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Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter.

Title
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter.
Semester
E2025
Master programme in
Physics and Scientific Modelling
Type of activity

Course

Mandatory or elective

Mandatory

Teaching language
English
Study regulation

Read about the Master Programme and find the Study Regulations at ruc.dk

Læs mere om uddannelsen og find din studieordning på ruc.dk

REGISTRATION AND STUDY ADMINISTRATIVE
Registration

Sign up for study activities at stads selvbetjening within the announced registration period, as you can see on the Studyadministration homepage.

When signing up for study activities, please be aware of potential conflicts between study activities or exam dates.

The planning of activities at Roskilde University is based on the recommended study programs which do not overlap. However, if you choose optional courses and/or study plans that goes beyond the recommended study programs, an overlap of lectures or exam dates may occur depending on which courses you choose.

Number of participants
ECTS
10
Responsible for the activity
Kristine Niss (kniss@ruc.dk)
Head of study
Nicholas Bailey (nbailey@ruc.dk)
Teachers
Study administration
INM Registration & Exams (inm-exams@ruc.dk)
Exam code(s)
U60191
ACADEMIC CONTENT
Overall objective

The course in Experiments and Models is intended to train the student’s skills to conduct experiments, treat data and construct models for physical systems. The students will acquire exemplary knowledge on the interplay between theory, models and experiments and learn to bring them into play in a concrete context.

Detailed description of content

The thematic focus in this course is on experimental methods and models of dynamics and structure of materials, particularly liquids and soft matter.

Course material and Reading list

Fundamentals of Condensed Matter and Chrystalline Physics - by David L. Sidebottom, Cambridge University Press

The course material will be a mixture of notes, lab-instructions and textbook material. The pensum will be specified on the moodle-page of the course.

Overall plan and expected work effort

The expected work effort of the students is approximately 270 hours. The hours are distributed between different activities. The times indicated here are estimates.

  • 48 hours class (lectures and small experiments)

  • 12 hours for a selected experiment

  • 62 hours preparation for class (reading and problem solving)

  • 40 hours working with portfolio part A (small experiments)

  • 56 hours working with portfolio part B (selected experiment)

  • 50 hours preparation for exam

  • 1 hour exam

Format
Evaluation and feedback

The course includes formative evaluation based on dialogue between the students and the teacher(s).

Students are expected to provide constructive critique, feedback and viewpoints during the course if it is needed for the course to have better quality. Every other year at the end of the course, there will also be an evaluation through a questionnaire in SurveyXact. The Study Board will handle all evaluations along with any comments from the course responsible teacher.

Furthermore, students can, in accordance with RUCs ‘feel free to state your views’ strategy through their representatives at the study board, send evaluations, comments or insights form the course to the study board during or after the course.

Programme

The first part of the course focuses on dynamical properties of materials. A key part of the course is Electric circuit analogies used as a tool to visualize and model simple linear differential equations describing fundamental properties of materials. This part of the course includes two experiments which are performed by all students (in small groups) and

The second part of the course deals with structure of materials and basic scattering theory.

In the third part of the course students perform a larger experiment in small groups. The experiment will be within the field of structure and dynamics of amorphous and soft matter.

Details of the plan will be on the course Moodle-page.

ASSESSMENT
Overall learning outcomes

After completing the course the students will be able to

  • demonstrate skills in using certain technical apparatus for physics experiments e.g., electronic measuring equipment and data collection on computers

  • analyse and present the data obtained

  • demonstrate knowledge, understanding and insight into selected elements of electrodynamics, continuum mechanics, thermodynamics and condensed matter physics in a concrete experimental context

  • demonstrate understanding and reflection on the overview of the experimental methods used and their status in physics

  • apply complex functions and linear differential equations in order to model experimental results.

  • define basic scattering theory and use it to describe theory and dynamics of liquids

  • discuss the importance of the experimental results achieved and relate them to relevant theories and models.

Prerequisites
Form of examination

Individual oral exam based on a portfolio.

The character limit of the portfolio is 1,200-120,000 characters, including spaces. Examples of written products are exercise responses, talking points for presentations, written feedback, reflections, written assignments. The preparation of the products may be subject to time limits.
The character limits include the cover, table of contents, bibliography, figures and other illustrations, but exclude any appendices.

Time allowed for exam including time used for assessment: 30 minutes.
The assessment is an assessment of the oral examination. The written product(s) is not part of the assessment.

Permitted support and preparation materials for the oral exam: All.

Assessment: 7-point grading scale.
Moderation: Internal co-assessor
Form of Re-examination
Samme som ordinær eksamen / same form as ordinary exam
Type of examination in special cases
Examination and assessment criteria (implemented)

The exam starts with a short presentation by the student on a selected experiment and is followed by questions and discussions which may cover all parts of the curriculum.

The student will be evaluated on their ability to

  • present and discuss the experiments and theory of the course in a relevant manner

  • analyse and present the data obtained

  • demonstrate knowledge, understanding and insight into selected elements of electrodynamics, continuum mechanics, thermodynamics and condensed matter physics in a concrete experimental context

  • demonstrate knowledge of the theory relevant for interpreting the experiments (e.g. complex response functions and scattering theory)

  • demonstrate understanding and reflection on the overview of the experimental methods used and their status in physics

  • discuss the importance of the experimental results achieved and relate them to relevant theories and models.

Regarding the use of generative AI at the exam

In this course, generative AI tools (GAI) are allowed in the work on the exam if their use is declared. You must clearly indicate how you have used generative artificial intelligence (GAI). This can, for example, be included as part of a methodology section or as a brief statement at the end of your exam paper or submitted as an appendix to your assignment. This means that you must describe how you have used GAI, for example, for preparatory work on the assignment, to ask questions, search and process information, receive feedback and critique on your text, perform proofreading, or improve language and readability. It is important that you actively consider your choice of tools in this way, as it is part of the entire creation process of the assignment and thus part of your scientific method and academic communication.

The use of any specific text that is GAI-generated requires citation, just like the use of any other sources from which direct quotes are taken.

In the library's guide, you can see more about how to cite AI and how you can declare your use of GAI - find the guide here.

Regular spell check and other language suggestions, as known from Word or other word processing programs, as well as programs for writing minutes and transcription, are allowed in all written exams and do not need to be declared.

Exam code(s)
Exam code(s) : U60191
Last changed 23/10/2025

lecture list:

Show lessons for Subclass: 1 Find calendar (1) PDF for print (1)

Monday 08-09-2025 13:15 - 08-09-2025 15:00 in week 37
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 09-09-2025 10:15 - 09-09-2025 12:00 in week 37
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Friday 12-09-2025 10:15 - 12-09-2025 12:00 in week 37
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 15-09-2025 13:15 - 15-09-2025 15:00 in week 38
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 16-09-2025 10:15 - 16-09-2025 12:00 in week 38
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Friday 19-09-2025 10:15 - 19-09-2025 12:00 in week 38
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 22-09-2025 13:15 - 22-09-2025 15:00 in week 39
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 23-09-2025 10:15 - 23-09-2025 12:00 in week 39
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Friday 26-09-2025 10:15 - 26-09-2025 12:00 in week 39
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 29-09-2025 13:15 - 29-09-2025 15:00 in week 40
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 30-09-2025 10:15 - 30-09-2025 12:00 in week 40
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Thursday 02-10-2025 23:00 - Friday 03-10-2025 00:00 in week 40
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Hand in Maxwell Model report on Moodle, deadline 23:59

Friday 03-10-2025 10:15 - 03-10-2025 12:00 in week 40
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 06-10-2025 13:15 - 06-10-2025 15:00 in week 41
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 07-10-2025 10:15 - 07-10-2025 13:00 in week 41
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Friday 10-10-2025 10:15 - 10-10-2025 12:00 in week 41
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 13-10-2025 13:15 - 13-10-2025 15:00 in week 42
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 14-10-2025 10:15 - 14-10-2025 13:00 in week 42
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Friday 17-10-2025 10:15 - 17-10-2025 12:00 in week 42
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 20-10-2025 13:15 - 20-10-2025 15:00 in week 43
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 21-10-2025 10:15 - 21-10-2025 12:00 in week 43
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Thursday 23-10-2025 23:00 - Friday 24-10-2025 00:00 in week 43
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Hand in scattering report on Moodle, deadline 23:59

Friday 24-10-2025 10:15 - 24-10-2025 12:00 in week 43
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 27-10-2025 13:15 - 27-10-2025 15:00 in week 44
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 28-10-2025 10:15 - 28-10-2025 12:00 in week 44
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Friday 31-10-2025 10:15 - 31-10-2025 12:00 in week 44
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 03-11-2025 13:15 - 03-11-2025 15:00 in week 45
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Tuesday 04-11-2025 10:15 - 04-11-2025 12:00 in week 45
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Thursday 06-11-2025 23:00 - Friday 07-11-2025 00:00 in week 45
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Hand in all the three mandatory reports on Moodle, deadline 23:59

Friday 07-11-2025 10:15 - 07-11-2025 12:00 in week 45
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 10-11-2025 09:15 - 10-11-2025 15:00 in week 46
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 17-11-2025 09:15 - 17-11-2025 15:00 in week 47
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Monday 24-11-2025 09:15 - 24-11-2025 15:00 in week 48
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
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Friday 28-11-2025 23:00 - Saturday 29-11-2025 00:00 in week 48
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Hand in report on selected experiment on Moodle, deadline 23:59

Wednesday 07-01-2026 09:00 - 07-01-2026 10:00 in week 02
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Hand-in of portfolio in Digital Exam, deadline 10:00

Wednesday 21-01-2026 08:15 - 21-01-2026 16:00 in week 04
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Exam

Friday 20-02-2026 09:00 - 20-02-2026 10:00 in week 08
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Hand-in of portfolio in Digital Exam, deadline 10:00 (reexam)

Thursday 26-02-2026 08:15 - 26-02-2026 16:00 in week 09
Experiments and Models – Linear Response: Structure and Dynamics of Condensed Matter
Reexam