The 2027–28 launch
AP Networking becomes available nationwide in the 2027–28 school year, following the final restricted pilot in 2026–27. The first national exam in May 2028 is fully digital and includes scenario-based multiple choice and artifact-based free response. Plan your class around students interpreting network evidence, not memorizing commands in isolation.
Before scheduling
Confirm your school’s AP Course Audit responsibilities, who approves the course, how the course fits your local graduation and CTE pathways, and whether the network team permits isolated instructional labs.
Before buying equipment
Run a complete sample lesson using the actual student devices and accounts. Check simulator access, firewall restrictions, browser permissions, screen projection, and whether students can save evidence.
Before the first assessment
Agree on a common evidence rule: students must identify the symptom, cite a specific artifact, explain their inference, and propose a safe next test.
There are no specific course prerequisites. That does not mean students enter with identical experience. Start with a short baseline task involving a network diagram, an IP configuration and a plain-language explanation of how a device reaches a website. For year-specific exam differences, use our 2027 vs. 2028 exam comparison.
Course authorization: what to check—and what not to assume
Schools using the AP designation must complete the AP Course Audit process. In a typical new-course workflow, the teacher submits the subject-specific form, a school administrator approves it, and the teacher demonstrates familiarity with the course scope using an available approved pathway or syllabus. Verify the AP Networking-specific 2027–28 options and dates in your school’s Course Audit account; do not reuse the prior year’s pilot deadlines.
Five questions to resolve with your AP coordinator
- Who is the designated Course Audit administrator, and when will the 2027–28 submission open?
- Which course framework and authorized syllabus or unit-guide pathway will our school use?
- Who orders exams and checks that students have supported devices for Bluebook?
- Which network lab activities are permitted under district IT and acceptable-use policies?
- Who will own the equipment, student accounts, maintenance and replacement budget?
Build your local plan alongside the curriculum map and teacher resource hub.
The classroom equipment decision: three realistic setups
You do not need to start with a rack of enterprise switches. You do need a reliable way for every student to test an idea, observe a result and record the evidence. These are planning scenarios, not official AP equipment lists or price quotes; district purchasing and cybersecurity rules take priority.
| Setup | What students use | Best instructional use | Watch for |
|---|---|---|---|
| Software-first | Existing computers, an approved network simulator, teacher-provided command output | IP addressing, subnetting, routing logic, packet paths, artifact analysis | Blocked software installs; simulation not matching real-device behavior |
| Small shared lab | Software plus a few managed switches, spare cables and isolated routers | Port status, VLAN errors, physical-layer failures, cable tests | Shared device resets, labeling and storage |
| Expanded lab | Software plus student teams’ managed devices and dedicated isolated lab network | Multi-step configuration, change control, recovery, performance measurement | Inventory, maintenance, supervision and strict separation from production systems |
A purchasing worksheet that prevents wasted spending
- Student access: Can each learner complete a meaningful investigation in one class period, or will half the class watch?
- Reset time: Can a teacher restore the lab between sections in under ten minutes?
- Evidence: Can students export configuration snippets, screenshots or test results without exposing real school systems?
- Accessibility: Are text artifacts, keyboard access, enlarged diagrams and alternative input methods available?
- Continuity: If the simulator is down, is there a printable packet of the same logs, tables and diagrams?
A usable four-unit pacing model for a 36-week school year
The official course is organized into four units: Managing My Connections, Managing My Shared Connections, Managing Many Connections, and Managing Our Global Connections. The week allocations below are a sample local teaching plan, not mandated AP unit weights. Adjust for your calendar, student starting point and the current framework.
| Weeks | Instructional focus | Evidence students produce | Checkpoint |
|---|---|---|---|
| 1–2 | Baseline, safety, device/network map and documentation habits | Annotated home-network diagram; first incident ticket | Explain the difference between a symptom and a cause |
| 3–9 | Unit 1: Managing My Connections | Device connection checks, IP configurations, short explanations | Diagnose a single-device connectivity failure |
| 10–17 | Unit 2: Managing My Shared Connections | Switch and wireless artifacts, shared-network diagrams | Find a misconfiguration using at least two artifacts |
| 18–25 | Unit 3: Managing Many Connections | Routing decisions, security rules and change records | Justify a safe fix and a rollback plan |
| 26–31 | Unit 4: Managing Our Global Connections | End-to-end paths, performance investigations, incident summaries | Explain how local symptoms connect to wider network behavior |
| 32–34 | Integrated practice and artifact-based writing | Timed mixed scenarios and revision of weak explanations | Evidence-based free-response rehearsal |
| 35–36 | Exam transition, recovery time and post-exam capstone | Team network operations report | Reflect on decisions and communicate findings |
Keep a buffer for school testing days, weather closures and labs that require a second attempt. See the four-unit guide, study guide and exam format explainer.
The first ten class meetings: an actual launch sequence
This sequence assumes roughly 50-minute classes. It builds the habits students will need when a scenario contains contradictory clues. The student artifacts can be paper-based if devices are unavailable.
| Day | Opening task | Main activity | Exit evidence |
|---|---|---|---|
| 1 | “Why does one laptop fail while others work?” | Classify symptom, observation, inference and next test | Three-sentence incident ticket |
| 2 | Label a simple home network | Trace a device-to-website journey in pairs | Annotated network diagram |
| 3 | Read an IP configuration | Compare working and failing host settings | One supported diagnosis and one uncertainty |
| 4 | What can a ping result prove? | Use a test ladder: link, address, gateway, DNS, application | Choose the next discriminating test |
| 5 | Five-minute retrieval quiz | Small-team incident: DHCP address missing | Team ticket plus individual explanation |
| 6 | Compare two network diagrams | Identify shared infrastructure and failure domains | Predict who else is affected |
| 7 | Spot the unsupported claim | Work through contradictory ping and DNS evidence | Revise a diagnosis after new evidence |
| 8 | Explain a security-first decision | Practice safe access, change control and synthetic log review | One safe-action rule and why it matters |
| 9 | Mini performance task | Pairs diagnose a staged failure and propose verification | Evidence table and rollback plan |
| 10 | Independent transfer task | Same concepts, different topology and symptoms | Baseline rubric score and reflection |
Use the eight free editable teacher PowerPoints for discussion starters and the free question bank for retrieval practice. Assign roles in pairs—investigator and skeptical reviewer—then switch roles on the next incident.
A complete 45-minute lab: “The laptop connects, but websites fail”
Scenario: The school’s fictional help desk receives a ticket: “My laptop shows connected to Wi-Fi, but I cannot open the learning portal.” A second student on the same wireless network has no problem. The teacher provides synthetic outputs below.
FAILING LAPTOP IPv4 address: 192.168.40.58 Subnet mask: 255.255.255.0 Default gateway: 192.168.40.1 DNS server: 192.168.40.53 ping 192.168.40.1: 4 replies, 0% loss ping 203.0.113.10: 4 replies, 0% loss nslookup portal.example.test: request timed out WORKING LAPTOP (same Wi-Fi) IPv4 address: 192.168.40.61 Default gateway: 192.168.40.1 DNS server: 192.168.40.54 nslookup portal.example.test: 203.0.113.10
Learning target: Students distinguish a supported diagnosis from an assumption and choose a safe verification step. The example addresses and domain are reserved for documentation; this is not a live network.
- Minutes 0–5: Individually circle the two most useful clues. Do not allow “the internet is down” as a diagnosis.
- Minutes 5–15: Partners write a hypothesis and identify one competing explanation. Ask why successful gateway and public-IP pings matter.
- Minutes 15–25: Teams compare DNS server addresses. They propose a safe test of the failing host’s configured DNS server and compare it with the known-working server.
- Minutes 25–35: Reveal that the configured .53 DNS service is unavailable in the fictional lab. Students explain why replacing the DNS server with the approved .54 address is a reasonable proposed fix, then specify a retest.
- Minutes 35–45: Each student submits a four-part incident report: symptom, evidence, probable cause, verification. Discuss what the evidence does not prove.
For progressively harder investigations, assign the eight worked FRQ-style artifact cases, artifact-analysis guide and troubleshooting simulator.
How to grade troubleshooting without rewarding lucky guesses
A student can name the right protocol and still misunderstand the failure. Assess the reasoning process using the same four-part rubric all year. Score each criterion 0–2 for a transparent 8-point classroom rubric; this is an original formative tool, not an official AP scoring rubric.
| Criterion | 0 points | 1 point | 2 points |
|---|---|---|---|
| Symptom and scope | Incorrect or absent | Partly identifies failure | Precisely identifies affected device, service and scope |
| Evidence | No artifact cited | Artifact cited without interpretation | Specific artifact interpreted accurately |
| Reasoning | Unsupported guess | Plausible cause with a gap | Cause logically follows from evidence; uncertainty acknowledged |
| Next test and safety | No test or unsafe action | Test lacks discrimination or verification | Safe test separates explanations and includes a retest |
Grade individual explanations even when teams share equipment. After returning feedback, change one detail in the original case—such as successful DNS lookup but failed HTTPS—and ask students whether their diagnosis still holds. This exposes memorized answers and teaches transfer. The Wrong Answer Detective helps students analyze why an appealing answer is not supported.
Teaching a mixed-experience class
Students new to networking
Provide a labeled topology, a short glossary beside the artifact and a fixed test sequence. Have students narrate what each test can and cannot establish before they touch a simulator. Reduce the number of simultaneous clues, not the reasoning expectation.
Students with prior IT experience
Add a misleading but realistic clue, an intermittent failure or two plausible root causes. Require a change-control note and a rollback plan. Ask students to teach a teammate without taking over the keyboard.
For English learners and students needing accessibility supports: Use readable text versions of every diagram, captioned demonstrations, high-contrast artifacts, keyboard-operable tasks and a consistent response frame: “The evidence shows ___. This supports ___ because ___. I would verify by ___.” Maintain the technical reasoning target while varying how students show it.
Prepare for the May 2028 digital exam from the first month
The national exam is planned as a fully digital Bluebook exam with scenario-based multiple choice and artifact-based free response. A useful weekly routine is one short scenario, one artifact interpretation and one written justification. Avoid telling students that any original classroom rubric, question count or time limit is an official exam specification unless the current exam guidance confirms it.
Monday: interpret
Read a log, configuration or diagram. Highlight what is observed, what is inferred and what remains unknown.
Wednesday: discriminate
Compare two plausible answers. Identify the next test that would separate them.
Friday: explain
Write a concise evidence-based response. Exchange feedback using the same four-part rubric.
Near exam season, practice reading dense artifacts on screen and writing concise technical explanations, while following your school’s actual Bluebook readiness procedures. Explore the exam format guide, practice questions and worked FRQ-style investigations.
What to tell students, families and administrators
Explain three distinct outcomes without overpromising. First, students learn transferable networking and professional skills. Second, qualifying scores may lead to college credit or placement where a college has adopted an applicable policy. Third, the national 2027–28 course provides an opportunity to earn the AP Networking Credential after the required course and qualifying exam score. The credential is not automatically CompTIA Network+ or Cisco CCNA.
For counselors, our college credit and credential guide includes a verification worksheet and questions to ask universities. For students, what to do after AP Networking explores next steps.
Questions first-year AP Networking teachers are already asking
These answers distinguish the published rollout from the classroom recommendations on this page.
Can a teacher start AP Networking without previously teaching a networking course?
There is no universal prior-teaching requirement stated here. A teacher should review the course framework, complete the school’s applicable AP Course Audit steps and practice the labs before assigning them. Prior IT experience helps, but students need clear explanations and well-tested activities.
Is a physical networking lab required?
Do not assume a rack of hardware is mandatory. A software-first approach can teach many skills, while shared isolated equipment adds valuable physical troubleshooting. Confirm the current course framework and your district’s local requirements.
What is the first national AP Networking exam year?
The nationwide course begins in 2027–28, with the first national exam in May 2028. The restricted May 2027 pilot exam is multiple-choice only.
Does the 2028 exam include written artifact analysis?
Yes. The published national exam overview includes artifact-based free-response questions as well as scenario-based multiple-choice questions. The exact released question set is not available in this independent guide.
How many weeks should each unit receive?
There is no single required pacing schedule in this guide. The 36-week sample allocates approximately seven to eight weeks to each of the first three units, six to the fourth, and time for launch, review and disruptions. Adjust to the current framework and your calendar.
How should I assess students who already know networking?
Keep the same evidence-based criteria, but increase scenario complexity. Require competing hypotheses, a discriminating test, a change-control note and a safe rollback plan.
Can students troubleshoot the school network as a class lab?
Do not use production systems without explicit authorization and a documented safety plan. Isolated labs, approved simulators and synthetic logs are safer and more repeatable for teaching.
Do students need a previous computer science class?
No specific student prerequisites are published for AP Networking. A brief baseline assessment can reveal who needs extra support with diagrams, device settings and technical vocabulary.
Should teachers teach only multiple-choice questions?
Not for the national 2028 exam. Build both scenario-based multiple-choice reasoning and artifact-based written explanations into the weekly routine.
Does a qualifying AP Networking score guarantee college credit?
No. Colleges determine their own subject-specific credit and placement policies. Students should check the current policy at each institution.
Continue building your first-year course
Editorial note: This is an independent classroom planning guide updated September 23, 2026. The four unit names, national rollout and broad 2028 exam format reflect the published course information as of this date. Equipment choices, pacing, sample labs and scoring rubric are original teaching suggestions; confirm any 2027–28 subject-specific administrative requirements with your AP coordinator.