pulling cables without a written plan wastes money, creates rework, and often leaves the customer with a system that does not meet their needs. In this lesson you will learn how to translate a business scenario into a formal project plan that any technician or manager can follow.
Step 1: Requirements Gathering
Requirements gathering means reading the customer's scenario carefully and writing down every technical need in plain, numbered statements. Use the provided requirements-gathering template for each requirement:
- Who needs it (all employees, the manager only, a specific department)
- What the need is (wired access, wireless access, cloud backup, ticketing software)
- Why it matters (business impact if it is missing)
- Acceptance criteria (how you will prove the requirement is met)
For the ten-employee office scenario, you should identify at minimum: wired Ethernet drops for desks, a wireless access point covering the whole office, a local server for shared files, an internet uplink, a cloud backup solution, a help-desk ticketing system, and basic security (firewall, antivirus, strong passwords). Do not guess—re-read the brief until every stated need has a matching requirement line.
Step 2: Network Design Fundamentals
Logical vs. physical diagrams. A logical diagram shows IP addresses, subnets, VLANs, and how traffic flows—it does not care where cables physically run. A physical diagram shows real device locations, port connections, rack layout, and cable paths. You need both.
Subnetting. For a small office you typically assign one or more private IPv4 subnets from RFC 1918 space (10.0.0.0/8, 172.16.0.0/12, or 192.168.0.0/16). Choosing a /24 subnet (for example, 192.168.1.0/24) gives you 254 usable host addresses—plenty for a ten-employee office. If you use VLANs to separate traffic (for example, VLAN 10 for staff PCs and VLAN 20 for wireless guests), each VLAN gets its own subnet.
VLAN assignments. VLANs segment broadcast domains without requiring separate physical switches. Assign each VLAN a meaningful name and ID number, and document which switch ports belong to each VLAN. The router or layer-3 switch performs inter-VLAN routing if devices in different VLANs need to communicate.
Device roles. Every device on your diagram must have a labeled role: router/firewall (WAN uplink and security), managed switch (VLAN trunking), wireless access point (Wi-Fi for staff and guests), local server (file sharing, possibly DHCP/DNS), and end-user workstations.
WAN uplink. Show the connection from your router to the ISP's demarcation point. Label the uplink type (for example, fiber handoff) and note whether the ISP assigns a public IP via DHCP or static assignment.
Step 3: IP Address Planning
Create an IP address table with one row per device. Columns should include: hostname, device role, interface, VLAN, IP address, subnet mask, and default gateway. Assign static IPs to infrastructure devices (router, switch management interface, server, access point). Use DHCP for end-user workstations and document the DHCP pool range so it does not overlap static assignments.
Example allocation for 192.168.1.0/24:
- .1 = router (default gateway)
- .2 = managed switch management interface
- .3 = wireless access point
- .10 = local server
- .100–.150 = DHCP pool for workstations
Step 4: Bill of Materials
A bill of materials (BOM) is a spreadsheet listing every item you plan to purchase. Each row needs: item description, manufacturer and model number, quantity, unit cost, extended cost (quantity × unit cost), and a brief justification explaining why that specific model was chosen. Use real, currently available products. Total the extended cost column to give the customer a realistic budget estimate. Separate the BOM into categories: networking gear, server hardware, cabling and accessories, and software licenses.
Step 5: Project Scope Statement
The scope statement is a one-page document that prevents misunderstandings. It must define:
- Deliverables: exactly what you will hand over (configured network, documented IP table, installed ticketing software, trained users)
- Constraints: budget ceiling, timeline, existing equipment to reuse
- Out-of-scope items: anything the customer might expect but that is explicitly not included (for example, ongoing monthly support, phone system installation)
A clear scope statement protects both the student project team and, in the real world, the business relationship with the customer.
Step 6: Project Schedule with Milestones
Break the project into phases: Requirements & Design, Procurement, Physical Installation, Configuration & Testing, User Acceptance Testing, and Handover. Assign realistic start and end dates to each phase and identify key milestones—dates by which a specific deliverable must be complete. Tools such as a simple Gantt chart in a spreadsheet work well for projects of this size.
Safety and Professional Considerations
Even in a planning phase, safety thinking must start now. Identify any tasks in later phases that will require working inside electrical panels or server racks—those tasks will require following lockout/tagout (LOTO) procedures to control hazardous energy before anyone works on powered equipment. Plan for ESD (electrostatic discharge) protection when handling network cards or server components. If cable runs will pass through ceiling spaces or walls, note that fire-stopping materials must be restored after any penetrations, per applicable building and electrical codes. Document these safety requirements in the project plan so nothing is overlooked during execution.
Key terms10
Requirements gatheringThe structured process of identifying and documenting every technical and business need a customer has before any design or purchasing begins.
Logical diagramA network diagram showing IP addresses, subnets, VLANs, and traffic flow paths without regard to physical cable locations.
Physical diagramA network diagram showing the actual physical location of devices, port-to-port cable connections, and rack or room layout.
VLAN (Virtual Local Area Network)A logical grouping of switch ports that creates separate broadcast domains on a single physical switch, improving security and traffic management.
Bill of materials (BOM)A spreadsheet listing every piece of hardware, cable, and software to be purchased, including model numbers, quantities, unit costs, and justifications.
Project scope statementA written document that defines project deliverables, constraints, and items explicitly excluded from the project to prevent scope creep.
Subnet maskA 32-bit number that identifies which portion of an IP address represents the network and which portion identifies individual hosts.
RFC 1918The Internet standard that reserves three IPv4 address ranges (10.0.0.0/8, 172.16.0.0/12, 192.168.0.0/16) for private, non-routable use inside organizations.
MilestoneA clearly defined point in a project schedule by which a specific deliverable or phase must be completed, used to track progress.
Inter-VLAN routingThe process by which a router or layer-3 switch forwards traffic between devices on different VLANs, each of which occupies its own subnet.
Worked examples4
1. A ten-employee office will use the subnet 192.168.10.0/24. The router is .1, the managed switch management interface is .2, the wireless access point is .3, and the local server is .10. You need a DHCP pool for up to 15 workstations starting at .100. What is the DHCP pool range, and how many addresses remain unused in the subnet?
- Step 1 – Find total usable hosts in a /24. A /24 has 256 addresses (2^8). Subtract the network address (.0) and the broadcast address (.255) to get 254 usable host addresses.
- Step 2 – Identify statically assigned addresses: .1 (router), .2 (switch), .3 (AP), .10 (server) = 4 static addresses.
- Step 3 – Set the DHCP pool starting at .100 for 15 workstations: 192.168.10.100 through 192.168.10.114 (100, 101, 102 … 114 = 15 addresses).
- Step 4 – Count unused usable addresses: 254 total usable − 4 static − 15 DHCP pool = 235 addresses still unassigned and available for future growth.
Answer: DHCP pool: 192.168.10.100 – 192.168.10.114. Unused usable addresses remaining in the subnet: 235.
2. Your BOM has the following items: managed switch at $189.99 (qty 1), wireless access point at $129.99 (qty 2), patch cables at $8.50 (qty 12), and a rack-mount server at $1,149.00 (qty 1). What is the total BOM cost?
- Step 1 – Calculate extended cost for each line item. Switch: $189.99 × 1 = $189.99. Access points: $129.99 × 2 = $259.98. Patch cables: $8.50 × 12 = $102.00. Server: $1,149.00 × 1 = $1,149.00.
- Step 2 – Sum all extended costs: $189.99 + $259.98 + $102.00 + $1,149.00.
- Step 3 – Add step by step: $189.99 + $259.98 = $449.97; $449.97 + $102.00 = $551.97; $551.97 + $1,149.00 = $1,700.97.
Answer: Total BOM cost: $1,700.97.
3. You are designing VLANs for the office. VLAN 10 (Staff) needs addresses for 10 workstations plus a gateway. VLAN 20 (Guest Wi-Fi) needs addresses for up to 6 guest devices plus a gateway. You decide to carve these from 192.168.0.0/24 using separate /28 subnets. Assign suitable /28 subnet addresses for each VLAN and confirm each subnet can support the required hosts.
- Step 1 – Determine usable hosts in a /28. A /28 has 16 total addresses (2^4). Subtract network and broadcast = 14 usable hosts. 14 ≥ 11 (10 workstations + 1 gateway) and 14 ≥ 7 (6 guests + 1 gateway), so /28 works for both VLANs.
- Step 2 – Assign VLAN 10 subnet: 192.168.0.0/28. Network = 192.168.0.0; usable range = 192.168.0.1 – 192.168.0.14; broadcast = 192.168.0.15. Assign .1 as the VLAN 10 gateway.
- Step 3 – Assign VLAN 20 subnet: 192.168.0.16/28. Network = 192.168.0.16; usable range = 192.168.0.17 – 192.168.0.30; broadcast = 192.168.0.31. Assign .17 as the VLAN 20 gateway.
- Step 4 – Verify no overlap: VLAN 10 uses .0–.15; VLAN 20 uses .16–.31. Ranges do not overlap. Both subnets provide 14 usable addresses, which meets each VLAN's requirement.
Answer: VLAN 10: 192.168.0.0/28 (gateway .1, hosts .2–.14). VLAN 20: 192.168.0.16/28 (gateway .17, hosts .18–.30). No overlap; each subnet supports the required number of hosts.
4. Your project schedule has six phases. Requirements & Design takes 5 days, Procurement takes 7 days, Physical Installation takes 4 days, Configuration & Testing takes 6 days, User Acceptance Testing takes 3 days, and Handover takes 1 day. If the project starts on a Monday and you work only weekdays (no holidays), on which weekday does the project end, and how many total weekdays does it span?
- Step 1 – Sum all phase durations: 5 + 7 + 4 + 6 + 3 + 1 = 26 weekdays total.
- Step 2 – Determine the end day. Starting Monday = day 1. Count 26 weekdays forward. 26 ÷ 5 = 5 full weeks (25 days) with 1 day remaining. 5 full weeks from the starting Monday brings you to the Friday of week 5 (day 25). One additional day (day 26) lands on the following Monday.
- Step 3 – Confirm: Week 1 Mon–Fri = days 1–5; Week 2 Mon–Fri = days 6–10; Week 3 Mon–Fri = days 11–15; Week 4 Mon–Fri = days 16–20; Week 5 Mon–Fri = days 21–25; Day 26 = Monday of Week 6.
Answer: The project spans 26 weekdays and ends on a Monday (the first day of the sixth week).
In class: Analyze the provided scenario brief (a ten-employee office requiring wired and wireless access, a local server, cloud backup, and a help-desk ticketing system) and list every technical requirement using a requirements-gathering template. · Draft a logical and physical network diagram in draw.io or Packet Tracer that shows IP subnets, VLAN assignments, device roles, and WAN uplink; peer-review diagrams with a classmate using a structured checklist. · Complete a bill of materials spreadsheet with real model numbers, costs, and justifications, then write a one-page project scope statement identifying deliverables, constraints, and out-of-scope items.
Materials: Scenario brief handout, draw.io (free web tool) or Cisco Packet Tracer, IP address planning worksheet, bill-of-materials spreadsheet template, CompTIA Network+ Study Guide (Mike Meyers or equivalent), Cisco CCNA Official Cert Guide (Wendell Odom)
Check: Instructor reviews the diagram, IP table, and scope statement against a 20-point rubric; student must score 16/20 (80%) to advance; any missing subnet calculation or unlabeled device requires a same-day correction and re-check.
Practice check8
Answer each question, then check it. Nothing is recorded; this is your own practice.
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