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Human Physiology for Medical School & Faculty of Medicine
Rating: 5.0 out of 5(1 rating)
60 students

Human Physiology for Medical School & Faculty of Medicine

The course combines lectures, discussions, laboratory exercises, and problem-solving sessions
Last updated 2/2026
English

What you'll learn

  • General Physiology
  • Cell Physiology Structure and function of the cell membrane Membrane transport (diffusion, osmosis, active transport) Membrane potentials and resting potenti
  • Blood Physiology A. Red Blood Cells (RBCs) Structure and function Hemoglobin: structure and oxygen transport RBC production (Erythropoiesis) and lifespan B
  • Hemostasis (Blood Clotting) Steps of hemostasis: vasoconstriction, platelet plug formation, coagulation Coagulation pathways (intrinsic, extrinsic, and common
  • Anemia Definition and classification (microcytic, normocytic, macrocytic) Causes: iron deficiency, vitamin B12/folate deficiency, hemolytic anemia, aplastic a

Course content

1 section130 lectures3h 38m total length
  • Introduction1:29
  • Cells4:44
  • Tissues1:05
  • Understanding organs in the body1:07
  • Systems of the body1:00
  • Cell Structure2:40
  • Lipid bilayer3:29
  • Cell Membrane Protien Layers2:15
  • Carbohydrates Cell Membrane2:55
  • Cytoplasm and Organelles4:52
  • Golgi Apparatus1:53
  • Lysosomes3:29
  • Peroxisomes in Cells2:17
  • Mitochondrion Overview3:00
  • Ribosomes4:23
  • Overview of the Nucleus5:43
  • DNA Structure and Function5:12
  • RNA Structure and Function4:09
  • Growth Factors2:04
  • Necrosis Cell3:39
  • Atrophy and Hypertrophy4:53
  • Cell Degeneration5:21
  • Cell Junction4:26
  • Gap Junction2:08
  • Anchoring Junction4:24
  • Transport through Cell membrane3:00
  • Protein channels2:22
  • Diffusion2:55
  • Active transport2:36
  • Primary Active transport4:31
  • Secondary active transport3:13
  • Vesicular transport ( Endocytosis )5:01
  • Exocytosis2:31
  • Molecular motors2:25
  • Homeostasis0:44
  • Homeostasis0:46

    Explore how the body maintains balance through systems coordinating pH, temperature, nutrients, and fluids. Learn how the respiratory system, kidneys, digestion, blood, and the nervous system regulate homeostasis.

  • Components of homeostatic system0:45
  • Negative feedback0:26
  • Positive feedback0:45
  • Acid_Base balance0:45
  • Determination of acid _base status0:57
  • Phosphate buffer system0:23
  • Protein buffer system0:28
  • REGULATION OF ACID-BASE BALANCE BY RESPIRATORY MECHANISM0:32
  • Acidosis & Alkalosis0:44
  • Metabolic acidosis0:40
  • Body fluids0:48
  • Hemeostasis0:36
  • Transport mechanism0:38
  • Water in metabolic reactions0:29
  • Texture of Tissues0:28
  • Temperatures regulation0:34
  • DISTRIBUTION OF BODY FLUIDS1:04
  • COMPOSITION OF BODY FLUIDS0:45
  • INDICATOR DILUTION METHOD0:35
  • INDICATOR DILUTION METHOD0:28
  • INDICATOR DILUTION METHOD0:35
  • Marker substances0:33
  • Marker substances0:36
  • CONCENTRATION OF BODY FLUIDS0:31
  • Osmolality0:40
  • Osmolarity0:43
  • Mole and Osmole0:43
  • Tonicity0:46
  • Tonicity0:40
  • Isotonic fluid0:48
  • Hypertonic fluid0:28
  • Hypotonic fluid0:44
  • Mastering water balance0:34
  • Types of dehydration1:05
  • Dehydration types according to water & sodium0:33
  • Causes of dehydration0:36
  • Signs & Symptoms0:50
  • Dehydration in infant0:26
  • Dehydration in aging0:31
  • Treatment of dehydration0:52
  • Water intoxication or overhydration0:25
  • Causes of water intoxication1:03
  • Signs & Symptoms of water intoxication1:00
  • Treatment of Water intoxication0:34
  • Blood0:33
  • Properties of blood0:48
  • Composition of blood0:44
  • Blood cells0:25
  • Hematocrit value0:39
  • Plasma0:29
  • Serum1:23
  • Functions of the blood2:25
  • Plasma protiens0:56
  • SEPARATION OF PLASMA PROTEINS2:15
  • Properties of plasma proteins0:55
  • Origin of plasma proteins0:51

    Trace the origin of plasma proteins from embryonic mesenchyme producing albumin to adult liver reticuloendothelial cell synthesis. Gamma globulin forms from B lymphocytes, with spleen, bone marrow, and tissues contributing.

  • Functions of plasma protiens1:48
  • Functions of plasma protiens in details2:57
  • Variation in plasma protiens levels0:36
  • Red blood cells0:37
  • Normal shape of RBC's0:54
  • Normal size0:29
  • Normal structure0:39
  • Properties of RBC's1:00
  • Red Blood Cell Lifespan-0:26
  • FATE OF RED BLOOD CELLS0:48
  • Functions of RBC's1:30
  • Increase in RBC Count ( Physiological variation )2:12
  • Decrease in RBC count ( Physiological variation )0:42
  • Pathological variation in RBC's1:16
  • VARIATIONS IN SIZE OF RED BLOOD CELLS0:59
  • VARIATIONS IN SHAPE OF RED BLOOD CELLS0:50
  • VARIATIONS IN STRUCTURE OF RED BLOOD CELLS0:47
  • Erythropoiesis0:52
  • RBC's production1:22
  • Process of erythropoieses1:03
  • Committed PHSCS stem cells1:07
  • STAGES OF ERYTHROPOIESIS0:42
  • STAGES OF ERYTHROPOIESIS7:01
  • Factors affecting Erithropoieses ( General factors )2:38
  • Factors affecting Erithropoieses ( Maturation factors )2:02
  • Factors affecting Erithropoieses (Factors necessary for hemogloben formation)0:53
  • Hemoglobin1:17
  • Functions of hemoglobin1:24
  • Structure of hemoglobin1:13
  • Types of normal hemoglobin0:54
  • Abnormal hemoglobin2:41
  • Abnormal hemoglobin derivatives5:33
  • Synthesis of hemoglobin2:24
  • IRON METABOLISM4:12
  • Anemia0:41
  • Types of Anemia1:08
  • Types of Anemia & Causes5:06
  • SIGNS AND SYMPTOMS OF ANEMIA1:51

Requirements

  • You will learn everything you need to know.

Description

The science of life Human Physiology
This course offers a comprehensive explanation  to human physiology, focusing on the fundamental mechanisms that govern the function of the body’s major systems. Students will explore cellular processes, tissue structure, and the coordinated activities of the muscular, nervous, cardiovascular, respiratory, renal, digestive, and endocrine systems. Special emphasis will be placed on understanding how these systems work individually and together to maintain homeostasis.

Throughout the course, students will develop a strong foundation in key physiological principles such as membrane transport, signal transduction, energy metabolism, and the integration of organ system functions. Case studies and clinical correlations will help bridge basic science with real-world applications, preparing students for advanced studies in health sciences, medicine, and related fields.

The course combines lectures, discussions, laboratory exercises, and problem-solving sessions to encourage active learning and critical thinking. Students will also engage in experiments and simulations to reinforce theoretical concepts and develop practical skills.

By the end of the course, students will be able to explain the physiological concepts of health and disease, apply physiological knowledge to new situations, and critically evaluate physiological information. No prior background in biology is required, though a basic understanding of high school biology is recommended.


Who this course is for:

  • Medical students
  • Nursing students
  • Pharma students