University of Jyväskylä Nanoscience Master’s Thesis Guide

Start with the three-branch Nanoscience thesis map

The current University of Jyväskylä Nanoscience programme is a 120+ ECTS Master of Science programme taught in English. Its thesis process is not controlled by one universal course code. Students first choose a specialisation: Cell and Molecular Biology, Chemistry, or Physics. Cell and Molecular Biology uses BENS5037 + BENS5038, Chemistry uses KEMS9550 + KEMS901, and Physics uses FYSS9490 + FYSS9495. All three branches share NANS1002 Seminar in Nanoscience 1 and NANS2002 Seminar in Nanoscience 2. Treat that branch choice as the first decision in every later thesis, maturity and submission step.

1. Confirm NANMP2024 before planning the thesis

The current Study Guide degree object is NANMP2024, covering the 2024-2028 curriculum. It records the Master of Science degree, English as programme language, and the Faculty of Mathematics and Science as the responsible organisation. The programme combines physics, chemistry, and cell and molecular biology, and it explicitly connects teaching with current research at the Nanoscience Center. Before using an older course list or another student’s plan, confirm that your active Sisu structure is NANMP2024 and that your specialisation module matches the branch you intend to complete.

2. Choose the specialisation before choosing thesis codes

The programme has three current advanced-studies branches: SMBSYVNAN for Cell and Molecular Biology, KEMSYVNAN for Chemistry, and FYSSYVNAN for Physics. The branches share interdisciplinary Nanoscience studies, but they do not share the same thesis and maturity objects. A course code that is correct for a Chemistry student can be wrong for a Biology or Physics student even when all three students belong to the same Nanoscience degree programme. Put your specialisation name next to every thesis code in your planning notes so that cross-branch copying becomes difficult.

3. Keep the shared NANS seminars separate from the thesis itself

All three branches list NANS1002 Seminar in Nanoscience 1, 2 ECTS, Pass/Fail and NANS2002 Seminar in Nanoscience 2, 3 ECTS, Pass/Fail. These shared seminars support scientific communication, project management, thesis-topic development and oral presentation. They do not replace the 30 ECTS branch thesis. A student still has to register for and complete the correct BENS5037, KEMS9550 or FYSS9490 thesis object for the chosen specialisation.

4. Treat research-group work as programme context, not a substitute for degree rules

NANMP2024 says thesis projects are carried out in research groups as part of ongoing research. That context is important because it gives students access to current questions, methods, instruments, simulations and supervisors. It does not remove the formal degree route. A research-group project becomes a master’s thesis only when it is registered, supervised, written and assessed through the thesis object for the student’s branch, followed by the correct maturity and Vasara process.

5. Nanoscience is multidisciplinary, but one thesis still needs a bounded problem

The degree intentionally brings together physics, chemistry and biology. That does not mean one thesis must cover all three disciplines. Define one research problem, one main system or phenomenon, and the evidence needed to answer it. Interdisciplinary elements should be included when they improve the research design or interpretation, not simply to make the thesis look more “nanoscientific.” A well-bounded project with strong methods and a clear contribution is more defensible than an over-broad project that touches three disciplines without depth.

6. Computational Nanosciences is important, not a universal thesis method

NANS1004 Computational Nanosciences, 2-4 ECTS introduces computational methods, infrastructure and a practical project. It teaches students to choose methods according to the material system and the property under investigation. This is programme competence, not proof that every thesis must use computation or one named software package. Chemistry explicitly permits computational work, while Cell and Molecular Biology and Physics projects may use experimental, theoretical, computational or mixed approaches depending on the question and supervisor-approved design.

7. Practical laboratory training also does not make every thesis experimental

NANS1006 Practical Course in Nanoscience develops laboratory competence across nanoscience systems and characterization techniques. Its presence in the programme should not be converted into a universal wet-laboratory thesis requirement. The controlling evidence is the branch thesis object and approved research design. Chemistry may be experimental or computational. Physics can be theoretical or experimental. Biological projects can differ in data source and technique. Choose the method because it answers the research question, not because a practical course used that technique.

8. Cell and Molecular Biology uses BENS5037 for the thesis

For the Cell and Molecular Biology specialisation, the thesis object is BENS5037 Master of Science Thesis, 30 ECTS, grade 0-5. It trains independent scientific research under supervision. Before the work begins, the thesis topic must be agreed and the relevant thesis agreement completed. The course also expects the theoretical background and research plan to be presented before experiments or data collection start. Do not replace BENS5037 with KEMS9550 simply because both are 30 ECTS thesis courses in the same Nanoscience programme.

9. CMBS5036 is branch-specific thesis preparation, not a thesis-length rule

The Cell and Molecular Biology route includes CMBS5036 Literature examination related to Master’s thesis, 5 ECTS, grade 0-5. The material is agreed with the thesis supervisor and approved by the professor of the study branch, and the exam is normally completed before the thesis project begins. Its normal reading quantity is an examination expectation, not a page count for BENS5037. Do not turn the reading load into a thesis-format rule, and do not impose CMBS5036 on the Chemistry or Physics branches.

10. The Cell and Molecular Biology assessment is broader than experimental success

BENS5037 assessment covers logic and clarity, connection to theoretical background and research aims, literature, methods and/or experiments, results, interpretation and conclusions, independence, initiative, time management, final quality and language. This matters because a technically difficult experiment does not automatically produce a high thesis grade. The research argument, use of literature, interpretation and quality of reporting remain assessable even when the project is embedded in a strong laboratory group.

11. Cell and Molecular Biology uses two evaluators and departmental grading

The current BENS5037 course says two evaluators present a written report to the department vice head, who accepts the thesis and assigns the final grade. University regulations also require two examiners for a master’s thesis and require at least one examiner to hold a doctoral degree. Read the written report carefully before accepting the final evaluation. The branch-specific department process operates inside those university-wide examiner and response rights.

12. BENS5038 is an actual maturity-exam route for international students

The Cell and Molecular Biology maturity object is BENS5038 Maturity exam, 0 ECTS, Pass/Fail. Current course guidance says international students complete the maturity exam when the master’s thesis is submitted for evaluation and should contact the study-programme responsible teacher to organise it. The completion method can be handwritten or computer based. This is materially different from the Chemistry branch, where KEMS901 normally accepts the thesis abstract. Do not copy the Chemistry maturity route into the biological branch.

13. Cell and Molecular Biology submission uses BENS Moodle, Turnitin and Vasara

For this branch, register BENS5037 Master’s Thesis and BENS5038 Maturity Test. The current return instructions direct the student to submit the thesis PDF in the BENS5037 Moodle submission box, where it is checked through Turnitin, and then submit the checked final thesis to Vasara for assessment. The Faculty has delegated thesis approval to departments, and the department vice head decides the assessment. Keep this sequence separate from the Chemistry KEMS Moodle route and the Physics FYSS Moodle route.

14. Chemistry uses KEMS9550 for the 30 ECTS thesis

For the Chemistry specialisation, the thesis object is KEMS9550 Master’s Thesis, 30 ECTS, grade 0-5. It requires a literature review plus a research component and evaluates the student’s ability to define a scientific problem, use literature critically, select appropriate methods, carry out the study, analyse results and relate them to existing knowledge. Advanced Chemistry studies should be substantially complete before the thesis begins. The branch may use laboratory or computational research depending on the topic.

15. Chemistry explicitly supports experimental or computational thesis work

KEMS9550 is unusually clear: the thesis contains a literature review and an experimental or computational component. Experimental projects require appropriate laboratory methods and measurements. Computational projects require simulations relevant to the research questions using suitable computational software. The rule is suitability to the project, not one compulsory instrument, simulation code or software package for every student. This is one reason the programme’s general laboratory and computational courses must not be converted into a universal thesis template.

16. Nanoscience Chemistry requires the thesis in English

KEMS9550 course metadata lists both Finnish and English, but the Nanoscience Chemistry advanced-studies module is programme specific and states that the international studies are completed in English and the master’s thesis must be completed in English. Therefore the programme rule controls. A Finnish option visible at department course level is not automatic permission for a Nanoscience Chemistry student to submit the degree thesis in Finnish.

17. Chemistry supervision starts with a responsible JYU supervisor and agreement

Current Chemistry guidance says the student finds a suitable supervisor and agrees on topic, schedule and guidance practices. A thesis can have several supervisors, but the responsible supervisor must be employed by JYU and hold a doctoral degree. The discussion is confirmed through a supervision agreement. Use that agreement to control scope, milestones and communication. External or company experts can contribute specialist knowledge, but the responsible JYU supervisor retains the academic role required by the university.

18. Chemistry maturity normally uses the thesis abstract

The Chemistry maturity object is KEMS901 Maturity Exam for Master’s Degree, 0 ECTS, Pass/Fail. In an English-medium programme it is normally completed in English, and the current KEMS901 description says the master’s-thesis abstract written in the programme language is usually accepted as the maturity exam. That abstract is assessed for both content and language. Therefore, do not automatically schedule a separate maturity essay merely because JYU also has generic essay guidance.

19. Chemistry has a school-language exception to the abstract route

KEMS901 has an important exception. A student whose school education was in Finnish or Swedish and who has not already demonstrated the required proficiency through the bachelor’s maturity test completes a separate examination in the school language. The content is evaluated by the discipline and language quality by an approved language specialist. This is why two Nanoscience Chemistry students can legitimately have different maturity routes while following the same degree structure.

20. Chemistry submission uses KEMS9550/KEMS901, Moodle and Vasara

Register KEMS9550 and KEMS901 in Sisu to access the Chemistry Moodle workflow. When the thesis is final, submit it for originality checking in Moodle, then follow the university Vasara instructions for formal assessment. Current Chemistry return guidance says the student receives the grade notification by email and has 14 days to respond. Do not submit an editable working draft to Vasara. The file entering final assessment should already be the final thesis.

21. Physics uses FYSS9490 for the 30 ECTS thesis

For the Physics specialisation, the thesis object is FYSS9490 MSc Thesis, 30 ECTS, grade 0-5. It is an advanced-studies research thesis on a topic related to the student’s subject and is prepared independently with supervisor support. The course expects a comprehensive scientific report and assesses coherence, literature use, independence, timeliness and subject-specific quality. Physics uses its own Department guidance and Moodle workspace, not the Chemistry or Biology thesis workflow.

22. Physics can support individual or two-author thesis work

FYSS9490 permits an individual author or two authors working as a pair, provided each student’s contribution can be identified and independently assessed. University Degree Regulations apply the same principle to joint theses and larger research projects. If two students work together, define responsibilities, data ownership, analysis tasks and writing contributions early. A shared experimental setup or dataset does not remove the requirement for separately assessable academic contribution.

23. Physics uses a formal supervision agreement

The Physics branch uses a supervision agreement to establish the responsible instructor, any additional instructors, preliminary topic difficulty, expected schedule, guidance practices and thesis checkpoints. Current Physics guidance says schedule performance in assessment is based on the estimate recorded in the agreement unless the schedule is formally updated. Treat the agreement as a living project-control document. If equipment access, simulation work or another justified dependency changes the schedule, update the agreement instead of silently missing the original plan.

24. Physics maturity usually accepts the thesis abstract

The Physics maturity object is FYSS9495 Maturity Test, 0 ECTS, Pass/Fail. In English-medium programmes it is normally completed in English. In ordinary cases the abstract of the master’s thesis written in the programme language is accepted as the maturity test and assessed for content and language. If the required Finnish or Swedish school-language proficiency has not previously been demonstrated, an examination route applies instead. Confirm the route in Sisu/Moodle rather than borrowing BENS5038 or KEMS901 instructions.

25. Physics submission uses the FYSS9490 Moodle route before Vasara

Current return guidance tells Physics students to register FYSS9490 and FYSS9495 in Sisu, submit the final thesis in the FYSS9490 Moodle workspace for plagiarism detection, and then use the electronic Vasara system for submission, assessment and archiving. Physics also uses supervisor pre-examination before final assessment. This sequence is not interchangeable with the BENS5037 or KEMS9550 Moodle spaces.

26. NANS1002 should begin before the thesis becomes difficult to manage

NANS1002 focuses on scientific presentation practices, thesis-topic guidance and management of a research project. The course also requires 70% presence in compulsory seminar sessions. Use it early to compare thesis ideas, identify a research-group context and think about project scope. A small 2 ECTS course can still become a graduation bottleneck if attendance obligations are left until the end of the degree.

27. NANS2002 links the thesis project to oral scientific communication

NANS2002 is a 3 ECTS Pass/Fail seminar and expects at least the starting phase of the MSc thesis project. It includes oral presentation work and seminar participation, with 70% attendance in compulsory sessions. In the Chemistry branch, the programme thesis page explicitly says the thesis oral presentation is included in NANS2002. Use the course to explain the question, method, evidence and limitations clearly to a multidisciplinary audience rather than only presenting polished results.

28. Choose the research question before the instrument or software

Nanoscience offers attractive instruments, laboratory systems and computational tools. Do not begin by choosing a technique and then searching for a question that fits it. Define the phenomenon and research question first, then justify the measurement, experiment, theory, simulation or data-analysis route. A strong thesis explains why the method can answer the question and what its limitations are. Programme exposure to advanced tools does not itself prove that a particular tool is required for your branch thesis.

29. Keep branch-specific maturity routes separate from generic JYU guidance

JYU’s general maturity page gives broad essay guidance, including a practical 700-word reference for some essay routes. That does not create one Nanoscience maturity format. BENS5038 currently uses an exam route for international Cell and Molecular Biology students. KEMS901 normally accepts the thesis abstract in Chemistry. FYSS9495 normally accepts the abstract in Physics, with defined language exceptions. Use generic maturity guidance only after your branch object has established the actual route.

30. Two examiners and student response rights apply across branches

University Degree Regulations require two examiners for a master’s thesis, with at least one holding a doctoral degree. The second examiner may be the supervisor. The student has an opportunity to respond to the examiner statements before the final grade and may interrupt the assessment process once before the decision. Branch pages can add operational detail, but they do not remove these university rights. Read the evaluation report before accepting it in Vasara.

31. Keep confidential project material out of the public thesis

Nanoscience theses can be connected to research groups, companies and external research institutes. Even then, the master’s thesis is a public academic document and is archived in JYX. Decide early which data, spectra, images, process details, unpublished results or commercial information can appear in the public file. Confidential background material should be separated from the assessed thesis rather than hidden inside it. A commissioning agreement cannot convert the public thesis into a secret company document.

32. Use AI transparently, but never as scientific evidence

JYU allows AI-based applications in studies in principle, subject to the instructions for the study unit. The student remains responsible for submitted work, and AI output is not a scientific source. If AI is used for brainstorming, coding support, language support or another permitted task, disclose it as required and verify substantive claims against original scientific sources and research data. Do not upload confidential research-group material, personal data or restricted unpublished results to an external AI service without an appropriate data-handling basis.

33. Personal data and ethical review depend on the actual project

Many Nanoscience theses work with materials, physical systems, molecules, cells or simulations and may not process personal data. Some projects can still include interviews, human-derived information or identifiable metadata. If personal data are processed, plan controller responsibilities, minimisation, storage and access before collection. Human-sciences ethical review is not automatic for every thesis. JYU follows TENK criteria, so prior committee review is required when an applicable criterion is met.

34. Keep a living data-management plan and reproducible records

JYU describes the Data Management Plan as a living document covering the research-data lifecycle. In Nanoscience that can include raw instrument files, microscope images, spectra, simulation inputs, code, molecular structures, calibration information, sample identifiers, laboratory notebooks and processed datasets. Record file naming, metadata, access rights, backups, retention, disposal and any conditions on opening data. Good research-data management is especially important when a thesis is embedded in a larger research-group project with shared infrastructure.

35. Use the citation style required by the field consistently

JYU requires sources to be acknowledged when quoted or paraphrased and recognises multiple citation styles. The current general guidance does not establish one universal APA rule for every Nanoscience thesis. Follow the conventions of the relevant department, branch and supervisor, and use the chosen style consistently. In interdisciplinary work, agree early on how to handle references from physics, chemistry and biological literature so that one coherent reference system is maintained throughout the thesis.

36. Accessibility and PDF/A belong in final preparation

The final online thesis must meet accessibility requirements, and current JYU submission guidance uses an accessible PDF/A file for the formal process. Plan heading hierarchy, table structure, figure captions, alternative descriptions where appropriate, readable equations and document metadata before the last day. Accessibility work is easier when built into the document than when added after the science is finished. Check the final PDF after conversion because fonts, equations and figure labels can change during export.

37. Do not import Aquatic, CACE or HPC programme requirements

Nanoscience shares some department-level course codes with other JYU programmes, but that does not merge degree requirements. Aquatic WETS components do not become Cell and Molecular Biology requirements. CACE laboratory-credit selections do not automatically become Nanoscience Chemistry requirements. HPC specialisation rules do not automatically become Nanoscience Physics or Chemistry rules. The valid source hierarchy is your NANMP2024 specialisation module, the exact branch thesis/maturity objects, and current department/university instructions.

38. Recheck the branch-specific Moodle and Sisu implementation before final submission

The Study Guide provides the stable course objects, but operational details such as implementation dates, Moodle access and Sisu enrolment can change by academic year. Before the final stage, confirm the active implementation for BENS5037/BENS5038, KEMS9550/KEMS901 or FYSS9490/FYSS9495. Confirm the Turnitin location, maturity method, supervisor pre-check if applicable, final Vasara route and any active departmental deadlines. A correct old workflow can still become operationally wrong after an implementation change.

39. Final Nanoscience checklist

Before release, confirm NANMP2024 and your specialisation; keep NANS1002/NANS2002 separate from the 30 ECTS thesis; use BENS5037/BENS5038/CMBS5036 for Cell and Molecular Biology, KEMS9550/KEMS901 for Chemistry, or FYSS9490/FYSS9495 for Physics; choose methods from the research question rather than a universal lab or software rule; complete the branch supervision and maturity route; finish Turnitin in the correct Moodle space; submit the final accessible PDF/A through Vasara; read the examiner report before acceptance; and verify the final JYX publication and recorded grade.