Demonstrate Knowledge Of The Macro Structure Basic Functions And Applied Basic Biophysics Of All Human Body Systems Training

Objectives:
• Define the macro structure of the human body and its major systems.
• Explain the basic functions of cells, tissues, and organs.
• Describe the principles of biophysics relevant to body function.
• Identify the levels of structural organisation in the human body.
• Apply basic biophysical concepts (e.g., diffusion, osmosis) to body systems.

Topics:
• Overview of the human body: anatomical position, directional terms, and body cavities.
• Levels of organisation: chemical, cellular, tissue, organ, system, organism.
• Basic biophysics: diffusion, osmosis, active transport, and membrane potentials.
• Introduction to the major body systems: integumentary, skeletal, muscular, nervous, endocrine, cardiovascular, lymphatic, respiratory, digestive, urinary, and reproductive.
• Homeostasis and feedback mechanisms.
• Practical activity: Microscopic observation of epithelial and connective tissues.

Objectives:
• Describe the macro structure and functions of the skeletal system.
• Explain the role of joints and muscles in movement.
• Discuss the integumentary system's protective and regulatory functions.
• Apply biophysical principles to muscle contraction and bone strength.
• Identify common disorders of these systems.

Topics:
• Skeletal system: bone structure, classification, and functions (support, protection, mineral storage, blood cell production).
• Joints: types and movements.
• Muscular system: muscle types (skeletal, cardiac, smooth), contraction mechanism (sliding filament theory), and energy biophysics.
• Integumentary system: layers (epidermis, dermis, hypodermis), functions (protection, thermoregulation, sensation).
• Biophysics of lever systems in the body.
• Case study: Osteoporosis and muscular dystrophy.

Objectives:
• Describe the macro structure and functions of the nervous system.
• Explain the endocrine system's role in hormone regulation.
• Understand biophysical principles of nerve impulse transmission and synaptic communication.
• Compare nervous and endocrine control mechanisms.
• Discuss common disorders like diabetes and multiple sclerosis.

Topics:
• Nervous system: central and peripheral divisions, neurons, and neuroglia.
• Action potentials and synaptic transmission (biophysics of ion channels and neurotransmitters).
• Brain and spinal cord structure and function.
• Endocrine system: major glands (pituitary, thyroid, adrenal, pancreas) and hormones.
• Feedback loops (negative and positive) and hormone-receptor interactions.
• Practical: Reflex arc demonstration and blood glucose measurement simulation.

Objectives:
• Describe the macro structure and functions of the cardiovascular and lymphatic systems.
• Explain gas exchange in the respiratory system and its biophysics.
• Understand the urinary system's role in filtration and homeostasis.
• Apply principles of pressure, flow, and diffusion to these systems.
• Identify common pathologies such as hypertension and asthma.

Topics:
• Cardiovascular system: heart anatomy, blood vessels, cardiac cycle, and blood pressure regulation.
• Biophysics of blood flow (Poiseuille's law, Bernoulli's principle).
• Lymphatic system: structure, lymph formation, and immunity.
• Respiratory system: airways, lungs, mechanics of breathing, gas exchange (Fick's law).
• Urinary system: kidney structure, nephron function, filtration, reabsorption, and secretion.
• Acid-base balance and fluid homeostasis.
• Case study: Hypertension and renal failure.

Objectives:
• Describe the macro structure and functions of the digestive and reproductive systems.
• Explain metabolic processes and energy biophysics.
• Integrate knowledge of all body systems in health and disease.
• Apply biophysical principles to digestion, absorption, and reproduction.
• Demonstrate understanding through case studies and practical assessment.

Topics:
• Digestive system: organs, digestion, absorption, and biophysics of enzyme kinetics and transport.
• Metabolism: anabolism, catabolism, and energy balance (calorimetry).
• Reproductive system: male and female anatomy, gametogenesis, and hormonal control.
• Integration of systems: how systems work together during exercise and stress.
• Review of biophysics across systems (e.g., fluid dynamics, electrical activity, diffusion).
• Practical assessment: Case study analysis and oral presentation on a system disorder.
• Final Q&A and evaluation.