Meteorology Study Tracker | | Not Viewed | |
All Meteorology starts with condensation | | 552 days | |
8.2.2 Composition and structure of the atmosphere. | | Not Viewed | |
8.2.2 How to Access MetFlight web-site | | Not Viewed | |
8.2.6 Explain how temperature influences the ability of air to hold water vapour. | | Not Viewed | |
8.8.4.2 Explain what is meant by solar radiation. | | Not Viewed | |
8.4.2 Describe the source of atmospheric pressure. | | Not Viewed | |
8.4.2-4 Identify the following features found on surface weather maps: | | Not Viewed | |
(a) ARFOR; | | Not Viewed | |
(a) GRAFOR | | Not Viewed | |
(b) TAF / (c) TREND | | Not Viewed | |
(d) METAR, (f) METAR AUTO and (e)SPECI | | 549 days | |
(g) SIGMET; | | Not Viewed | |
(h) ATIS; | | Not Viewed | |
(i) AWIB; | | Not Viewed | |
(j) BWR; | | Not Viewed | |
(k) Pilot Reports. | | 552 days | |
8.4.4 Explain the most common weather characteristics of each feature. | | 549 days | |
8.4.4 Explain the basic principles of operation of the barometer. | | Not Viewed | |
8.4.6 Define pressure gradient. | | Not Viewed | |
8.4.6 Define Pressure Lapse Rate. | | Not Viewed | |
8.4.8 Identify areas of light, moderate and strong winds on a weather map. | | 551 days | |
8.4.8 Identify areas of light, moderate and strong winds on a weather map. | | 551 days | |
8.4.8 State the average Pressure Lapse Rate in the lower atmosphere. | | Not Viewed | |
8.4.10 Explain the effect of Temperature on Pressure Lapse Rate. | | Not Viewed | |
8.4.12 Weather Pressure Systems | | 549 days | |
8.4.14 Explain the relationship between Pressure Gradient, isobars and wind velocity (airflow around pressure systems). | | Not Viewed | |
8.4.16 State the concept of convergence and divergence and describe how the associated subsidence or ascent of air influences the type of weather commonly associated with pressure systems. | | Not Viewed | |
8.4.18 State the unit of pressure commonly used in meteorology. | | Not Viewed | |
8.4.20 List the assumed conditions on which the International Standard Atmosphere (ISA) is based. | | Not Viewed | |
8.4.22 Explain how deviation from ISA values influences performance of aircraft and their engines. | | Not Viewed | |
8.4.24 Altimeter Settings | | Not Viewed | |
8.4.26 Explain why an altimeter requires a subscale adjustment. | | Not Viewed | |
8.4.28 Explain the importance of correct subscale setting. | | 550 days | |
8.6.2 Composition and structure of the atmosphere. | | Not Viewed | |
8.6.4 Describe the elements that influence the amount of incoming solar radiation. | | 553 days | |
8.6.6 presence and importance of … | | Not Viewed | |
8.6.8 Describe the elements that influence the escape of terrestrial radiation. | | 549 days | |
8.6.8 presence and importance of … | | 549 days | |
8.6.16 Define albedo. | | 551 days | |
quiz me on – Atmosphere | | Not Viewed | |
quiz me on – Atmosphere(2) | | Not Viewed | |
8.8.4 Explain what is meant by terrestrial radiation. | | Not Viewed | |
8.8.4 Explain the function of condensation nuclei during condensation. | | Not Viewed | |
8.8.8 Describe the diurnal variation of surface air temperature and explain the effect of different types of surface on this variation. | | Not Viewed | |
8.8.8 Explain the effect of solar and terrestrial radiation on the air temperature. | | 549 days | |
8.8.10 Describe the effect of latitude on the distribution of incoming solar radiation. | | Not Viewed | |
8.8.12 Describe the processes of Conduction and Convection | | Not Viewed | |
8.8.12 Explain the effect of changes in temperature and moisture content of air on relative humidity. | | Not Viewed | |
8.8.18 Air Moisture and Density | | 550 days | |
8.8.20 Explain how temperature, relative humidity and Dew Point values can be used to indicate differences in water content of air. | | Not Viewed | |
8.8.20 Explain how temperature, relative humidity and Dew Point values can be used to indicate differences in water content of air. | | Not Viewed | |
quiz me on – Temperature & heat exchange | | Not Viewed | |
8.10.4 State the unit of pressure commonly used in meteorology. | | Not Viewed | |
8.10.8 Define Pressure Lapse Rate. | | Not Viewed | |
8.10.10 State the average Pressure Lapse Rate in the lower atmosphere. | | Not Viewed | |
8.10.14 List the assumed conditions on which the International Standard Atmosphere (ISA) is based. | | Not Viewed | |
8.10.18 Explain how deviation from ISA values influences performance of aircraft and their engines. | | Not Viewed | |
8.10.20 Altimeter Settings | | 549 days | |
8.10.22 Explain why an altimeter requires a subscale adjustment. | | 552 days | |
8.10.24 Explain the importance of correct subscale setting. | | Not Viewed | |
8.10.24 Uses of Buys Ballot’s Law | | Not Viewed | |
8.10.26 Define wind shear. | | Not Viewed | |
8.10.28 Describe the effects of vertical and horizontal wind shear on aircraft operations. | | Not Viewed | |
8.12.2 Measurement of the standard surface wind | | Not Viewed | |
8.12.4 State the two factors that determine the stability of air. | | Not Viewed | |
8.12.4 State the units to describe wind speed | | Not Viewed | |
8.12.6 State the units used to describe wind direction with reference to a) forecasts issued by Metservice and b) spot winds relayed to pilots | | Not Viewed | |
8.12.8 List the three forces acting to generate wind at low levels | | Not Viewed | |
8.12.10 Coriolis force. | | Not Viewed | |
8.12.10 Interpret graphs of steep and shallow environment lapse rates (ELR) including inversions and isothermal layers. | | Not Viewed | |
8.12.10 Explain the cause of the Coriolis force | | Not Viewed | |
8.12.12 Explain how the inter-relation between pressure gradient and Coriolis force determine the circulation around pressure systems. | | Not Viewed | |
8.12.12 List the three properties of the Coriolis force | | 549 days | |
8.12.12 State the effect of wind speed on the strength of the Coriolis force. | | Not Viewed | |
8.12.14 Define the “geostrophic wind” | | Not Viewed | |
8.12.16 Explain how the friction layer affects the surface wind velocity. | | Not Viewed | |
8.12.18 Explain what is meant by the “friction layer”, | | 552 days | |
8.12.20 Describe the elements that influence the depth of the friction layer | | Not Viewed | |
8.12.20 Explain the factors involved in thermal rising of air. | | Not Viewed | |
8.12.22 Explain how different Dew Point values determine the cloud base. | | Not Viewed | |
8.12.22 Wind Definitions | | Not Viewed | |
8.12.24 Diurnal variation of wind over sea and land | | Not Viewed | |
8.12.24 Explain the effect of increasing surface temperature on the base of convective cloud, given a constant moisture content. | | Not Viewed | |
8.12.26 Describe cloud types in stable and unstable saturated air | | Not Viewed | |
8.12.26 Describe the changes in wind velocity when climbing out of, or descending into, the friction layer | | Not Viewed | |
8.12.28 Describe the limitations of windsocks in New Zealand | | 552 days | |
8.12.28 Describe weather conditions and visibility in stable and unsable air | | Not Viewed | |
8.12.30 Describe how an approximate wind directioin can be determined from a) ripples on water and b) wind shadow on water | | Not Viewed | |
8.12.30 Describe how stable and unstable air affect flying conditions. | | Not Viewed | |
8.12.30 Describe how stable and unstable air affect flying conditions. | | 553 days | |
8.12.32 State Buys Ballot’s Law. | | 550 days | |
8.14.2 Describe the land breeze process including timing, speed and seasonal influences | | Not Viewed | |
8.14.2 Describe the sea-breeze process including timing, strength, limits clouds and turbulence | | Not Viewed | |
8.14.4 Describe the katabatic and anabatic wind processes. | | Not Viewed | |
8.14.6 Describe the effect of local obstructions on wind flows | | Not Viewed | |
8.14.8 Describe the Fohn wind process. | | Not Viewed | |
8.14.8 Describe terrain channeling in New Zealand | | Not Viewed | |
8.14.10 Given environment temperatures, Dew Point and mountain heights determine the following | | Not Viewed | |
8.14.10 Explain how atmospheric stability enhances terrain channeling | | Not Viewed | |
8.14.12 Describe the flight conditions associated with Fohn wind conditions. | | Not Viewed | |
8.14.14 Describe the mountain wave (standing, or lee wave) process. | | Not Viewed | |
8.14.16 Explain the wind and weather conditions, and associated main dangers to aircraft operations, in mountain wave conditions. | | Not Viewed | |
8.14.18 Describe the rotor zones process and explain the associated dangers to aircraft operations. | | Not Viewed | |
8.14.20 Describe the effect of local obstructions on wind flow. | | 549 days | |
8.16.2 Explain how the temperature of air influences its capacity to hold water vapour | | Not Viewed | |
8.16.4 Explain what is meant by relative humidity. | | 550 days | |
8.16.6 Define the term ‘Dew Point’. | | Not Viewed | |
8.16.8 Explain the effect of moisture content of air on t the Dew Point. | | Not Viewed | |
8.16.16 Effects on rate of evaporation | | 552 days | |
8.18.2 Define the following… | | Not Viewed | |
8.16.18 State the significance of the reease of latent heat into the atmosphere during cloud formation | | Not Viewed | |
8.18.4 Describe how the stability of a rising or sinking parcel of air is determined by its temperature compared with the temperature of the surrounding environment | | Not Viewed | |
8.18.4 Explain the most common method through which cloud is formed and how air is cooled to produce cloud. | | Not Viewed | |
8.18.6 Describe what is meant by “environment lapse rate” (ELR). | | Not Viewed | |
8.18.6 Explain what is meant by “buoyancy” of air. | | Not Viewed | |
8.18.8 Differentiate between cloud droplets and rain/shower drops. | | Not Viewed | |
8.18.8 Explain how the environmental temperature and dew point lapse rates are found | | Not Viewed | |
8.18.12 Cloud types and descriptions | | 550 days | |
8.18.12 State the value of the dry adiabatic lapse rate (DALR). | | Not Viewed | |
8.16.12 Define “Latent Heat” | | 553 days | |
8.16.12 Describe each of the following processes with regard to the changes of state of water: | | Not Viewed | |
8.16.12 Describe the processes that change the physical state of moisture and explain how latent heat is involved in each transformation. | | Not Viewed | |
8.16.14 Name and explain the processes by which water vapour enters the atmosphere | | Not Viewed | |
8.18.10 Explain the adiabatic process. | | Not Viewed | |
8.18.14 State the approximate value of the saturated adiabatic lapse rate (SALR). | | Not Viewed | |
8.18.14 What are the terms used for describing the characteristics of cloud. | | Not Viewed | |
8.18.14 What are the terms used for describing the characteristics of cloud. | | Not Viewed | |
8.18.16 State the conditions needed for the conditionally unstable air to be forced to become unstable | | Not Viewed | |
8.18.18 Define the following… | | Not Viewed | |
8.18.20 Explain why inversions and isothermal layers are atmospherically very stable | | Not Viewed | |
8.18.22 Explain how the relationship between the ELR and DALR can be used to determine the stability or instability of unsaturated air. | | Not Viewed | |
8.18.22 Explain how the relationship between the ELR and SALR can be used to determine the stability or instability of saturated air. | | Not Viewed | |
Effect of ELR and (SALR / DALR ) | | Not Viewed | |
8.20.2 Define Inversion and Isothermal Layer | | Not Viewed | |
8.20.2 Explain the factors in he development of the following | | Not Viewed | |
8.20.4 Describe the flight conditions in the presence of inversions. | | Not Viewed | |
8.20.4 Describe the flight conditions in the presence of inversions. | | Not Viewed | |
8.20.4 Describe the following inversion types | | Not Viewed | |
8.20.4 Explain how cloud drops can grow through the following.. | | Not Viewed | |
8.20.4 Effects of Inversions | | Not Viewed | |
8.22.10 Describe the following lifting mechanisms found in the atmosphere | | Not Viewed | |
8.22.12 List the cloud types associated with each lifting mechanism | | Not Viewed | |
8.22.14 Describe the following cloud types including a description of likely turbulence and precipitation | | Not Viewed | |
8.22.16 Visually identify the following cloud types | | Not Viewed | |
8.22.18 Explain how, in well mixed conditions, changes in surface temperature and / or dew point relate to the cloud base | | 550 days | |
8.22.2 Describe the basic cloud formation process. | | 553 days | |
8.22.20 Explain the processes that contribute to cloud dispersal. | | Not Viewed | |
8.22.4 Describe the operational characteristics of the cloud sensor used in Automatic Weather Stations and reported in METAR AUTO reports | | 551 days | |
8.22.6 Altitudes of cloud | | Not Viewed | |
8.22.8 Describe the meaning of the following cloud terms | | Not Viewed | |
8.24.10 Define the rate of precipitation | | Not Viewed | |
8.24.2 Define.. | | 552 days | |
8.24.2 Fog | | Not Viewed | |
8.24.4 Describe the following types precipitation .. | | Not Viewed | |
8.24.6 Describe the operational problems associated with fog. | | Not Viewed | |
8.24.6 Describe the operational problems associated with fog. | | Not Viewed | |
8.24.6 State the difference between large drizzle and small rain droplets | | Not Viewed | |
8.24.8 Describe the characteristics of the following types of precipitation | | Not Viewed | |
8.24.8 De | | 552 days | |
quiz me on – Inversions Cloud and Precipitation | | Not Viewed | |
8.26.10 Explain the factors involved in slant range. | | Not Viewed | |
26.2 Define Prevailing Visibility | | Not Viewed | |
8.26.10 Explain the factors involved in slant range. | | Not Viewed | |
8.26.10 Explain the factors involved in slant range. | | Not Viewed | |
8.26.12 Describe how divergence aloft affects the atmospheric pressure near sea level. | | Not Viewed | |
8.26.12 List the types of fog classified by their method of formation | | Not Viewed | |
Radiation fog | | Not Viewed | |
Advection Fog | | Not Viewed | |
Valley fog | | Not Viewed | |
Sea Fog | | Not Viewed | |
Steaming Fog | | 552 days | |
Frontal Fog | | Not Viewed | |
8.26.14 Describe the following depression types | | Not Viewed | |
8.26.14 Describe the meteorological conditions required for the formation and dispersal of the following; | | Not Viewed | |
8.26.16 Describes symbols and colours used for the following fronts on weather charts | | Not Viewed | |
8.26.16 Explain how katabatic winds may enhance or inhibit radiation fog depending on their strength | | Not Viewed | |
8.26.18 Describe the cross section of the typical cold front including cloud, temperature and freezing level changes, precipitation, and typical width. | | Not Viewed | |
8.26.18 Describe the operational problems associated with fog | | 549 days | |
8.26.2 Define meteorological visibility. | | Not Viewed | |
8.26.2 Explain what is meant by transparency of air. | | Not Viewed | |
8.26.22 Describe a cross section of the typical warm front including cloud, temperature and freezing level changes, precipitation, and typical width. | | Not Viewed | |
8.26.24 Describe events before during an after an idealised warm front in terms of the following | | Not Viewed | |
8.26.4 Differentiate between visibility distance and visibility range. | | 551 days | |
8.26.4 Explain how illumination from the sun or moon have an effect on visibility. | | Not Viewed | |
8.26.4 Explain why illumination from the sun or moon has no effect on prevailing visibility | | Not Viewed | |
8.26.6 Describe the operational characteristics of the visibility sensor used in Automatic Weather Stations (AWS) and reported in METAR AUTO reports | | Not Viewed | |
8.26.8 Describe characteristics and effects on visibility distance of the following | | Not Viewed | |
8.26.8 Describe the effect on visibility of the following; | | Not Viewed | |
2.28.4 Explain the processes involved in the formation of hoar frost on an aircraft on the ground and in flight | | 549 days | |
8.28.10 Explain how to avoid or alleviate all forms of airframe icing other than hoar frost | | Not Viewed | |
8.28.12 State the hazards for light aircraft from the following | | Not Viewed | |
8.28.14 Explain environmental factors involved in carburettor icing with regard to the following | | 550 days | |
8.28.16 State the temperature range in which carburettor ice typically can form. | | Not Viewed | |
8.28.2 Explain what is meant by supercooled water, and describe the influence of latent heat on the formation of ice. | | Not Viewed | |
8.28.2 List the hazards of airframe icing to aircraft in flight | | Not Viewed | |
8.28.20 Explain the conditions that can cause carburettor icing while on the ground. | | Not Viewed | |
8.28.6 Explain the characteristics and development of the following thunderstorms | | 553 days | |
8.28.6 State the dangers of hoar frost and the actions required to alleviate these dangers on the ground and in flight | | Not Viewed | |
8.28.8 Explain why flight in cloud above the freezing level can be very hazardous | | 550 days | |
8.30.10 Explain the origin and development of tornadoes and state the main hazards. | | Not Viewed | |
8.30.10 State the altitudes relative to the freezing level where rime ice or clear ice can be expected in cloud. | | 550 days | |
8.30.12 Give examples of conditions that could cause the following | | Not Viewed | |
8.30.14 State the hazards for light aircraft from the following | | Not Viewed | |
8.30.16 Explain ice accretion rates with regard to the following | | Not Viewed | |
8.30.18 Explain how the accretion rate of carburettor ice is influenced by the throttle setting. | | Not Viewed | |
8.30.18 State the dangers of icing to aircraft in flight and on the ground. | | Not Viewed | |
8.30.2 Explain the three conditions to be met for the development of thunderstorms. | | Not Viewed | |
8.30.20 Explain the methods that can be used to manage the risks of aircraft icing. | | Not Viewed | |
8.30.4 Describe the three stages of thunderstorm development. | | Not Viewed | |
8.30.4 Explain the processes of freezing and melting. | | 553 days | |
8.30.6 Describe the formation of the following types of ice | | Not Viewed | |
8.30.6 Describe the hazards associated with thunderstorms | | Not Viewed | |
8.30.8 State the types of cloud, and cloud drop size, that are conducive to the formation of each type of ice. | | Not Viewed | |
8.30.8 Explain why light aircraft should always avoid flight in the vicinity of thunderstorms | | Not Viewed | |
8.32.10 Explain the associated dangers of rotor zones to aircraft operations | | Not Viewed | |
8.32.12 With regard to VFR flight in a light aircraft in mountainous terrain, describe the meteorological factors that should be considered during the flight planning phase and en-route | | Not Viewed | |
8.32.12 With regard to VFR flight in a light aircraft in mountainous terrain, describe the meteorological factors that should be considered during the flight planning phase and en-route | | Not Viewed | |
8.32.2 Define Fohn Wind | | 551 days | |
8.32.4 In Fohn wind conditions describe the typical weather for the following | | Not Viewed | |
8.32.6 Describe the mountain lee wave (standing wave) development process | | 551 days | |
8.32.8 Describe the formation of rotor | | Not Viewed | |
8.36.10 Describe the range of weather conditions associated with fronts in the NZ region | | 551 days | |
8.36.12 Describe events before during and after an idealised cold front in terms of the following | | Not Viewed | |
8.36.12 State the similarities between cold and warm fronts with reference to changes in the following; | | Not Viewed | |
8.36.14 Describe the typical associated factors for a Southerly flow onto NZ | | Not Viewed | |
8.36.16 Describe the typical associated factors for a Northerly flow onto NZ | | Not Viewed | |
8.36.18 Describe the potential dangers to VFR flight through fronts. | | Not Viewed | |
8.36.18 Describe the techniques, and precautions that can be taken to manage the risks of VFR flight through fronts. | | Not Viewed | |
8.36.2 Air mass | | Not Viewed | |
8.36.2 Describe what is meant by the following. | | Not Viewed | |
8.36.4 Different types of air masses plus 2 that routinely affect the NZ region | | Not Viewed | |
8.36.4 Explain the typical weather conditions in New Zealand when affected by cold and warm advection. | | Not Viewed | |
8.36.6 Define a “front” | | Not Viewed | |
8.36.6 Define source region and state the typical areas where New Zealand’s source regions are found. | | Not Viewed | |
8.36.8 Describe development and cross section of the following | | Not Viewed | |
8.36.8 Define the formation processes of the following frontal types | | 553 days | |
8.40.2 Define the term “wind shear” | | Not Viewed | |
8.40.4 Describes the effects of low-level wind-shear on aircraft operations in the following | | 550 days | |
8.40.6 Describe the causes, factors involved and techniques commonly used to avoid or minimise the following | | Not Viewed | |
8.40.6 Describe the causes, factors involved and techniques commonly used to avoid or minimise the following | | Not Viewed | |
8.40.8 Causes, dangers and avoidance techniques for these types of turbulence | | 552 days | |
8.44.10 Interpret and assess weather information made available by: Internet, newspapers television, and radio. | | Not Viewed | |
8.44.2 Describe how the following things govern the NZ climate | | Not Viewed | |
8.44.2 Descriptions of Cloud Coverage | | Not Viewed | |
8.44.4 Describe how cloud and cloud base are reported. | | Not Viewed | |
8.44.4 Identify “Westerly situations” and “Easterly situations” on a weather map and describe the impact of each situation on flying weather around NZ | | Not Viewed | |
8.44.6 Describe the principle of operation, and operational effectiveness of the automated visibility sensor | | Not Viewed | |
8.44.6 Time frame of any weather change. Meteorological Services to Aviation | | Not Viewed | |
8.44.6 Wind regimes. | | 548 days | |
8.44.6 For any area or location in NZ, determine the wind directions which expose that location to very poor flying conditions and the wind directions which result in sheltering | | Not Viewed | |
8.44.8 Meteorological Services | | 550 days | |
quiz me on – NZ Climate | | Not Viewed | |
8.50. Assess Satellite and Radar Imagery, and Non Aviation -Specific Weather Information | | Not Viewed | |
8.50.2 With respect to NZ VFR operations, using satellite imagery available in Metflight, identify the following; | | Not Viewed | |
8.50.4 With respect to NZ VFR operations interpret radar imagery available in MetFlight in terms of the following; | | Not Viewed | |
8.50.6 Describe the limitations of non-aviation – specific weather information | | 550 days | |
8.52.2 With reference to information contained in all types of weather reports decide the following | | Not Viewed | |
8.52.4 State the significance of forecast or observed low-level moisture in flight | | Not Viewed | |
8.52.4 State the significance of forecast or observed low-level moisture in flight | | 550 days | |
quiz me on – PPL MET | | Not Viewed | |
quiz me on – Met Exam 1 | | Not Viewed | |
quiz me on – Met Exam 2 | | Not Viewed | |
Atmosphere | | Not Viewed | |
Atmospheric moisture | | Not Viewed | |
Decoder Trainer | | 550 days | |
Flip cards | | Not Viewed | |
Flip cards | | 552 days | |
How the air moving across the ocean picks up water vapour | | Not Viewed | |
How the mountain range lifts the air, cools and causes rain | | Not Viewed | |
How the mountain range lifts the air, cools and causes rain | | 549 days | |
Inversions, Cloud and Precipitation | | Not Viewed | |
Local winds | | Not Viewed | |
Met and Met services | | Not Viewed | |
Met and Met services | | Not Viewed | |
MetFlight Login | | Not Viewed | |
MetFlight Use | | Not Viewed | |
MetFlight Use | | 552 days | |
MetFlight Website | | Not Viewed | |
Stability of air | | Not Viewed | |
Temperature and heat exchange process | | Not Viewed | |
The process that leads to the creation of clouds and rain | | Not Viewed | |
Visibility, Fog, Fronts and depressions | | Not Viewed | |
Wind | | Not Viewed | |