Learn General QA Manual Testing
Understand what QA testers do and learn testing fundamentals, test design, test execution, defect reporting, regression testing, QA tools and essential web/API concepts.
Automated testing can verify many software behaviours, but it cannot replace every aspect of real-world validation. Telematics QA Manual Testers play an essential role in confirming that connected systems work together—and that the vehicle itself delivers the expected result. Physical vehicle access is necessary for validating features whose outcomes depend on real in-vehicle behaviour.
Software Quality Assurance (QA) is one possible route into the technology industry. Build a foundation in software testing, develop practical skills, and discover how quality is tested in the connected-vehicle world.
You do not need previous IT experience to begin learning the fundamentals. Our course introduces the principles and workflows of manual QA testing, then takes you beyond generic testing with a specialisation in telematics and connected vehicles.
Understand what QA testers do and learn testing fundamentals, test design, test execution, defect reporting, regression testing, QA tools and essential web/API concepts.
Learn through instructor explanations, live demonstrations, guided practice, feedback and assessment—not just independent homework.
Apply your QA foundation to telematics: test smartphone-app commands, backend processing, head-unit behaviour and real vehicle outcomes.
Build an understanding of manual QA responsibilities and the skills employers may seek. Training can help you prepare, but employment depends on many factors and is not guaranteed.
Learn QA fundamentals. Specialise in connected-vehicle testing. This is the path at the heart of Telematics QA Academy.
When a driver sends a command through a smartphone application (SPA), does the vehicle respond as expected? Do the relevant systems communicate correctly? What happens when something goes wrong?
Telematics QA Manual Testers execute tests, identify and document issues, and retest fixes provided by developers. Doing this effectively requires an understanding of how the smartphone application, head unit (HU), vehicle and backend servers interact.
Learn how to perform these responsibilities through practical, instructor-led training grounded in real-world telematics QA experience and connected-vehicle demonstrations.
Execute test cases and verify connected features through the smartphone application.
Compare actual behaviour with expected results and collect useful evidence.
Repeat relevant tests and document whether the reported issue is resolved.
Telematics QA involves more than checking whether a smartphone application displays the correct result. Certain connected-vehicle features must be validated across the smartphone application (SPA), head unit (HU), physical vehicle and backend systems.
Examples where manual testing and physical vehicle validation are essential
Change a setting in the smartphone application and verify that the head unit reflects the change. Then change a supported setting on the head unit and confirm that the smartphone application updates correctly.
Send a remote command and verify that the vehicle actually responds as expected. An application may report success even when the requested physical action does not occur.
Where supported and authorised, enter engineering mode on the head unit and enter the appropriate password to change the testing environment, then verify the change.
Test digital key pairing and verify that the vehicle responds as expected when the key is used to access or start the vehicle.
Connect an electric vehicle to charging equipment and verify that the application, head unit and actual charging behaviour reflect the expected state. Settings that depend on an active charging session must be validated with the vehicle plugged in.
Use the appropriate test scripts to validate emergency assistance (SOS), roadside assistance (RSA) and automatic collision notification (ACN) call flows. Verify expected call routing and system behaviour, and document the results.
The complete system must work as expected—especially the vehicle itself. Automated tests can support many checks, but they cannot replace every aspect of manual investigation and physical validation. When a feature’s success depends on actual vehicle behaviour, physical access and in-vehicle verification are essential.
Telematics QA Manual Testers play an essential role in the testing process: executing tests, comparing expected and actual behaviour, collecting evidence, investigating discrepancies and retesting fixes. They help verify that the app, backend, head unit and vehicle deliver the intended end-to-end outcome.
Develop the skills required to work as a Telematics QA Manual Tester through instructor-led training grounded in real-world experience and connected-vehicle demonstrations.
New cohorts begin every 8 weeks. Choose an upcoming intake that works for you.
Gain practical, job-relevant skills to perform real-world telematics QA testing workflows.
TestRail cases, prerequisites, expected results and outcomes.
SPA, HU, vehicle response, remote commands and charging.
Screenshots, recordings, logs and transaction IDs (TIDs).
Jira reporting, reproduction steps and fix validation.
The final curriculum will specify the complete list of topics, exercises and required competencies.
Explore the workflow ↓Students will learn how to follow the test process, capture evidence, document issues and verify fixes.
See how testing workflows are performed on an actual vehicle. Demonstrations may cover connected features, remote commands, environment preparation, transaction records and evidence collection.
Follow a command from the smartphone application to the expected vehicle response.
Observe supported SPA and head-unit interactions and how to verify synchronisation.
See what types of validation need to be performed once the vehicle is plugged in.
Demonstration thumbnails are illustrative placeholders in this mock website.
The system must produce the required end-to-end outcome.
A successful API response alone does not prove that a connected-vehicle feature worked as intended. Testing must verify the expected behaviour across the relevant components and confirm the actual outcome.
Telematics QA is not just API testing. It is validating that connected systems work together and deliver the expected result in the vehicle.
Correct command and status
Correct processing and records
Correct physical and displayed outcome
Correlate expected behaviour, actual state, timing, records and evidence.
Learn to follow a disciplined process when a test fails. The tester's role is to execute, observe, document and validate—not to fix the underlying software.
Become familiar with the systems used in real-world telematics QA workflows.
Learn from realistic scenarios, not just theory. Connected-vehicle testing can involve unexpected behaviour across multiple systems and environments.
Recognise how environment, connectivity, account readiness and vehicle state can affect a test result.
Record the outcome, gather evidence and investigate the appropriate supporting records.
Document reproduction steps, expected and actual results, relevant IDs and useful attachments.
Communicate clearly, follow team processes and report findings objectively.
You do not need a background in IT or technology to pursue a career in Telematics QA Manual Testing.
This course is designed for people who want to enter the connected-vehicle industry.
We teach the knowledge and practical workflows required to work as a Telematics QA Manual Tester.
If you already work in manual QA, this course helps you develop specialised knowledge of connected-vehicle systems and telematics testing workflows.
You will learn how to execute tests, report defects, gather relevant evidence and validate fixes in a connected-vehicle context.
Experience in another QA field is valuable, but many telematics-specific tasks and workflows will still be new.
Learn transferable manual testing skills before applying them to the connected-vehicle environment. The eight modules below form the proposed general QA foundation.
QA, QC and testing; why defects occur; SDLC and STLC; verification and validation; testing principles, levels and types.
Requirements analysis; test scenarios and cases; positive, negative and boundary-value testing; equivalence partitioning, decision tables, test data and traceability.
Functional, UI, smoke, sanity, regression, integration, end-to-end and exploratory testing; compatibility checks, retesting and regression awareness.
Reproducible bug reports; actual versus expected results; severity and priority; evidence collection; triage, defect status, retesting and closure.
Agile and Scrum fundamentals; user stories and acceptance criteria; sprint ceremonies; QA collaboration, test planning, progress reporting and communication.
Jira issue and defect workflows; organising test cases and runs; recording results; maintaining evidence and traceability; basic test reporting.
Browser-based testing; client-server concepts; HTTP basics; API requests and responses; status codes, JSON, introductory Postman practice and browser developer tools.
Work through a sample application: analyse requirements, design tests, execute them, record results, report defects, retest fixes and explain testing decisions.
Apply the general QA foundation to connected-vehicle workflows through instructor-led explanations, practical demonstrations, guided exercises and assessment.
Connected-vehicle systems, QA terminology, tester responsibilities and how SPA, head unit, vehicle and backend systems interact.
What testing is, requirements and expected results, prerequisites, test steps, actual-versus-expected comparisons, test evidence and basic test design.
STG/PROD and build awareness; Teams for communication and coordination; vehicle readiness and common problems such as low or dead batteries, locked vehicles, connectivity issues and unavailable features; essential test equipment and safe preparation.
Remote commands, SPA/HU synchronisation, language validation, physical vehicle response and connected-feature testing.
Enrollment, provisioning, digital keys, EV charging and other feature-specific prerequisites and validation workflows.
Now that students understand testing concepts and the specialist tests, use TestRail to find test cases, follow prescribed steps, record outcomes, attach evidence and document execution consistently.
LMS, locating API and TIDs to copy and paste into defect tickets, reviewing transaction records and logs; writing actionable defect tickets, providing reproduction steps, retesting fixes and updating tickets.
Complete guided and independent exercises demonstrating the full workflow from preparation and execution to evidence, defect reporting and fix validation.
Our instructors bring five years of combined Telematics QA Manual Testing experience. Between us, we have tested across a broad range of connected-vehicle features, systems and workflows, encountering many of the challenges that arise in real-world telematics testing.
We bring that practical experience into the classroom through instructor-led teaching, real-vehicle demonstrations and examples grounded in the work Telematics QA Manual Testers perform.
Our goal is to help students understand how to execute tests, recognise unexpected behaviour, gather relevant evidence, document issues clearly and validate fixes provided by developers.
Students will practise throughout the course and complete integrated exercises to demonstrate core competencies.
Open TestRail or a Jira ticket, understand instructions and expected results, and follow the prescribed steps.
Record actual versus expected behaviour and gather screenshots, video or relevant transaction details.
Create a reproducible defect and validate whether a developer's fix resolved the issue.
Learn how smartphone applications, head units, vehicles and backend systems come together—and how testers validate the experience.
Register Your Interest →Email: info@telematicsqaacademy.com|Phone: (289) 892-2955