NOC:An Introduction to Climate Dynamics, Variability and Monitoring

Lecture 1 - Introduction to Climate Dynamics, Variability and Monitoring - Part 1

Lecture 2 - Introduction to Climate Dynamics, Variability and Monitoring - Part 2

Lecture 3 - Climatic Variables of the Atmosphere

Lecture 4 - Atmospheric Layers; Troposphere; Temperature Lapse Rate

Lecture 5 - Atmospheric Structure and Composition

Lecture 6 - Atmospheric Gas Concentration and introduction to Atmospheric Pressure

Lecture 7 - Atmospheric Pressure and Mass

Lecture 8 - How to Measure Vertical Variation of Pressure

Lecture 9 - Fundamentals of Atmospheric Humidity and Weather Variables

Lecture 10 - Advanced Atmospheric Humidity Concepts Contours and Key Relationships

Lecture 11 - Virtual Temperature and Atmospheric Stability Concepts

Lecture 12 - Understanding Atmospheric Stability Adiabatic Relations and Lapse Rate

Lecture 13 - Potential Temperature, Adiabatic Lapse Rate of Moist Air, Three Possible Stability Relationships

Lecture 14 - Derivation of Potential Temperature, Deriving the Expression for Saturated Adiabatic Lapse Rate

Lecture 15 - Temperature Variation With Changes in Vertical Pressure

Lecture 16 - Temperature Gradient of Dry and Saturated Air Parcel, Earth Sun Relationship

Lecture 17 - Fundamentals of Earth'S Climate System Latitude, Longitude, and Temperature Dynamics

Lecture 18 - Understanding Earth'S Seasons Axial Tilt, Solstice, and Equinox Dynamics

Lecture 19 - Mean Emission Temperature of Earth and the Greenhouse Effect - Part 1

Lecture 20 - Mean Emission Temperature of Earth and the Greenhouse Effect - Part 2

Lecture 21 - Mean Emission Temperature of Earth and the Greenhouse Effect - Part 3

Lecture 22 - Net Radiative Flux Imbalance Annual Averaged and Seasonal

Lecture 23 - Derivation of Beam Spreading Effect, Derivation of the Greenhouse Effect

Lecture 24 - Derivation of Analysing the Atmosphere of Venus, Radiation Fluxes

Lecture 25 - Principles of Electromagnetic Radiation Spectral Intensity, Irradiance, and Material Interactions

Lecture 26 - Blackbody Radiation Relations

Lecture 27 - Atmospheric Absorption and Radiative Transfer

Lecture 28 - 28 Radiative Transfer in the Atmosphere Key Concepts

Lecture 29 - Infrared Radiative Transfer in the Earth'S Atmosphere

Lecture 30 - Radiative Flux and Optical Depth

Lecture 31 - Introduction to Atmospheric Heating and Heat Balance

Lecture 32 - Advanced Atmospheric Heating and Heat Balance

Lecture 33 - Temperature Distribution for a Continuously Stratified Atmosphere in Radiative Equilibrium - Part 1

Lecture 34 - Temperature Distribution for a Continuously Stratified Atmosphere in Radiative Equilibrium - Part 2

Lecture 35 - Temperature Distribution and Greenhouse Effect in a Continuously Stratified Atmosphere

Lecture 36 - Atmospheric Circulation Systems - Basic Concepts

Lecture 37 - Atmospheric Circulation Systems - Coriolis Forces

Lecture 38 - Atmospheric Circulation Systems - Pressure Forces

Lecture 39 - Atmospheric Circulation Systems - Frictional Forces and Surface Level Winds

Lecture 40 - Atmospheric Circulation Systems - High Level Winds

Lecture 41 - Seasonal Shifts - Advanced Concepts

Lecture 42 - The Ocean and the Climate

Lecture 43 - Ocean Salinity and Mixing Layer

Lecture 44 - Importance of Mixing Layer and Wind Driven Surface Current

Lecture 45 - Ocean Circulation and Deep Oceanic thermohaline Circulation

Lecture 46 - Coupled Ocean Atmosphere Variability

Lecture 47 - Global Temperature Model, Radiative Forcing and Zero Dimensional Energy Balance Model

Lecture 48 - Zero Dimensional Energy Balance Model (Continued...)

Lecture 49 - Energy Balance Model and Temperature Responce to Radiative Forcing

Lecture 50 - Temperature Responce to Radiative Forcing (Continued...)

Lecture 51 - Planck Feedback or Blackbody Radiative Feedback, Simple Radiative Balance Model

Lecture 52 - Indirect Feedback: Water Vapour Feedback and Spectral Outgoing Longwave Radiation

Lecture 53 - Absorption of Outgoing Longwave Radiation By Atmospheric CO2

Lecture 54 - Introduction to Principles of Measurement and Instrumentation - Part 1

Lecture 55 - Introduction to Principles of Measurement and Instrumentation - Part 2

Lecture 56 - Introduction to Principles of Measurement and Instrumentation - Part 3

Lecture 57 - Automatic Weather Stations, Temperature Measurements and Humidity Measurements

Lecture 58 - Humidity Measurements and Pressure Measurements

Lecture 59 - Wind Measurements Techniques

Lecture 60 - Radiation and Temperature Measurements - Part 1

Lecture 61 - Radiation and Temperature Measurements - Part 2

Lecture 62 - Radiation and Precipitation Measurements

Lecture 63 - Upper Air Measurements

Lecture 64 - Remote Sensing: Climatological Applications

Lecture 65 - Types of Satellite Orbit and its Remote Sensing Applications, VNIR Imaging through Electro Optic

Lecture 66 - Spatial and Spectral Resolution of Satellite Imagery and Application of VNIR Imaging in Climatology

Lecture 67 - Application of VNIR Imaging in Climatology and Thermal Infrared Imaging Systems

Lecture 68 - Cloud Detection, Nadir Viewing, Limb Sounding, Solar Occultation

Lecture 69 - Ground Based Atmospheric Remote Sounding