Branch programme/details

It is an interdisciplinary study branch which connects classical physics (particularly continuum mechanics and thermodynamics) with mathematical analysis and numerical mathematics. The student should go through the construction or understanding of the physical model, its mathematical analysis up to its numerical solution.
Due to the complexity of problems studied both in the research and in the praxis a closed colaboration among specialist from different areas is needed. Typically, the physicists and engineers contruct the models and mathematicians study the mathematical properties of the models and solve the models numerically. These specialists often use different languages to describe the same problem. The graduates of this programme should be able to communicate with all of them and are therefore prepared to lead such groups. Moreover, they should also be prepared to solve simpler problems by themselves: from the construction of the model through its analysis up to its numerical solution.

Entrance examination to all programmes taught in English
The entrance examination for all study programmes consists of two rounds.

1st round
Assessment of candidates on the basis of the attachments to the application form. The admissions committee evaluates attachments according to the following criteria:
a) Results and quality of previous studies (grades, quality of the university, time since the graduation)
b) Compatibility of the applicant’s Master’s degree with the scientific field of the doctoral programme
c) Quality of a motivation letter
d) Content of recommendation letters and their relevance
e) Publications or other professional achievements, proving the candidate's qualifications for doctoral studies
f) The level of English language proficiency

The assessment of each criterion is on a scale of 0-5 points, i.e. a maximum of 30 points can be obtained in the evaluation. To qualify for the 2nd round of the entrance exam, the candidate must obtain at least 15 points.

The results of the 1st round will be communicated to candidates by December 15, 2025 at the latest.

Invitation to 2nd round of the entrance examination
The invitation to 2nd round of the entrance examination will be sent to those applicants, who obtained at least 15 points in the 1st round of the entrance examination.
The invitation to an entrance examination is delivered through the University Electronic Information System in mid-December, 2025.

2nd round
The second round of the entrance examination may be conducted online, by means of information and communication technologies. It consists of two parts, the first one of which is related to the suggested dissertation topic, the second part then concerns the foundations of the scientific field of the study programme. The examination committee will evaluate the accuracy and completeness of all answers for a given part on a scale of grades: Excellent, Very good, Good and Fail. The applicant will get the following amount of points for each grade: Excellent 20 points, Very good 14 points, Good 8 points and Fail 0 points. The candidate can therefore obtain a maximum of 40 points in the 2nd round. The committee assesses the answers in particular from the point of view of correctness, completeness, accuracy and a demonstrated knowledge of the field. The exam will be conducted in English.

Points for the 1st and 2nd rounds are added together. In order to pass the entrance examination, the applicant must obtain at least 50 points from both rounds together. The applicants with lower total scores cannot be admitted to doctoral studies.

Admission conditions after the 2nd round
All study programmes, with the exception of the study programme Physics Education and General Problems of Physics, will admit all applicants who successfully pass the entrance examination.
The programme Physics Education and General Problems of Physics will admit only the applicant who successfully passes the entrance examination and obtains the highest number of points in total for both rounds of the entrance examination.

Demonstrating English language proficiency
English language proficiency should be demonstrated by fulfilling at least one of the following conditions:
A. The applicant spent at least two years of his/her previous education at secondary or university level with English as the sole language of instruction in one of the following countries: Australia, Canada, India, Ireland, Malta, New Zealand, Pakistan, South Africa, UK or USA.
B. The applicant has passed one of the following exams (in some cases we recognize the exam only with a minimum score or level):
• General State Language Examination in English in the Czech Republic
• TOEFL Essentials – 10 points
• TOEFL iBT – 95 points
• TOEFL ITP – 627 points
• IELTS – 7 points
• C2 Proficiency (formerly known as CPE) - Pass
• C1 Advanced (formerly known as CAE) - Pass
• ESOL International (C1 – C2)
• TELC (The European Language Certificates) – TELC English C1 - Pass
• UNIcert English for Mathematicians: Level C1 – level C1
• Melab – 85 points
• Examination for the Certificate of Proficiency in English (ECPE) - Pass
• Test of English for International Communication (TOEIC) – 785 points

Admission to Doctoral studies is conditioned by successful completion of a Master's study programme.

Verification method:	entrance exam
Confirmation date (of entrance exam) from:	12.01.2026	Until:	16.01.2026
Alternative date (of entrance exam):	26.01.2026	Until:	30.01.2026

The holder of the diploma graduated from the doctoral study of a program which is combined between mathematics and classical physics and is directed to modelling in the physics of solids, liquids and gases with possible applications in the material science, geophysics, biology or medicine. Due to the content of the doctoral thesis the student dealt with creation or properties of models in mechanics and thermodynamics of fluids and solids, the connected mathematical or numerical analysis of the corresponding systems of partial differential equations or their numerical solution. The graduates of this program have good knowledge of mathematical and numerical analysis, classical physics and applications of numerical methods, and are able to fomulate, analyze and numerically solve real world problems.