MIT RES.10-S95 Physics of COVID-19 Transmission, Fall 2020 (English)

   Tuesday, December 03, 2024   

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MIT RES.10-S95 Physics of COVID-19 Transmission, Fall 2020 By Lecture Notes together!

Lecture 1: Course overview of physics of COVID-19 transmission

Lecture 2: Transfer of respiratory pathogens: Chapter 1 overview

Lecture 3: Transfer of respiratory pathogens: Droplet formation

Lecture 4: Transfer of respiratory pathogens: Airborne droplets

Lecture 5: Transfer of respiratory pathogens: Wells curve derivation (ASIDE)

Lecture 6: Transfer of respiratory pathogens: Equilibrium size of respiratory aerosols

Lecture 7: Transfer of respiratory pathogens: Bacteria

Lecture 8: Transfer of respiratory pathogens: Viruses

Lecture 9: Transfer of respiratory pathogens: Escape time of virions

Lecture 10: Transfer of respiratory pathogens: Release of viral load from a drop (ASIDE)

Lecture 11: Transfer of respiratory pathogens: Drop size–dependent infectivity (ASIDE)

Lecture 12: Transfer of respiratory pathogens: Aerosolized pathogen deactivation

Lecture 13: Transfer of respiratory pathogens: Viral deactivation in aerosols (ASIDE)

Lecture 14: Transfer of respiratory pathogens: Modes of transmission

Lecture 15: Transfer of respiratory pathogens: Indoor airborne spreading of COVID-19

Lecture 16: Airborne disease transmission in a well-mixed room: Chapter 2 overview

Lecture 17: Airborne disease transmission in a well-mixed room: Respiration and ventilation

Lecture 18: Airborne disease transmission in a well-mixed room: Airborne transmission rate

Lecture 19: Airborne disease transmission in a well-mixed room: Air filtration versus masks

Lecture 20: Airborne disease transmission in a well-mixed room: Sedimentation and deactivation

Lecture 21: Airborne disease transmission in a well-mixed room: Drop-size distributions

Lecture 22: Epidemiological models: Chapter 3 overview

Lecture 23: Epidemiological models: Disease spreading in a population

Lecture 24: Epidemiological models: Indoor disease spreading

Lecture 25: Epidemiological models: Incubation-enhanced spreading

Lecture 26: Safety guideline for COVID-19: Chapter 4 overview

Lecture 27: Safety guideline for COVID-19: Cumulative exposure time

Lecture 28: Safety guideline for COVID-19: Transmission rate

Lecture 29: Safety guideline for COVID-19: Transient transmission rate

Lecture 30: Safety guideline for COVID-19: Steady transmission rate

Lecture 31: Safety guideline for COVID-19: Transient aerosol buildup

Lecture 32: Safety guideline for COVID-19: Safety guideline as a simple formula

Lecture 33: Safety guideline for COVID-19: Analysis of superspreading events

Lecture 34: Safety guideline for COVID-19: Case studies

Lecture 35: Safety guideline for COVID-19: Role of prevalence of infection

Lecture 36: Safety guideline for COVID-19: Risk scenarios

Lecture 37: Safety guideline for COVID-19: Reopening schools or businesses

Lecture 38: Safety guideline for COVID-19: Vaccination and immunity

Lecture 39: Beyond the well-mixed room: Chapter 5 overview

Lecture 40: Beyond the well-mixed room: Forced convection

Lecture 41: Beyond the well-mixed room: Natural convection

Lecture 42: Beyond the well-mixed room: Ventilation

Lecture 43: Beyond the well-mixed room: Aerosol transport

Lecture 44: Beyond the well-mixed room: Respiratory puffs and jets

Lecture 45: Beyond the well-mixed room: Turbulent jets (ASIDE)

Lecture 46: Beyond the well-mixed room: Short-range transmission

Lecture 47: Beyond the well-mixed room: Airborne transmission indoors

Lecture 48: Beyond the well-mixed room: Social distancing

Lecture 49: Course conclusion