Tampere University Environmental Engineering Master’s Thesis Guide: 30 ECTS, YEB-S07, Turnitin and Trepo

What this guide covers

Tampere University’s Environmental Engineering master’s programme is a 120 ECTS Master of Science (Technology) degree taught in English. Its thesis follows Tampere’s Technology/Architecture diplomityö framework and carries 30 ECTS. The current programme is broad: water and wastewater, waste management, circular economy, environmental processes, digital environmental technologies, bioprocesses, bioenergy, systems thinking and governance can all shape a defensible thesis when they fit the student’s studies and research question.

This guide is bound to the current 2026-2027 curriculum and the current YEB-S07 Advanced Studies in Environmental Engineering module. It also separates programme-specific evidence from university-wide thesis rules. In particular, it does not import Automation Engineering’s AUT.020 seminar requirements into Environmental Engineering.

Programme and degree structure

The current programme leads to the Master of Science (Technology) degree and is planned as two years of full-time study. Tampere describes the programme as education for environmental engineering and circular economy, with learning outcomes that combine engineering with economic, governance and stakeholder perspectives.

The programme expects graduates to understand environmental problems systemically, collaborate with decision makers and organisations, design water, wastewater and waste-treatment systems, and develop strategies that advance sustainability. That breadth matters for thesis planning: a valid Environmental Engineering thesis does not have to resemble a water laboratory study.

Advanced studies and specialization themes

The current YEB-S07 Advanced Studies in Environmental Engineering module is at least 85 ECTS. It combines compulsory and complementary courses selected according to the student’s specialization theme. The current module gives examples including Sustainable Solutions for Water and Waste Management, Digital Innovations in Environmental Technologies, Advanced Bioprocesses for Circular Economy, Bioenergy and Biorefining, and Governance for Circular Economy.

The applicant-facing page also uses broader labels such as Water Supply specialist, Environmental Process Engineer and Researcher in Environmental Engineering. Treat these as programme-planning themes, not separate degrees with separate thesis-credit rules. The public curriculum shows one Environmental Engineering master’s programme and one current advanced-studies module under the common Technology thesis framework.

YEB-S07’s learning outcomes are also useful as a thesis-quality filter. The module expects students to design and model environmental processes, assess systems for sustainability and circular economy, formulate holistic solutions, and communicate across stakeholder boundaries. A thesis topic does not need to demonstrate every outcome, but the project should make clear which advanced competence it is exercising. This helps avoid a topic that is environmentally interesting but too far outside the degree’s engineering or systems-learning objectives.

The thesis is 30 ECTS

Environmental Engineering follows Tampere’s Technology thesis regime. The master’s thesis carries 30 credits and is normally completed near the end of MSc-level studies. Do not apply Tampere’s non-technical 20-40 ECTS pro gradu range to this programme.

The 30 ECTS value covers the thesis as the degree’s major academic project. Seminar, oral presentation, opposition and maturity requirements belong to the thesis process, but they do not automatically change the thesis into a 30-plus-credit object. Use the credits recorded in the current curriculum and Sisu rather than adding process activities together yourself.

What can an Environmental Engineering thesis look like?

Tampere’s Technology/Architecture instructions explicitly allow empirical research, planning and implementation, or a review of existing research literature. Environmental Engineering therefore supports several defensible thesis architectures.

A water or wastewater project might use bench-scale experiments, pilot data, process modelling, monitoring data or engineering design. A circular-economy or bioprocess project might use experiments, material-flow analysis, process modelling, life-cycle thinking or systems assessment. A digital environmental-technologies project might use sensors, software, environmental data, simulation or optimisation. A governance-oriented topic can still belong in Environmental Engineering when the research question is connected to sustainability systems and the student’s advanced studies.

There is no current public rule saying every thesis must contain laboratory work, field sampling, a physical prototype or a specific software package. Method follows the question.

Choosing and narrowing the topic

Start by identifying the environmental problem and the engineering or systems decision the thesis will help resolve. A topic such as “circular economy” or “water treatment” is too broad by itself. Add a system boundary, process, material, site, stakeholder, technology, performance criterion or comparison that makes the question answerable within a 30 ECTS project.

Useful topic tests are: What exactly will be measured, modelled, designed, compared or explained? What data and facilities are realistically available? Can the environmental benefit be evaluated rather than merely asserted? Are major assumptions visible? Can the work reach a conclusion if one data source, partner or experiment fails?

Company and research-group topics can be valuable, but the academic question must remain clear even when the project also has an operational deliverable.

When you are ready to start

Tampere’s Technology thesis instructions say the student should have sufficient subject expertise and should have completed the bachelor’s degree or received formal approval for the bachelor’s thesis before starting the master’s thesis.

For Environmental Engineering, readiness also means having enough methodological background to evaluate environmental evidence responsibly. A student planning bioprocess experiments needs different preparation from a student doing process simulation, LCA-style assessment, environmental data analysis or governance research. The supervisor should help confirm that the chosen method is realistic for the available time, data and facilities.

Supervisors and academic responsibility

Tampere appoints one or two supervisors, with one acting as primary supervisor. Supervisors are selected according to topic and usually connect to the advanced studies or research area. The primary supervisor normally also has an examination role.

An external company or organisation may provide practical guidance, data or a workplace supervisor, but this does not replace Tampere’s academic supervision. The student remains responsible for the thesis, its scientific integrity, its written argument and its compliance with university rules.

Discuss access to laboratories, analytical equipment, field sites, company systems, environmental databases and confidential material early. A technically interesting topic can become impossible if essential access is not secured before the project begins.

The Thesis Supervision Plan

Technology students prepare a Thesis Supervision Plan with the supervisor. Use it as a project-control document, not as a formality. Record meeting frequency, key review points, expected completion period and the main responsibilities of student and supervisors.

For Environmental Engineering, the plan should also identify dependencies: laboratory bookings, sample acquisition, field seasons, external data delivery, modelling licences, partner review windows, ethics or data-protection steps and the timing of final manuscript feedback. If the project includes an industrial deliverable, separate that deliverable’s schedule from the academic thesis milestones.

Build a research plan and validation logic

Tampere requires a preliminary research plan that is reviewed with supervisors and can evolve as the thesis develops. A strong Environmental Engineering plan states the background problem, research question, relevant literature, system boundary, data or materials, method, assumptions, validation strategy, ethical or data issues, outputs and timetable.

The validation strategy deserves special attention. A process model is not validated merely because it runs. A treatment design is not proven because a flowsheet exists. An LCA or sustainability comparison depends on transparent boundaries, data quality and assumptions. A laboratory result needs appropriate controls and interpretation. A data model needs suitable evaluation metrics and a defensible test design.

Define what evidence would support or weaken the proposed conclusion before most of the analysis is complete.

Environmental Engineering also benefits from a mass-balance and uncertainty mindset even when the thesis is not primarily a process-design project. Check whether inputs, outputs, units, time bases and reference conditions are consistent. If the result depends on assumed emission factors, conversion efficiencies, boundary choices, missing sensor values or literature parameters, document those assumptions and test how sensitive the conclusion is to them. A thesis becomes much easier to defend when an examiner can distinguish measured evidence, modelled evidence and researcher assumptions.

For comparative sustainability work, avoid selecting indicators only after seeing which option looks best. Define the comparison frame, functional unit or system boundary first. For experimental work, document replicates, controls and data-exclusion rules before interpreting results. For modelling work, distinguish calibration data from evaluation data where possible. These are not universal methodological prescriptions, but they are practical ways to make environmental claims auditable.

Laboratory, field and data projects

Environmental Engineering can involve laboratories, pilot plants, sampling, field monitoring or industrial data, but none of these is universal. When they are part of the project, plan practical risk alongside academic design.

Clarify who owns samples and data, what safety training is required, whether permits or site permissions are needed, how instruments will be calibrated, how failed runs will be handled, and where raw data will be stored. For field or seasonal work, build weather, access and sampling uncertainty into the schedule. For company data, clarify publication boundaries before analysis begins rather than at Trepo submission.

Ethics, personal data and confidentiality

Some Environmental Engineering theses use only technical or environmental measurements. Others involve interviews, surveys, stakeholder workshops, user data, location data or company information. If personal data are processed, follow Tampere’s data-protection guidance and agree procedures with the supervisor.

Do not assume an industrial commission makes the thesis confidential. Tampere treats theses as public documents. Sensitive business information, personal data, security-sensitive details or unpublished material that cannot be public should be managed outside the assessable public thesis or in another permitted form agreed with the university.

Seminar, oral presentation and opposition

Tampere’s Technology thesis framework identifies participation in a master’s thesis seminar, an oral presentation, opposition of another student’s thesis and the maturity test as parts of the thesis process. The exact implementation must be checked from the student’s current Sisu, Moodle and supervisor instructions.

This matters because programme-specific seminars are not interchangeable. Automation Engineering currently has AUT.020 with its own four requirements, but those are Automation rules, not Environmental Engineering rules. The current Environmental Engineering public degree/module pages used for this guide do not establish AUT.020 as an Environmental requirement. Do not copy another programme’s attendance counts, presentation timing or Library requirement unless your own current implementation says so.

Writing, models, figures and engineering evidence

Technology students are directed to Tampere’s Guide to Writing a Thesis in Technical Fields and the designated MSc thesis template. Use the thesis to make the reasoning auditable. Methods, assumptions, data processing and limitations should be understandable to a technically competent reader who did not participate in the project.

Models, process diagrams, PFDs, P&IDs, GIS outputs, sensor data, laboratory figures, mass balances and environmental indicators should be explained as evidence, not inserted as decoration. State units, reference conditions, uncertainty and system boundaries where relevant. If a figure is generated from software or a script, preserve enough information to reproduce or verify the result.

AI use in an Environmental Engineering thesis

Tampere permits AI support under defined conditions, but thesis use must be agreed with the primary supervisor and acknowledged according to university guidance. Students remain responsible for their own analysis and conclusions.

Do not upload personal data, confidential company information, unpublished partner material or other people’s protected work into external AI tools. AI-generated material should not be treated as a scholarly source. Current guidance allows discussion of preliminary analysis or draft improvement but does not allow the student to outsource the actual analysis or ask AI to rewrite or complete the thesis draft.

For code, data processing or modelling support, keep a record of what the tool did, verify outputs independently and retain the ability to explain every material methodological decision.

Maturity test

A maturity test is part of the master’s thesis process. For international master’s students in Technology/Architecture, Tampere states that the thesis abstract serves as the maturity test. The examiner assesses the content and the faculty records the approved result in Sisu; the Technology/Architecture guidance says this international route has no language checking.

Students who must demonstrate language proficiency through a separately language-checked maturity test follow the university’s EXAM route. Check the maturity implementation assigned to you in Sisu instead of assuming every student follows the same route.

Turnitin before formal submission

The final thesis goes through Turnitin before formal assessment. The supervisor reviews the similarity report. A similarity percentage is not an automatic plagiarism judgement: matches can come from legitimate quotations, references, common technical phrasing or problematic copying, so academic interpretation matters.

Run the final check only when the manuscript is sufficiently stable to be evaluated. Resolve citation, attribution and text-reuse issues before Trepo submission.

Trepo, attending status and PDF/A

After Turnitin, final revisions and the primary supervisor’s permission, the thesis is deposited in Trepo for examination. The student must be registered as attending to submit the thesis and receive the credits.

The University Library normally sends the Trepo access email within three working days. Forward that access information to the examiner or examiners promptly. All master’s theses are electronically archived and stored permanently, and the archive file must be PDF/A.

Check equations, figures, embedded fonts, links and accessibility after PDF/A conversion. The archive copy is not the place to discover that a model diagram disappeared or a table became unreadable.

Examiner timeline: 21 or 28 days

The normal examiner assessment window is 21 days. Tampere states that this extends to 28 days when the student must also complete a separate maturity test as part of the master’s thesis process.

These are assessment windows, not guaranteed total graduation times. Credit registration, maturity processing, possible corrections and the graduation request are separate steps. Plan backwards from any hard graduation or employment deadline.

Environmental Engineering grading: 0-5

Environmental Engineering follows the general Technology thesis grading scale: 1 Sufficient, 2 Satisfactory, 3 Good, 4 Very Good and 5 Excellent. Do not import Architecture’s pass/fail exception.

A strong engineering thesis aligns the problem, method, evidence and conclusions. Technical sophistication is useful only when it answers the research objective. A large model, extensive dataset or long experimental campaign does not compensate for an unclear question or unsupported interpretation.

Written response and appeal

The examiners’ statement and proposed grade are sent to the student’s tuni.fi email. If the student is dissatisfied with the proposed grade, Tampere permits a written response within seven days of the email. The Dean can decide on the assessment, request examiner comments or appoint an additional examiner.

After the final decision, an appeal can be submitted to the Faculty Council within 14 days from when the student had the opportunity to access the assessment result and information on application of the criteria. Once approved, the thesis is final and cannot simply be resubmitted as a new version.

Public thesis and commissioned projects

A Tampere master’s thesis is a public document, while online availability is a separate issue governed by the repository/publication process and permissions. A company NDA does not automatically convert the assessed thesis into a confidential document.

For commissioned environmental projects, design the public/private boundary at the start. The thesis should contain enough method, evidence and reasoning for academic assessment without exposing protected commercial information. If important evidence cannot be made public, discuss an academically acceptable structure with the supervisor before the work is advanced.

Research data after the thesis

Permanent archiving of the thesis does not mean Tampere automatically stores all student-controlled research data. Where the student is the data controller, Tampere recommends retaining research data for five years in certain justified circumstances so research integrity can later be checked, while special legal rules can require something different.

Store research data securely, keep documentation of processing and analysis, and remove or protect identifying information appropriately. For environmental data, preserve metadata such as units, calibration information, sampling context, versions and processing scripts where those are necessary to understand the results.

A practical Environmental Engineering workflow

A reliable sequence is: verify academic readiness; choose a problem connected to your advanced studies; identify the system boundary and evidence needed; secure a supervisor and any external access; prepare the Thesis Supervision Plan; write and review the research plan; resolve ethics, personal data, confidentiality, laboratory or field constraints; confirm the correct seminar/presentation implementation in Sisu; conduct experiments, modelling, design or analysis with documented validation; write using the technical-fields guide; agree and acknowledge AI use; complete the maturity requirement; obtain supervisor permission; complete Turnitin; convert the final thesis to PDF/A; deposit it in Trepo while registered as attending; forward the Library access email; and monitor the examiner and graduation timelines.

Final checklist

Before submission, confirm that you are following the current Environmental Engineering curriculum; the thesis is treated as 30 ECTS; YEB-S07 and your actual study plan support the topic; the chosen specialization theme has not been mistaken for a separate degree; the supervision and research plans are current; the data and validation logic are explicit; laboratory, field, personal-data or company restrictions are resolved; the correct Environmental seminar/presentation implementation has been checked rather than copied from Automation; AI use follows supervisor-agreed rules; the maturity route is complete; Turnitin has been reviewed; the final file is PDF/A; Trepo submission occurs while you are attending; and sufficient time remains for the 21/28-day assessment window plus graduation processing.

A strong Environmental Engineering thesis is not defined by whether it uses a laboratory, field site or complex model. It is defined by a well-bounded environmental problem, a defensible method, transparent evidence, responsible engineering judgement and conclusions that genuinely follow from the work.