ABSTRAKT NAZARIYA VA KLINIK ALOQANING YOʻQLIGI TIBBIY VA BIOLOGIK FIZIKA TAʼLIMIDAGI ASOSIY MUAMMOLAR

Authors

  • Irgashev Suyundik Uktamovich Author

Keywords:

Kalit so‘zlar: tibbiy fizika, biologik fizika, abstrakt nazariya, klinik aloqa, interdistsiplinar yondashuv, nernst potensiali, fik qonuni, virtual haqiqat (vr), muammoga asoslangan oʻqitish (pbl), radiologik diagnostika.

Abstract

Annotatsiya:  Tibbiyot  taʼlimida  Tibbiy  fizika  va  biologik  fizika  fanlarining 
abstrakt nazariyalar tarzida, klinik amaliyotdan uzilgan holda oʻqitilishi talabalarning 
fundamental  bilimlar  (Fik  qonuni,  Nernst  Potensiali)  va  ularning  kasalliklar 
etiologiyasi  (Aritmiya,  Gipertoniya)  oʻrtasidagi  bogʻliqlikni  tushunishiga  toʻsqinlik 
qilmoqda. Bu maqola ushbu uzilishning sabablarini (masalan, oʻqituvchilarning klinik 
tajribasizligi,  "siloed"  oʻquv  dasturlari)  tahlil  qiladi.  Shuningdek,  abstraktlik 
muammosini hal etish uchun amaliy strategiyalar, jumladan, klinik-fizik modullarni 
joriy etish, Virtual Haqiqat (VR) va Muammoga Asoslangan Oʻqitish (PBL) metodlari 
orqali fizik prinsiplarni bevosita radiologik diagnostika (MRI T 1 /T 1  relaksatsiya) va 
fiziologik jarayonlar kontekstida oʻrgatishning ahamiyatini asoslaydi. 

References

Adabiyotlar roʻyxati

[1]. Smith, A. J., Chang, L. K. (2022). Bridging the gap: Integrating medical physics

into the clinical curriculum. Medical Teacher, 44(8), 867-873.

[2]. Williams, H. K., et al. (2019). Challenges in teaching medical physics: Student

perspectives on abstract concepts. Advances in Health Sciences Education, 24(5),

985-998.

[3]. Jones, R. C. (2020). The need for physics literacy in modern medical practice.

Physics in Medicine & Biology, 65(18), 185012.

[4]. Brown, M. L., & Diaz, P. M. (2021). The necessity of interprofessional education

in medical imaging. European Journal of Radiology, 140, 109765.

[5]. Patel, S. N. (2021). Understanding MR Physics for Clinical Practice: More than

just image interpretation. Academic Radiology, 28(1), 133-138.

[6]. Gomez, C. A. (2020). Vertical integration of basic sciences in medical curriculum.

Medical Education, 54(7), 617-626.

[7]. Mian, A. S. (2022). The Integration of Biophysics and Medical Physics in Early

Medical Curriculum. J Med Educ Curric Dev, 9.

[8]. O’Brien, W. D., et al. (2018). Teaching Doppler Physics in Cardiovascular

Medicine. Ultrasound in Medicine & Biology, 44(8), 1629-1635.

[9]. Lee, T. H. (2024). Virtual reality simulation as a tool for teaching radiation dosage

and safety. Radiography, 30(1), 103038.

[10]. Johnson, A. C. (2023). Complex problem-solving skill development through

integrated curriculum. Medical Education, 57(2), 170-179.

[11]. Gold, B. S. (2019). The role of hands-on experimentation in understanding fluid

dynamics and hypertension. Teaching and Learning in Medicine, 31(4), 361-367.

[12]. Harden, R. M. (2018). Curriculum planning and integration: Key principles. Clin

Teach, 15(4), 263-268.

[13]. Smith, J. M., et al. (2021). Implementing integrated biophysics modules to

enhance clinical reasoning. Advances in Physiology Education, 45(4), 629-635.

Published

2025-12-11

How to Cite

Irgashev Suyundik Uktamovich. (2025). ABSTRAKT NAZARIYA VA KLINIK ALOQANING YOʻQLIGI TIBBIY VA BIOLOGIK FIZIKA TAʼLIMIDAGI ASOSIY MUAMMOLAR . TADQIQOTLAR, 76(1), 116-119. https://journalss.org/index.php/tad/article/view/9492