Modelling and Simulation
Code  Completion  Credits  Range  Language 

17PBBMS  Z,ZK  4  2P+2C  Czech 
 Grading of the course requires grading of the following courses:
 Introduction to Signals and Systems (17PBBUSS)
 Lecturer:
 Jan Kauler (guarantor), Petr Maršálek (guarantor)
 Tutor:
 Jan Kauler (guarantor)
 Supervisor:
 Department of Biomedical Informatics
 Synopsis:

Basic concepts. Aims and consequences of modeling and simulation. The methodology of modeling and simulation. Inverse problem. Proposal for a new, respectively. additional experiment. Compartmental models. Physiological models. Pharmacokinetics. Continuous and discrete models of population dynamics. Epidemiological models. Veneral disease models.
 Requirements:

Knowledge of diffrential and integral calculus and theory of signals and systems.
Requirements:
1. Assignment (min. 50 % points) includes  test (max. 20 pts. on 10th Practice)
 course project (max. 20 pts.  implementation + presentation (last practice))
> 7 pts. for design, 7 implementation, 3 presentation, 3 quality of the solution
2. Exam  written exam (max. 60 pts.)
 pass the exam  min 50 % of pts. (= 30 pts.)
Final grade (ECTS scale)  exam + practices
 Syllabus of lectures:

1. Basic concepts of simulation. Aims and consequences of modeling and simulation. The methodology of model development. Parameter identification. Experiments. Objective reality, dynamical systems, mathematical and simulation. Models and their description. Informal and formal description. Forms of mathematical description of continuous and discrete systems.
2. Continuous and discrete models of single populations. Malthus continuous model. Continuous logistic model with constant and variable parameters. Analysis of the solution. Continuous models of single populations of late. Discrete models of single populations. Discrete variants of Malthusian and logistic model. Discrete models of single populations of late. Models with age structure  Leslie's model.
3. Models of interacting populations. Predatorprey model. Analysis model of Lotka  Volterra. Kolmogorov model. Model predator  prey delays. Models of interacting populations. Models of competition. Models of cooperation.
4. Epidemiological models  basic epidemiological models. SIR model. Kermackův  McKendrik model  derivation. Conditions for the spread of the epidemic, estimate the maximum number of patients, estimate the number of victims. SI models, the SIS .. SIR model with vaccination and vector. Models of Seir.
5. Epidemiological models  models of disease dynamics veneral. Derivation of the Cross model. Analysis of the solution. Model the spread of AIDS.
6. Detailed block diagram of the process of modeling biological systems. The methodology of model development. Inverse problem of vectoroptimization parameters
7. Detailed block diagram of the process of modeling biological systemscomplete. Quality estimation of model parameters, or a new proposal. additional experiment. Importance of the sensitivity function in the design of a new experiment.
8. Compartmental models. Derivation of the mathematical description compartmenal systems. Modeling compartmental models. Examples compartmental use in biology and medicine.
9. Pharmacokinetics  linear pharmacokinetic models, examples of models, nonlinear pharmacokinetic models. PHEDSIM, analysis and use.
10. Optimal pharmacotherapy  MWPharm system analysis and application.
11. Compartment modeling systems  a model of kinetics of labeled aldosterone.
12. Model of regulation of heart rate during physical stress, analysis, practical application and training process.
13. Model glucose regulation, regulatory model stomach acidity.
 Syllabus of tutorials:

1st MATLAB  SIMULINK / PHEDSIM. Familiarization with the environment SIMULINK / PHEDSIM. Demonstration of graphical programming to simple mathematical models.
2nd Models of single populations  Malthus continuous model. Analysis. Experiments with the model parameters in MATLABSimulink. Implementation of time delay in models of single populations. Discrete Malhusův and logistic model.
3rd Discrete model of singlepopulation age structure  Leslie model, simulation and analysis in Simulink.
4th Models of interacting populations. Model predator  prey, design, simulation and analysis in Simulink. Model predator  prey delay.Determination equilibria and stability.
5th Epidemiological models. SIR model, the structure design, simulation in Simulink, the model analysis. SIR model with vaccination and vector. Crossmodel  a model of the spread of AIDS.
6th Ways of creating and analyzing a mathematical model. Demonstration in Simulink / PHEDSIM systems to third Regulations  the most commonly used pharmacokinetic models. Transfer function, determination model.
7th Ways of creating and analyzing a mathematical model. Demonstration in Simulink / PHEDSIM systems to third Regulations  the most commonly used pharmacokinetic models. Transfer function, determination model.
8th Ways of creating and analyzing a compartment mathematical model. Demonstration in Simulink. Compartmental models. Build a mathematical model. Simulation in MATLABSimulink (model control of food intake).
9th Pharmacokinetics  linear pharmacokinetic models, examples of models, nonlinear pharmacokinetic models. PHEDSIM, analysis and use.
10th Determine the optimal dose of the specified drugs for healthy and ill patient (MWPharm).
11th Model the kinetics of labeled aldosterone.
12th Physiological models  a model of regulation of heart rate.
13th Physiological models  a model of glucose regulation, regulatory model stomach acidity.
 Study Objective:

To provide students with capability to design simple mathematical models of real biological systems and to theoretically analyse their properties, to implement the designed models in MATLAB and/or SIMULINK, to do basic simulation experiments and to assess results of the experiments.
 Study materials:

[1]Murray, J.D.: Mathematical Biology. Berlin, Springer Verlag 1993.
[2]Carson,E., Cobelli,C.: Modelling Methodology for Physiology and Medicine. S.Diego, AP 2001
 Note:
 Timetable for winter semester 2018/2019:
 Timetable is not available yet
 Timetable for summer semester 2018/2019:

06:00–08:0008:00–10:0010:00–12:0012:00–14:0014:00–16:0016:00–18:0018:00–20:0020:00–22:0022:00–24:00
Mon Tue Fri Thu Fri  The course is a part of the following study plans:

 Biomedical Technician  full time study (compulsory course)
 Biomedical Technician  full time study (compulsory course)