Agnieszka Gala-Błądzińska , Krystyna Tęcza , Wojciech Żyłka , Piotr Prach , Maciej Błądziński , Paweł Jakubczyk
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Evaluation of the usefulness of the Monte Carlo method for estimating the optimization of hemodialysis
Adequate hemodialysis minimizes complications and improves end-stage renal disease patient survival. Our study proposed a methodology for estimating hemodialysis parameters using two-compartment modelling together with Monte Carlo simulation of the probabilities of the model outputs. In addition, we modelled the removal of uremic toxins during hemodialysis, in comparison with the actual concentration of these toxins in the blood serum. Blood urea and phosphates were measured every 30 min throughout hemodialysis in 10 patients. Using a Monte Carlo simulation on the two-compartment model we estimated hemodialysis compatibility parameters for each patient individually. In patients with non-diabetic kidney disease, the actual urea and phosphate excretion dynamics were consistent with those predicted by the two-compartment model regardless of age, sex, non-diabetic comorbidities, duration of hemodialysis, residual diuresis, or type of vascular access. To measure compatibility, we used graph matching together with a quantitative measure given by a normalized coefficient of determination. In patients with end-stage diabetic kidney disease, the toxin elimination dynamics were significantly greater in the first 30 min of hemodialysis than in patients with non-diabetic kidney disease.
期刊介绍:
The scope of Physics in Medicine consists of the application of theoretical and practical physics to medicine, physiology and biology. Topics covered are: Physics of Imaging Ultrasonic imaging, Optical imaging, X-ray imaging, Fluorescence Physics of Electromagnetics Neural Engineering, Signal analysis in Medicine, Electromagnetics and the nerve system, Quantum Electronics Physics of Therapy Ultrasonic therapy, Vibrational medicine, Laser Physics Physics of Materials and Mechanics Physics of impact and injuries, Physics of proteins, Metamaterials, Nanoscience and Nanotechnology, Biomedical Materials, Physics of vascular and cerebrovascular diseases, Micromechanics and Micro engineering, Microfluidics in medicine, Mechanics of the human body, Rotary molecular motors, Biological physics, Physics of bio fabrication and regenerative medicine Physics of Instrumentation Engineering of instruments, Physical effects of the application of instruments, Measurement Science and Technology, Physics of micro-labs and bioanalytical sensor devices, Optical instrumentation, Ultrasound instruments Physics of Hearing and Seeing Acoustics and hearing, Physics of hearing aids, Optics and vision, Physics of vision aids Physics of Space Medicine Space physiology, Space medicine related Physics.