SlideShare una empresa de Scribd logo
1 de 22
10. CONTAMINATED RUNWAYS
Performance JAR 25
CONTAMINATED RUNWAYS
 Definitions
 Screen height
 Distances
 Takeoff charts
 Example
DEFINITIONS
DRY RUNWAY
A dry runway is one which is neither wet nor contaminated, and
includes those paved runways which have been specially prepared
with grooves or porous pavement and maintained to retain ‘effectively
dry’ braking action even when moisture is present.
DAMP RUNWAY
A runway is considered damp when the surface is not dry, but when
the moisture on it does not give it a shiny appearance.
According to JAA regulations, a damp runway is considered dry as far
as performance calculations are concerned. This may change in the
future.
DEFINITIONS
Damp runway
DEFINITIONS
WET RUNWAY
A runway is considered wet when the runway surface is covered with
water or equivalent, [with a depth less than or equal to 3 mm], or when
there is a sufficient moisture on the runway surface to cause it to
appear reflective, but without significant areas of standing water.
A wet runway has a shiny appearance, but without risk of
hydroplaning.
DEFINITIONS
Wet runway
DEFINITIONS
CONTAMINATED RUNWAY
A runway is considered to be contaminated when more than 25% of
the runway surface area within the required length and width being
used is covered by the following:
Standing water: Caused by heavy rainfall and/or insufficient runway
drainage with a depth of more than 3 mm (0.125 in).
Slush: Water saturated with snow, which spatters when stepping
firmly on it.
Wet snow: If compacted by hand, snow will stick together and tend to
form a snowball.
Dry snow: Snow can be blown if loose, or if compacted by hand, will
fall apart again upon release.
Compacted snow: Snow has been compressed
Ice: The friction coefficient is 0.05 or below.
DEFINITIONS
Contaminated runway
DEFINITIONS
Equivalent of wet runway is runway covered with less than:
• 2 mm (0.08 inch) slush
• 3 mm (0.12 inch) standing water
• 4 mm (0.16 inch) wet snow
• 15 mm (0.59 inch) dry snow
SCREEN HEIGHT
On wet and contaminated runways, the screen height is measured at
15 feet rather than 35 feet on dry runways. Moreover, the use of
reverse thrust is allowed for ASD determination on wet and
contaminated runways, whereas it is forbidden to take it into account
for the ASD determination on dry runways.
Therefore, it is possible to obtain shorter TODs and ASDs on wet and
contaminated runways than on dry runways for the same takeoff
conditions. Thus, it is possible to obtain higher takeoff weights on
surfaces covered with water, slush, or snow than on dry runways. This
is why the regulation indicates that:
On a wet or contaminated runway, the takeoff mass must not exceed
that permitted for a takeoff on a dry runway under the same
conditions.
DISTANCES
ASD, TOD and TOR for wet runways are measured in the same way as
for dry runways, except that the screen height is 15 ft and reverse
thrust is considered.
TOD
15 ft
TAKEOFF CHARTS
Depending on the depth of water, we will use a different chart for takeoff
performance calculations:
• Under 3 mm of water, use the WET RUNWAY correction.
• Between 3 mm and 6.3 mm, use the 6.3 mm (1/4 inch) WATER chart.
• Between 6.3 mm and 12.7 mm, use the 12.7 mm (1/2 inch) WATER chart.
TAKEOFF CHARTS
Depending on the depth of slush, we will use a different chart for takeoff
performance calculations:
• Under 2 mm of slush, use the WET RUNWAY correction.
• Between 2 mm and 6.3 mm, use the 6.3 mm (1/4 inch) SLUSH chart.
• Between 6.3 mm and 12.7 mm, use the 12.7 mm (1/2 inch) SLUSH chart.
For compacted snow, a special chart is provided (COMPACTED SNOW).
TAKEOFF CHARTS
Equivalent of wet runway is runway covered with less than:
• 2 mm (0.08 inch) slush
• 3 mm (0.12 inch) standing water
• 4 mm (0.16 inch) wet snow
• 15 mm (0.59 inch) dry snow
TAKEOFF CHARTS
We have to main targets:
1. Determine PTOW.
2. Determine V1, VR and V2.
 Remember that flexible takeoff is not allowed when taking off from a
contaminated runway.
In most aircraft, thrust reverse, anti-skid system and ground spoilers
must be operative in order to takeoff from a contaminated runway. For
a wet runway, reverse thrust is not required.
 Since runway contamination will affect braking much more than
acceleration, the ASD will increase much more than the TOD as well.
As a result, takeoff speeds will be lower than those for a dry runway.
TAKEOFF CHARTS
How to calculate PTOW:
1. Calculate the PTOW for dry runway (for each configuration), and
correct it by QNH and bleed.
2. Determine the weight penalty on the appropriate chart for each
configuration.
3. Apply corrections to the PTOWs calculated on (1) and choose the
configuration that gives the highest PTOW.
TAKEOFF CHARTS
How to calculate takeoff speeds:
1. With the configuration and ATOW, use the appropriate chart to find
takeoff speeds.
EXAMPLE
Let’s calculate PTOW and takeoff speeds with this conditions:
• LFPO Runway 08
• TORA: 3320 m
• Runway covered with 7 mm slush
• PTOW (dry): 72000 Kg (CONF 1+F)
71100 Kg (CONF 2)
71200 Kg (CONF 3)
We will use the 12.7
mm slush chart
EXAMPLE
EXAMPLE
EXAMPLE
V1 = 124 ; VR = 133 ; V2 = 133

Más contenido relacionado

La actualidad más candente

Ar10x96 barricade how to for construction personnel
Ar10x96 barricade how to for construction personnelAr10x96 barricade how to for construction personnel
Ar10x96 barricade how to for construction personnelRyan Sueoka
 
Airspace Classification
Airspace ClassificationAirspace Classification
Airspace Classificationalpha_sherdil
 
Air Traffic Control Organization Lesson
Air Traffic Control Organization LessonAir Traffic Control Organization Lesson
Air Traffic Control Organization LessonÜlger Ahmet
 
Airport runway By Nikhil Pakwanne
Airport runway By Nikhil PakwanneAirport runway By Nikhil Pakwanne
Airport runway By Nikhil PakwanneNIKHIL PAKWANNE
 
High Altitude Flight Operations
High Altitude Flight OperationsHigh Altitude Flight Operations
High Altitude Flight OperationsCarlos Pera
 
FAA Safety Requirements for Airfield Construction
FAA Safety Requirements for Airfield ConstructionFAA Safety Requirements for Airfield Construction
FAA Safety Requirements for Airfield Constructionoffthewallsafety
 
Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)
Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)
Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)Softeam agency
 
Traffic alert and collision avoidance system
Traffic alert and collision avoidance system  Traffic alert and collision avoidance system
Traffic alert and collision avoidance system Юра Камкін
 
Lecture+3 air+traffic+control+(atc)+tower
Lecture+3 air+traffic+control+(atc)+towerLecture+3 air+traffic+control+(atc)+tower
Lecture+3 air+traffic+control+(atc)+towertitu11
 
Framework of ADP TRAINING - AAI
Framework of ADP TRAINING - AAIFramework of ADP TRAINING - AAI
Framework of ADP TRAINING - AAISANJIV SONI
 
Taxiway design and geometrical design of taxiway
Taxiway design and geometrical design of taxiwayTaxiway design and geometrical design of taxiway
Taxiway design and geometrical design of taxiwayBALAJI ND
 
Aircraft instruments
Aircraft instrumentsAircraft instruments
Aircraft instrumentsKamaraja AS
 

La actualidad más candente (20)

Airport lighting
Airport lightingAirport lighting
Airport lighting
 
Ar10x96 barricade how to for construction personnel
Ar10x96 barricade how to for construction personnelAr10x96 barricade how to for construction personnel
Ar10x96 barricade how to for construction personnel
 
ILS
ILSILS
ILS
 
Airspace Classification
Airspace ClassificationAirspace Classification
Airspace Classification
 
Air Traffic Control Organization Lesson
Air Traffic Control Organization LessonAir Traffic Control Organization Lesson
Air Traffic Control Organization Lesson
 
4. initial climb
4. initial climb4. initial climb
4. initial climb
 
Runways
RunwaysRunways
Runways
 
Airport runway By Nikhil Pakwanne
Airport runway By Nikhil PakwanneAirport runway By Nikhil Pakwanne
Airport runway By Nikhil Pakwanne
 
High Altitude Flight Operations
High Altitude Flight OperationsHigh Altitude Flight Operations
High Altitude Flight Operations
 
FAA Safety Requirements for Airfield Construction
FAA Safety Requirements for Airfield ConstructionFAA Safety Requirements for Airfield Construction
FAA Safety Requirements for Airfield Construction
 
Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)
Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)
Formation FI(A) : Les règles d'altimétrie (Exposé AéroPyrénées)
 
Parts of an aircraft
Parts of an aircraftParts of an aircraft
Parts of an aircraft
 
Traffic alert and collision avoidance system
Traffic alert and collision avoidance system  Traffic alert and collision avoidance system
Traffic alert and collision avoidance system
 
Lecture+3 air+traffic+control+(atc)+tower
Lecture+3 air+traffic+control+(atc)+towerLecture+3 air+traffic+control+(atc)+tower
Lecture+3 air+traffic+control+(atc)+tower
 
Separation
SeparationSeparation
Separation
 
Framework of ADP TRAINING - AAI
Framework of ADP TRAINING - AAIFramework of ADP TRAINING - AAI
Framework of ADP TRAINING - AAI
 
Taxiway design and geometrical design of taxiway
Taxiway design and geometrical design of taxiwayTaxiway design and geometrical design of taxiway
Taxiway design and geometrical design of taxiway
 
separation.ppt
separation.pptseparation.ppt
separation.ppt
 
Aircraft instruments
Aircraft instrumentsAircraft instruments
Aircraft instruments
 
Airport marking
Airport markingAirport marking
Airport marking
 

Destacado

032 aeroplane performance
032 aeroplane performance032 aeroplane performance
032 aeroplane performancechococrispis37
 
Jar speeds & distances intro
Jar speeds & distances introJar speeds & distances intro
Jar speeds & distances introchococrispis37
 
Jaa atpl book 04 oxford aviation jeppesen - powerplant
Jaa atpl book 04   oxford aviation jeppesen - powerplantJaa atpl book 04   oxford aviation jeppesen - powerplant
Jaa atpl book 04 oxford aviation jeppesen - powerplantsn7
 
Jaa atpl book 01 air law
Jaa atpl book 01 air lawJaa atpl book 01 air law
Jaa atpl book 01 air lawsn7
 
Senior grad project slides
Senior grad project slidesSenior grad project slides
Senior grad project slidesdeltagunshot
 
Compass JAA QUESTIONS
Compass JAA QUESTIONSCompass JAA QUESTIONS
Compass JAA QUESTIONSquimrubau
 
London heathrow airport qatar
London heathrow airport qatarLondon heathrow airport qatar
London heathrow airport qatarhassan zulfiqar
 
[Sapienza] Development of the Flight Dynamics Model of a Flying Wing Aircraft
[Sapienza] Development of the Flight Dynamics Model of a Flying Wing Aircraft[Sapienza] Development of the Flight Dynamics Model of a Flying Wing Aircraft
[Sapienza] Development of the Flight Dynamics Model of a Flying Wing AircraftJacopo Tonti
 
Take Off And Landing Performance
Take Off And Landing PerformanceTake Off And Landing Performance
Take Off And Landing Performanceahmad bassiouny
 
FAA Airplane Flying Handbook
FAA Airplane Flying HandbookFAA Airplane Flying Handbook
FAA Airplane Flying HandbookGeorge Simchuk
 
Performance presentation 2013
Performance presentation 2013Performance presentation 2013
Performance presentation 2013alsats
 

Destacado (20)

1. jar 25 speeds
1. jar 25 speeds1. jar 25 speeds
1. jar 25 speeds
 
5. climb
5. climb5. climb
5. climb
 
032 aeroplane performance
032 aeroplane performance032 aeroplane performance
032 aeroplane performance
 
Jar speeds & distances intro
Jar speeds & distances introJar speeds & distances intro
Jar speeds & distances intro
 
Power graphs intro
Power graphs introPower graphs intro
Power graphs intro
 
6. cruise i
6. cruise i6. cruise i
6. cruise i
 
8. descent
8. descent8. descent
8. descent
 
7. cruise ii
7. cruise ii7. cruise ii
7. cruise ii
 
Jaa atpl book 04 oxford aviation jeppesen - powerplant
Jaa atpl book 04   oxford aviation jeppesen - powerplantJaa atpl book 04   oxford aviation jeppesen - powerplant
Jaa atpl book 04 oxford aviation jeppesen - powerplant
 
Jaa atpl book 01 air law
Jaa atpl book 01 air lawJaa atpl book 01 air law
Jaa atpl book 01 air law
 
Jeppensen cards
Jeppensen cardsJeppensen cards
Jeppensen cards
 
Abc navigation
Abc navigationAbc navigation
Abc navigation
 
Senior grad project slides
Senior grad project slidesSenior grad project slides
Senior grad project slides
 
Compass JAA QUESTIONS
Compass JAA QUESTIONSCompass JAA QUESTIONS
Compass JAA QUESTIONS
 
London heathrow airport qatar
London heathrow airport qatarLondon heathrow airport qatar
London heathrow airport qatar
 
[Sapienza] Development of the Flight Dynamics Model of a Flying Wing Aircraft
[Sapienza] Development of the Flight Dynamics Model of a Flying Wing Aircraft[Sapienza] Development of the Flight Dynamics Model of a Flying Wing Aircraft
[Sapienza] Development of the Flight Dynamics Model of a Flying Wing Aircraft
 
Take Off And Landing Performance
Take Off And Landing PerformanceTake Off And Landing Performance
Take Off And Landing Performance
 
FAA Airplane Flying Handbook
FAA Airplane Flying HandbookFAA Airplane Flying Handbook
FAA Airplane Flying Handbook
 
Cap737
Cap737Cap737
Cap737
 
Performance presentation 2013
Performance presentation 2013Performance presentation 2013
Performance presentation 2013
 

Similar a 10. contaminated runways

Presentation1
Presentation1Presentation1
Presentation1alsats
 
P07011_Gupta_et_al
P07011_Gupta_et_alP07011_Gupta_et_al
P07011_Gupta_et_alPankaj Gupta
 
Cold weather operations
Cold weather operationsCold weather operations
Cold weather operationssameh777
 
Roads design as per IRC 37
Roads design as per IRC 37Roads design as per IRC 37
Roads design as per IRC 37Amardeep Singh
 
Taxiway design perfect ppt
Taxiway design perfect pptTaxiway design perfect ppt
Taxiway design perfect pptVijay Reddy
 
Lifting awareness - 2024 - 01 - Ground condition and crane stability.pptx
Lifting awareness - 2024 - 01 - Ground condition and crane stability.pptxLifting awareness - 2024 - 01 - Ground condition and crane stability.pptx
Lifting awareness - 2024 - 01 - Ground condition and crane stability.pptxkhanakbarhse
 
Screening Hydroplaning Risk Area By Hsd Data
Screening Hydroplaning Risk Area By Hsd DataScreening Hydroplaning Risk Area By Hsd Data
Screening Hydroplaning Risk Area By Hsd DataDr Wei Liu
 
Module - 5 FP 18CV733 PPT as per VTU Syllabus
Module - 5 FP 18CV733 PPT as per VTU SyllabusModule - 5 FP 18CV733 PPT as per VTU Syllabus
Module - 5 FP 18CV733 PPT as per VTU SyllabusSupreethSP4
 
Class note for btech students lce 463 pavement structure-soil interaction
Class note for btech students lce 463 pavement structure-soil interactionClass note for btech students lce 463 pavement structure-soil interaction
Class note for btech students lce 463 pavement structure-soil interactionabhay mishra
 
IRJET- Seepage Analysis using Drainage Seepage Tank
IRJET-  	  Seepage Analysis using Drainage Seepage TankIRJET-  	  Seepage Analysis using Drainage Seepage Tank
IRJET- Seepage Analysis using Drainage Seepage TankIRJET Journal
 
Runway resurfacing and repairing using modern materials and
Runway resurfacing and repairing using modern materials andRunway resurfacing and repairing using modern materials and
Runway resurfacing and repairing using modern materials andAglaia Connect
 
Densidad y viga
Densidad y vigaDensidad y viga
Densidad y vigaedwinnnnn
 
Airport drainage
Airport drainageAirport drainage
Airport drainagejagadish108
 
Performance Improvement of an airfoil using High Lift Devices
Performance Improvement of an airfoil using High Lift DevicesPerformance Improvement of an airfoil using High Lift Devices
Performance Improvement of an airfoil using High Lift DevicesKesavan K
 

Similar a 10. contaminated runways (20)

Presentation1
Presentation1Presentation1
Presentation1
 
Braking
BrakingBraking
Braking
 
P07011_Gupta_et_al
P07011_Gupta_et_alP07011_Gupta_et_al
P07011_Gupta_et_al
 
Cold weather operations
Cold weather operationsCold weather operations
Cold weather operations
 
Roads design as per IRC 37
Roads design as per IRC 37Roads design as per IRC 37
Roads design as per IRC 37
 
Taxiway design perfect ppt
Taxiway design perfect pptTaxiway design perfect ppt
Taxiway design perfect ppt
 
Lifting awareness - 2024 - 01 - Ground condition and crane stability.pptx
Lifting awareness - 2024 - 01 - Ground condition and crane stability.pptxLifting awareness - 2024 - 01 - Ground condition and crane stability.pptx
Lifting awareness - 2024 - 01 - Ground condition and crane stability.pptx
 
Screening Hydroplaning Risk Area By Hsd Data
Screening Hydroplaning Risk Area By Hsd DataScreening Hydroplaning Risk Area By Hsd Data
Screening Hydroplaning Risk Area By Hsd Data
 
Ch 13 (1)
Ch 13 (1)Ch 13 (1)
Ch 13 (1)
 
Module - 5 FP 18CV733 PPT as per VTU Syllabus
Module - 5 FP 18CV733 PPT as per VTU SyllabusModule - 5 FP 18CV733 PPT as per VTU Syllabus
Module - 5 FP 18CV733 PPT as per VTU Syllabus
 
Separator.pptx
Separator.pptxSeparator.pptx
Separator.pptx
 
Class note for btech students lce 463 pavement structure-soil interaction
Class note for btech students lce 463 pavement structure-soil interactionClass note for btech students lce 463 pavement structure-soil interaction
Class note for btech students lce 463 pavement structure-soil interaction
 
IRJET- Seepage Analysis using Drainage Seepage Tank
IRJET-  	  Seepage Analysis using Drainage Seepage TankIRJET-  	  Seepage Analysis using Drainage Seepage Tank
IRJET- Seepage Analysis using Drainage Seepage Tank
 
Columns and their hydraulic limits
Columns and their hydraulic limitsColumns and their hydraulic limits
Columns and their hydraulic limits
 
Runway resurfacing and repairing using modern materials and
Runway resurfacing and repairing using modern materials andRunway resurfacing and repairing using modern materials and
Runway resurfacing and repairing using modern materials and
 
Densidad y viga
Densidad y vigaDensidad y viga
Densidad y viga
 
Airport drainage
Airport drainageAirport drainage
Airport drainage
 
Airport drainage
Airport drainageAirport drainage
Airport drainage
 
Presentation sir shakaib.pptx
Presentation sir shakaib.pptxPresentation sir shakaib.pptx
Presentation sir shakaib.pptx
 
Performance Improvement of an airfoil using High Lift Devices
Performance Improvement of an airfoil using High Lift DevicesPerformance Improvement of an airfoil using High Lift Devices
Performance Improvement of an airfoil using High Lift Devices
 

10. contaminated runways

  • 2. CONTAMINATED RUNWAYS  Definitions  Screen height  Distances  Takeoff charts  Example
  • 3. DEFINITIONS DRY RUNWAY A dry runway is one which is neither wet nor contaminated, and includes those paved runways which have been specially prepared with grooves or porous pavement and maintained to retain ‘effectively dry’ braking action even when moisture is present. DAMP RUNWAY A runway is considered damp when the surface is not dry, but when the moisture on it does not give it a shiny appearance. According to JAA regulations, a damp runway is considered dry as far as performance calculations are concerned. This may change in the future.
  • 5. DEFINITIONS WET RUNWAY A runway is considered wet when the runway surface is covered with water or equivalent, [with a depth less than or equal to 3 mm], or when there is a sufficient moisture on the runway surface to cause it to appear reflective, but without significant areas of standing water. A wet runway has a shiny appearance, but without risk of hydroplaning.
  • 7. DEFINITIONS CONTAMINATED RUNWAY A runway is considered to be contaminated when more than 25% of the runway surface area within the required length and width being used is covered by the following: Standing water: Caused by heavy rainfall and/or insufficient runway drainage with a depth of more than 3 mm (0.125 in). Slush: Water saturated with snow, which spatters when stepping firmly on it. Wet snow: If compacted by hand, snow will stick together and tend to form a snowball. Dry snow: Snow can be blown if loose, or if compacted by hand, will fall apart again upon release. Compacted snow: Snow has been compressed Ice: The friction coefficient is 0.05 or below.
  • 9. DEFINITIONS Equivalent of wet runway is runway covered with less than: • 2 mm (0.08 inch) slush • 3 mm (0.12 inch) standing water • 4 mm (0.16 inch) wet snow • 15 mm (0.59 inch) dry snow
  • 10. SCREEN HEIGHT On wet and contaminated runways, the screen height is measured at 15 feet rather than 35 feet on dry runways. Moreover, the use of reverse thrust is allowed for ASD determination on wet and contaminated runways, whereas it is forbidden to take it into account for the ASD determination on dry runways. Therefore, it is possible to obtain shorter TODs and ASDs on wet and contaminated runways than on dry runways for the same takeoff conditions. Thus, it is possible to obtain higher takeoff weights on surfaces covered with water, slush, or snow than on dry runways. This is why the regulation indicates that: On a wet or contaminated runway, the takeoff mass must not exceed that permitted for a takeoff on a dry runway under the same conditions.
  • 11. DISTANCES ASD, TOD and TOR for wet runways are measured in the same way as for dry runways, except that the screen height is 15 ft and reverse thrust is considered. TOD 15 ft
  • 12. TAKEOFF CHARTS Depending on the depth of water, we will use a different chart for takeoff performance calculations: • Under 3 mm of water, use the WET RUNWAY correction. • Between 3 mm and 6.3 mm, use the 6.3 mm (1/4 inch) WATER chart. • Between 6.3 mm and 12.7 mm, use the 12.7 mm (1/2 inch) WATER chart.
  • 13. TAKEOFF CHARTS Depending on the depth of slush, we will use a different chart for takeoff performance calculations: • Under 2 mm of slush, use the WET RUNWAY correction. • Between 2 mm and 6.3 mm, use the 6.3 mm (1/4 inch) SLUSH chart. • Between 6.3 mm and 12.7 mm, use the 12.7 mm (1/2 inch) SLUSH chart. For compacted snow, a special chart is provided (COMPACTED SNOW).
  • 14. TAKEOFF CHARTS Equivalent of wet runway is runway covered with less than: • 2 mm (0.08 inch) slush • 3 mm (0.12 inch) standing water • 4 mm (0.16 inch) wet snow • 15 mm (0.59 inch) dry snow
  • 15. TAKEOFF CHARTS We have to main targets: 1. Determine PTOW. 2. Determine V1, VR and V2.  Remember that flexible takeoff is not allowed when taking off from a contaminated runway. In most aircraft, thrust reverse, anti-skid system and ground spoilers must be operative in order to takeoff from a contaminated runway. For a wet runway, reverse thrust is not required.  Since runway contamination will affect braking much more than acceleration, the ASD will increase much more than the TOD as well. As a result, takeoff speeds will be lower than those for a dry runway.
  • 16. TAKEOFF CHARTS How to calculate PTOW: 1. Calculate the PTOW for dry runway (for each configuration), and correct it by QNH and bleed. 2. Determine the weight penalty on the appropriate chart for each configuration. 3. Apply corrections to the PTOWs calculated on (1) and choose the configuration that gives the highest PTOW.
  • 17. TAKEOFF CHARTS How to calculate takeoff speeds: 1. With the configuration and ATOW, use the appropriate chart to find takeoff speeds.
  • 18. EXAMPLE Let’s calculate PTOW and takeoff speeds with this conditions: • LFPO Runway 08 • TORA: 3320 m • Runway covered with 7 mm slush • PTOW (dry): 72000 Kg (CONF 1+F) 71100 Kg (CONF 2) 71200 Kg (CONF 3) We will use the 12.7 mm slush chart
  • 21.
  • 22. EXAMPLE V1 = 124 ; VR = 133 ; V2 = 133