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FLIGHT THEORY
JAA ATPL/CPL/IR ANNEXES 033Rev. w
www.flight-theory.eu
http://www.flight-theory.eu/http://www.flight-theory.eu/http://www.flight-theory.eu/ -
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CIVIL AVIATION AUTHORITYFLIGHT PLANNING & MONITORING
DATA SHEETMEP1
6. DESCENTMethod of Use.
1. Enter graph with OAT at cruise altitude and move vertically to cruise altitude.
2. From there move horizontally to fuel, time and distance lines.
3. Move vertically down respectively from each and read values for fuel (gallons), time (minutes)and distance (nautical miles).
4. Repeat 1,2 and 3 for altitude of airfield.
5. Subtract results of 4 from 3 and derive fuel, time and distance for descent profile.
Figure 3.6 DESCENT
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Figure 4.5.3.1 Long Range Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 33000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 58200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMIT
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITIS66400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.1 Long Range Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 28000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMIT
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.1 EN
ROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.1 ENROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.1 ENROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.3.1 Long Range Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 33000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 58200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMIT
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITIS66400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.1 Long Range CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 35000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 53200 KG
THRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER IS 64500 KGTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
IS 63100 KGIS 61400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA
0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.2.1 OPTIMUM ALTITUDE
Figure 4.2.2 SHORT DISTANCE CRUISE ALTITUDE
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Figure 4.5.3.2 Mach 0.74 CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 22000Ft TAS 451 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE EXCEEDS STRUCTURAL LIMITHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.2 Mach 0.74 Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 25000Ft TAS 445 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE EXCEEDS STRUCTURAL LIMITHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.3.1B SIMPLIFIED FLIGHT PLANNING
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3.3 Alternate Planning (Fig. 4.3.6)
The fuel and time figures extracted from this chart include the following:
Missed approachClimb to cruise altitude
Cruise at LRC
Descent and straight on approach.
Method of use is similar to previous graphs.For distances greater than 500 NM use the LRC Simplified Flight Planning Charts.
Figure 4.3.6 SIMPLIFIED FLIGHT PLANNING ALTERNATE PLANNINGLONG RANGE CRUISE
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Figure 4.3.3C SIMPLIFIED FLIGHT PLANNING
0.78 MACH CRUISE
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4. HOLDING FUEL PLANNING
The table below provides fuel flow Information necessary for planning holding reserve fuel requirements.Chart is based on racetrack pattern at minimum drag airspeed - minimum speed 210KIAS.
For holding in straight and level reduce table values by 5%
Figure 4.4
FLAPS UP
Fuel flow is based on a racetrack pattern.For holding in straight and level flight reduce fuel values by 5%
5. DETAILED FUEL PLANNING
5.1 En-route Climb (Figures 4.5.1)
Tables are provided for a range of temperature deviations from ISA -15C to ISA +25CFuel and time given in these tables are from brake release and distance from 1500 ft. with a climbairspeed schedule 280 KIAS/0.74 Mach. The stated TAS is the average for the climb and should beused to correct the still air distance shown.
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DATA SHEETMEP1
3. RANGE AT STANDARD TEMPERATURESMethod of Use
1. Enter graph (Fig.3.2) with cruise altitude2. Move horizontally to power selected intersection (with or without reserve)3. Move vertically to read range in nautical miles still air distance.
Figure 3.2 RANGE
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NOT FOR NAVIGATIONALPURPOSES!COPYRIGHT 1999 JEPPESEN GMBH
EDITION NOVEMBER '99
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NOT FOR NAVIGATIONALPURPOSES!COPYRIGHT 1999 JEPPESEN GMBH
EDITION NOVEMBER '99
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DATA SHEETMRJT 1
4. HOLDING FUEL PLANNINGThe table below provides fuel flow Information necessary for planning holding reserve fuel requirements.Chart is based on racetrack pattern at minimum drag airspeed - minimum speed 210KIAS.
For holding in straight and level reduce table values by 5%
Figure 4.4
FLAPS UP
Fuel flow is based on a racetrack pattern.For holding in straight and level flight reduce fuel values by 5%
5. DETAILED FUEL PLANNING
5.1 En-route Climb (Figures 4.5.1)
Tables are provided for a range of temperature deviations from ISA -15C to ISA +25CFuel and time given in these tables are from brake release and distance from 1500 ft. with a climbairspeed schedule 280 KIAS/0.74 Mach. The stated TAS is the average for the climband should be usedto correct the still air distance shown.
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3.3 Alternate Planning (Fig. 4.3.6)
The fuel and time figures extracted from this chart include the following:Missed approach
Climb to cruise altitude
Cruise at LRC
Descent and straight on approach.
Method of use is similar to previous graphs.For distances greater than 500 NM use the LRC Simplified Flight Planning Charts
Figure 4.3.6 SIMPLIFIED FLIGHT PLANNING ALTERNATE PLANNINGLONG RANGE CRUISE
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Figure 4.3.2A SIMPLIFIED FLIGHT PLANNING
0.74 MACH CRUISE
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3.3 Alternate Planning (Fig. 4.3.6)
The fuel and time figures extracted from this chart include the following:
Missed approach
Climb to cruise altitude
Cruise at LRC
Descent and straight on approach.
Method of use is similar to previous graphs.For distances greater than 500 NM use the LRC Simplified Flight Planning Charts.
Figure 4.3.6 SIMPLIFIED FLIGHT PLANNING ALTERNATE PLANNINGLONG RANGE CRUISE
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4. POWER SETTING, FUEL FLOW AND TAS
Enter the power setting table (fig. 3.3) with required % power to obtain fuel flow in US gallons per hour.
Manifold Pressure is read off against pressure altitude and RPM in the correct % power column.
Figure 3.3 POWER SETTING TABLE
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4. POWER SETTING, FUEL FLOW AND TAS
Enter the power setting table (fig. 3.3) with required % power to obtain fuel flow in US gallons per hour.Manifold Pressure is read off against pressure altitude and RPM in the correct % power column.
Figure 3.3 POWER SETTING TABLE
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5. ENDURANCE PROFILEThe graph at Figure 2.5 (page 1) provides a rapid method for determination of endurance for the sampleaeroplane. An example is shown on the graph.
Figure 2.5 ENDURANCE
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Figure 2.2 RECOMMENDED CRUISE POWER SETTINGS
TABLE 2.2.3
20 C LEAN 23.0 IN. HG (OR FULL THROTTLE) @ 2300 RPM
Of Peak EGT CRUISE LEAN MIXTURE3400 Ibs.
Press.Alt.
IOAT Man.Press.
Fuel Flow Air Speed
Feet C F IN. HG PPH GPH KIAS KTAS
ISA - 20 C(ISA - 36 F)
020004000
60008000
10,00012,00014,00016.000
-3-7
-11
-15-18-23-17-31-35
262013
6-1-9
-16-23-31
23.023.023.0
23.022.420.719.217.816.4
67.669.772.1
74.473.868.463.860.056.3
11.311.612.0
12.412.311.410.610.09.4
152152153
153150143135127117
144149154
158160157153148141
Standard Day(ISA)
02000400060008000
10,000
12,00014,00016.000
1713952
-3
-7-11-15
625649423527
20135
23.023.023.023.022.420.7
19.217.816.4
65.467.469.471.771.166.2
61.858.555.3
10.911.211.612.011.911.0
10.39.89.2
147147148148145137
129120109
145149154159160157
152146137
ISA + 20 C(ISA + 36 F)
02000400060008000
10,00012,00014,00016,000
373329252217139-
9892857871635648
-
23.023.023.023.022.420.719.217.8
-
63.265.167.169.068.564.060.057.1
-
10.510.911.211.511.410.710.0
9.5-
142143143142140132123113
-
145149154158160156151142
-
NOTES: 1. Full throttle manifold pressure settings are approximate.2. Shaded area represents Operation with full throttle.3. Fuel flows are to be used for flight planning only and will vary from
aeroplane to aeroplane. Lean using the EGT.
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DATA SHEETMRJT 1
4. HOLDING FUEL PLANNINGThe table below provides fuel flow Information necessary for planning holding reserve fuel requirements.Chart is based on racetrack pattern at minimum drag airspeed - minimum speed 210KIAS.
For holding in straight and level reduce table values by 5%
Figure 4.4
FLAPS UP
Fuel flow is based on a racetrack pattern.For holding in straight and level flight reduce fuel values by 5%
5. DETAILED FUEL PLANNING
5.1 En-route Climb (Figures 4.5.1)Tables are provided for a range of temperature deviations from ISA -15C to ISA +25CFuel and time given in these tables are from brake release and distance from 1500 ft. with a climbairspeed schedule 280 KIAS/0.74 Mach. The stated TAS is the average for the climb and should beused to correct the still air distance shown.
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3.3 Alternate Planning (Fig. 4.3.6)The fuel and time figures extracted from this chart include the following:
Missed approach
Climb to cruise altitude
Cruise at LRC
Descent and straight on approach.
Method of use is similar to previous graphs.For distances greater than 500 NM use the LRC Simplified Flight Planning Charts.
Figure 4.3.6 SIMPLIFIED FLIGHT PLANNING ALTERNATE PLANNINGLONG RANGE CRUISE
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Figure 4.2.1 OPTIMUM ALTITUDE
Figure 4.2.2 SHORT DISTANCE CRUISE ALTITUDE
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Figure 4.2.1 OPTIMUM ALTITUDE
Figure 4.2.2 SHORT DISTANCE CRUISE ALTITUDE
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Figure 4.2.1 OPTIMUM ALTITUDE
Figure 4.2.2 SHORT DISTANCE CRUISE ALTITUDE
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Figure 4.2.1 OPTIMUM ALTITUDE
Figure 4.2.2 SHORT DISTANCE CRUISE ALTITUDE
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1 AEROPLANE DATA AND CONSTANTS
1.1 Aeroplane DataMonoplane
Twin turbo-jet engines
Retractable undercarriage
Structural Limits: -Maximum Taxi (Ramp) MassMaximum Take Off MassMaximum Landing MassMaximum Zero Fuel MassMaximum Fuel Load
63060 Kg.62800 Kg.54900 Kg.51300 Kg.5311 U.S. Gallons16145 Kg. (@ 3.04 Kg./Gal.)
1.2 ConstantsFuel Density (unless otherwise notified)
3.04 Kg./US Gallon6.7 Ibs AIS Gallon
2. OPTIMUM ALTITUDES
2.1 Optimum Cruise Altitude (Fig. 4.2.1)
Enter graph with cruise mass (56800 Kg.)Move vertically to selected cruise profile (LRC)Move horizontally to read optimum altitude (33500 ft.)
NB. Fuel Penalties will be incurred by operating "off optimum" altitude as shown in table.
OFF - OPTIMUM CONDITION FUEL MILEAGE PENALTY %
LRC 0.74
2000 n. aboveOptimum2000 n below4000 ft. below8000 ft. below
12000 ft. below
1014
1015
1024
1120
2.2 Short Distance Cruise Altitude (Fig. 4.2.2)
Enter with trip distance (Nautical Air Miles).
Move to temperature deviation.Move horizontally to reference line.Follow the trade lines to intersect with vertical through brake release weight.Move horizontally to read maximum pressure altitude.
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Figure 4.2.1 OPTIMUM ALTITUDE
Figure 4.2.2 SHORT DISTANCE CRUISE ALTITUDE
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Figure 4.5.3.2 Mach 0.74 Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 31000Ft TAS 434 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 63500 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15 THRUSTLIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.2 Mach 0.74 Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 31000Ft TAS 434 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 63500 KG
THRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15 THRUSTLIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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ENDURANCE/FUEL CALCULATION
Fuel (kg) Time (hh:mm)
Trip FuelContingency Fuel
Alternate FuelFinal Reserve Fuel
5800
1800
1325
02:32
00:42
Minimum T/O-FuelExtra Fuel
Actual T/O-FuelTaxi FUEL 200
Ramp Fuel 10000
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Figure 4.5.3.1 Long Range CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 35000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 53200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER IS 64500 KG
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
IS 63100 KGIS 61400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA
0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.1 EN - ROUTE CLIMB 280/.74 ISA +6 C TO +15 C
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Figure 4.5.3.1 Long Range CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 33000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 58200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMIT
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITIS66400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.1 Long Range Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 28000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMIT
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.1 ENROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.1 ENROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.1 ENROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.3.1 Long Range CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 35000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 53200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER IS 64500 KG
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
IS 63100 KGIS 61400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA
0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.2.1 OPTIMUM ALTITUDE
Figure 4.2.2 SHORT DISTANCE CRUISE ALTITUDE
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Figure 4.5.3.2 Mach 0.74 Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 25000Ft TAS 445 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE EXCEEDS STRUCTURAL LIMITHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.2 Mach 0.74 Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 25000Ft TAS 445 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE EXCEEDS STRUCTURAL LIMIT
HRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.2 Mach 0.74 CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 34000 Ft TAS 428 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 55500 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER IS 67100 KGTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
IS 65700 KGIS 64000 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.5.3.1 Long Range Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 33000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 58200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMIT
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITIS66400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.3.1B SIMPLIFIED FLIGHT PLANNING
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Figure 4.5.3.1 Long Range CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 33000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 58200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMIT
THRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITIS66400 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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Figure 4.3.3C SIMPLIFIED FLIGHT PLANNING
0.78 MACH CRUISE
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3.3 Alternate Planning (Fig. 4.3.6)
The fuel and time figures extracted from this chart include the following:
Missed approach
Climb to cruise altitude
Cruise at LRC
Descent and straight on approach.
Method of use is similar to previous graphs.For distances greater than 500 NM use the LRC Simplified Flight Planning Charts.
Figure4.3.6 SIMPLIFIED FLIGHT PLANNING ALTERNATE PLANNINGLONG RANGE CRUISE
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4. HOLDING FUEL PLANNING
The table below provides fuel flow Information necessary for planning holding reserve fuel requirements.Chart is based on racetrack pattern at minimum drag airspeed - minimum speed 210KIAS.
For holding in straight and level reduce table values by 5%
Figure 4.4
FLAPS UP
Fuel flow is based on a racetrack pattern.For holding in straight and level flight reduce fuel values by 5%
5. DETAILED FUEL PLANNING
5.1 En-route Climb (Figures 4.5.1)
Tables are provided for a range of temperature deviations from ISA -15C to ISA +25CFuel and time given in these tables are from brake release and distance from 1500 ft. with a climbairspeed schedule 280 KIAS/0.74 Mach. The stated TAS is the average for the climb and should beused to correct the still air distance shown.
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4. HOLDING FUEL PLANNING
The table below provides fuel flow Information necessary for planning holding reserve fuel requirements.Chart is based on racetrack pattern at minimum drag airspeed - minimum speed 210KIAS.
For holding in straight and level reduce table values by 5%
Figure 4.4
FLAPS UP
Fuel flow is based on a racetrack pattern.For holding in straight and level flight reduce fuel values by 5%
5. DETAILED FUEL PLANNING
5.1 En-route Climb (Figures 4.5.1)
Tables are provided for a range of temperature deviations from ISA -15C to ISA +25CFuel and time given in these tables are from brake release and distance from 1500 ft. with a climbairspeed schedule 280 KIAS/0.74 Mach. The stated TAS is the average for the climb and should beused to correct the still air distance shown.
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4. HOLDING FUEL PLANNING
The table below provides fuel flow Information necessary for planning holding reserve fuel requirements.Chart is based on racetrack pattern at minimum drag airspeed - minimum speed 210KIAS.
For holding in straight and level reduce table values by 5%
Figure 4.4
FLAPS UP
Fuel flow is based on a racetrack pattern.For holding in straight and level flight reduce fuel values by 5%
5. DETAILED FUEL PLANNING
5.1 En-route Climb (Figures 4.5.1)
Tables are provided for a range of temperature deviations from ISA -15C to ISA +25CFuel and time given in these tables are from brake release and distance from 1500 ft. with a climbairspeed schedule 280 KIAS/0.74 Mach. The stated TAS is the average for the climb and should beused to correct the still air distance shown.
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Figure 4.5.1 EN
ROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.1 ENROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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Figure 4.5.1 ENROUTE CLIMB 280/.74 ISA -6 C TO -15 C
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5.4 Descent
These tables (Fig. 4.5.4) provide tabulations of time, fuel and distance for "flight idle" thrust at 0.74mach/250 KIAS (economy) and 0.70 Mach/280 KIAS (turbulence penetration)
Allowances are made for a straight in approach with gear down.
Figure 4.5.4 Descent
.74M/250 KIAS
.70M/280/250 KIAS
BASED ON IDLE THRUST.ALLOWANCES FOR A STRAIGHT-IN APPROACH ARE INCLUDED.
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5.4 Descent
These tables (Fig. 4.5.4) provide tabulations of time, fuel and distance for "flight idle" thrust at 0.74mach/250 KIAS (economy) and 0.70 Mach/280 KIAS (turbulence penetration)
Allowances are made for a straight in approach with gear down.
Figure 4.5.4 Descent.74M/250 KIAS
.70M/280/250 KIAS
BASED ON IDLE THRUST.ALLOWANCES FOR A STRAIGHT-IN APPROACH ARE INCLUDED.
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5.4 Descent
These tables (Fig. 4.5.4) provide tabulations of time, fuel and distance for "flight idle" thrust at 0.74mach/250 KIAS (economy) and 0.70 Mach/280 KIAS (turbulence penetration)
Allowances are made for a straight in approach with gear down.
Figure 4.5.4 Descent.74M/250 KIAS
.70M/280/250 KIAS
BASED ON IDLE THRUST.ALLOWANCES FOR A STRAIGHT-IN APPROACH ARE INCLUDED.
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Figure 4.5.3.2 Mach 0.74 CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 28000Ft TAS 440 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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DATA SHEETSEP 1
FIGURE 2.1 TIME FUEL AND DISTANCE TO CLIMB
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DATA SHEETSEP 1
4. RANGE PROFILEThe graph at Figure 2.4 (page 9) provides a simple and rapid means of determining the still air range(nautical air miles) for the sample aeroplane. An example of the use of the graph is shown.
Note that the figures make allowance for the taxi, run-up and 45 minutes reserve fuel.
Figure 2. 4 RANGE
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DATA SHEETSEP 1
Figure 2.2 RECOMMENDED CRUISE POWER SETTINGSTABLE 2.2.2
20 C LEAN 25.0 IN. HG (OR FULL THROTTLE) @ 2100 RPM
Of Peak EGT CRUISE LEAN MIXTURE3400 Ibs.
Press.Alt.
IOATMan.
Press.FuelFlow
Air Speed
Feet C F IN. HG PPH GPH KIAS KTAS
ISA - 20 C(ISA - 36 F)
02000400060008000
10,00012,00014,00016.000
-3-7
-11-15-19-23-27-31-35
2619125
-2-9
-17-24-32
25.025.025.024.322.520.819.317.916.5
63.866.468.968.363.960.156.754.552.2
10.611.111.511.410.710.09.59.18.7
14814914914713913212311395
140145150152148144139132114
Standard Day(ISA)
020004000
60008000
10,00012,00014,00016.000
17139
51
-3-7
-11-
625548
4134271912
-
25.025.025.0
24.322.520.819.317.9
-
61.964.266.6
66.161.958.555.653.5
-
10.311.711.1
11.010.39.89.38.9
-
143143144
141134126116103
-
140145150
152148143136125
-
ISA + 20 C(ISA + 36 F)
02000400060008000
10,00012,00014,00016.000
37332925211713
--
98918477706355
--
25.025.025.024.322.520.819.3
--
60.162.164.463.960.256.854.5
--
10.010.410.710.710.09.59.1
--
138138139136128119108
--
140145150151147141131
--
NOTES: 1. Full throttle manifold pressure settings are approximate.2. Shaded area represents operation with full throttle.3. Fuel flows are to be used for flight planning only and will vary from aeroplane
to aeroplane. Lean using the EGT.
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DATA SHEETSEP 1
Figure 2.2 RECOMMENDED CRUISE POWER SETTINGS
TABLE 2.2.3
20 C LEAN 23.0 IN. HG (OR FULL THROTTLE) @ 2300 RPM
Of Peak EGT CRUISE LEAN MIXTURE3400 Ibs.
Press.Alt.
IOATMan.
Press.FuelFlow
Air Speed
Feet C F IN. HG PPH GPH KIAS KTAS
ISA - 20 C(ISA - 36 F)
020004000
60008000
10,00012,00014,00016.000
-3-7
-11
-15-18-23-17-31-35
262013
6-1-9
-16-23-31
23.023.023.0
23.022.420.719.217.816.4
67.669.772.1
74.473.868.463.860.056.3
11.311.612.0
12.412.311.410.610.09.4
152152153
153150143135127117
144149154
158160157153148141
Standard Day(ISA)
02000400060008000
10,00012,000
14,00016.000
1713952
-3-7
-11-15
62564942352720
135
23.023.023.023.022.420.719.2
17.816.4
65.467.469.471.771.166.261.8
58.555.3
10.911.211.612.011.911.010.3
9.89.2
147147148148145137129
120109
145149154159160157152
146137
ISA + 20 C(ISA + 36 F)
02000400060008000
10,00012,00014,00016.000
373329252217139-
9892857871635648
-
23.023.023.023.022.420.719.217.8
-
63.265.167.169.068.564.060.057.1
-
10.510.911.211.511.410.710.09.5
-
142143143142140132123113
-
145149154158160156151142
-
NOTES: 1. Full throttle manifold pressure settings are approximate.2. Shaded area represents Operation with full throttle.3. Fuel flows are to be used for flight planning only and will vary from aeroplane to
aeroplane. Lean using the EGT.
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JAR - FCLFLIGHT PLANNING
QUICK DETERMINATION OF FLIGHT PLAN
INTRODUCTION
The following flight planning tables allow the planner to determine trip fuel consumption and trip timerequired to cover a given air distance.
These tables are established for:
- Takeoff- Climb profile : 250kt/300kt/M.80- Cruise mach number: M.80, M.82, M.84, LR- Descent profile: Cruise Mach number/300kt/250kt- Approach and landing : 240 kg - 6 minute IFR-ISA- CG = 37 %- Normal air conditioning
-Anti ice OFFNote:
1. In the tables, the asterisk (*} means that a step climbof 4000 feet must be flown to reachthe corresponding FL.
2. To obtain a flight plan at optimum cruise level, the highest flight level desired within the flighthas to be selected in the table.
3. For each degree Celsius above ISA temperature apply fuel correction 0.010 (kg/C/NM) x
CORRECTION FOR DEVIATION FROM REFERENCE LANDING WEIGHT
The fuel consumption must be corrected when the actual landing weight is different from the referencelanding weight
If it is lover (or greater) man the reference landing weight subtract (or add) the value given in thecorrection part of the table per 1000 kg below (or above) the reference landing weight.
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FLIGHT PLANNING
GROUND DISTANCE/AIR DISTANCE
SEQ A
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FLIGHT PLANNINGQUICK DERTERMINATION OF F-PLN
SEQ A
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FLIGHT PLANNINGQUICK DERTERMINATION OF F-PLN
SEQ A
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033-11074 AJAR - FCL FLIGHT PLANNING
QUICK DETERMINATION OF FLIGHT PLAN
INTRODUCTION
The following flight planning tables allow the planner to determine trip fuel consumption and trip timerequired to cover a given air distance.
These tables are established for:
- Takeoff- Climb profile : 250kt/300kt/M.80- Cruise mach number: M.80, M.82, M.84, LR- Descent profile: Cruise Mach number/300kt/250kt- Approach and landing : 240 kg - 6 minute IFR-ISA- CG = 37 %- Normal air conditioning-Anti ice OFF
Note:
1. In the tables, the asterisk (*} means that a step climb of 4000 feet must be flown to reach thecorresponding FL.
2. To obtain a flight plan at optimum cruise level, the highest flight level desired within the flighthas to be selected in the table.
3. For each degree Celsius above ISA temperature apply fuel correction 0.010 (kg/C/NM) xISA(C) x Air Distance (NM).
CORRECTION FOR DEVIATION FROM REFERENCE LANDING WEIGHT
The fuel consumption must be corrected when the actual landing weight is different from the reference
landing weightIf it is lover (or greater) man the reference landing weight subtract (or add) the value given in thecorrection part of the table per 1000 kg below (or above) the reference landing weight.
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033-11074 B
DATA SHEETLRJT 1
FLIGHT PLANNING
GROUND DISTANCE/AIR DISTANCE
SEQ A
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033-11074 C
DATA SHEETLRJT 1
FLIGHT PLANNINGQUICK DERTERMINATION OF F-PLN
SEQ A
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033-11074 D
DATA SHEETLRJT 1
FLIGHT PLANNING
QUICK DERTERMINATION OF F-PLNSEQ A
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033-11181 A
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033-11182 A
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033-11183 A
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033-11184 A
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033-11185 A
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033-11186 A
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033-11187 A
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033-11188 A
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033-11189 A
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033-11190 A
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033-11191 A
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033-11192 A
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033-11193 A
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033-11194 A
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033-11195 A
List of TAFs
TAF EDDF ISSUED AT 042200EDDF 0524 VRE03KT CAVOK
BECMG 0609 20005KT 9999 SCT030 BKN045 =
TAF EDDK ISSUED AT 042200EDDK 0624 14005KT 7000 NSCBECMG 0608 CAVOKTEMPO 1115 9999 SCT040 =
TAF EDDL ISSUED AT 042200EDDL 0624 16003KT 5000 NSCBECMG 0608 CAVOK =
TAF EDDM TSSUED AT 042200EDCM 0624 26005KT 9999 SCT035 =
TAF EDDN ISSUED AT 042200EDDN 0624 26005KT 9999 SCT035 =
TAF EDDH ISSUED AT 042200EDOH 0624 21010KT CAVOKBECMG 0810 9999 SCT025 SCT040PROB30 TEMPO 1218 7000 -RADZ BKN012BECMG 1620 7000 BKN020TEMPO 1824 4000 RADZ BKN005 =
TAF EDDS ISSUED AT 042200
EDDS 0624 26005KT 9999 SCT035 =
TAF EGLL ISSUED AT 042200EGLL 0624 17005KT 5000 SCT040PROB30 TEMPO 0607 1500 BRBECMG 0811 23010KT 9999BECMG 1619 BRNO15 =
TAF EHAM ISSUED AT 042200EHAM 0624 VRB03KT CAVOKBECMG 0710 21009KT SCT025 BKN080PROB30 TEMPO 1218 7000 BR -RA SCT012 SCT035BECMG 1215 27012KTBECMG 2023 6000 BR SCT008 =
TAF EHBK ISSUED AT 040400EHBK 1206 28011KT 7000 BR SCT012 SCT040BECMG 1215 CAVOKBECMG 1720 VRB03KTBECMG 0104 20006KT 7000 BR SCT008 BKN012 =
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033-11196 A
List of TAFs
TAF EDDF ISSUED AT 042200EDDF 0524 VRE03KT CAVOKBECMG 0609 20005KT 9999 SCT030 BKN045 =
TAF EDDK ISSUED AT 042200EDDK 0624 14005KT 7000 NSCBECMG 0608 CAVOKTEMPO 1115 9999 SCT040 =
TAF EDDL ISSUED AT 042200EDDL 0624 16003KT 5000 NSCBECMG 0608 CAVOK =
TAF EDDM TSSUED AT 042200EDCM 0624 26005KT 9999 SCT035 =
TAF EDDN ISSUED AT 042200EDDN 0624 26005KT 9999 SCT035 =
TAF EDDH ISSUED AT 042200EDOH 0624 21010KT CAVOKBECMG 0810 9999 SCT025 SCT040PROB30 TEMPO 1218 7000 -RADZ BKN012BECMG 1620 7000 BKN020TEMPO 1824 4000 RADZ BKN005 =
TAF EDDS ISSUED AT 042200EDDS 0624 26005KT 9999 SCT035 =
TAF EGLL ISSUED AT 042200EGLL 0624 17005KT 5000 SCT040PROB30 TEMPO 0607 1500 BRBECMG 0811 23010KT 9999BECMG 1619 BRNO15 =
TAF EHAM ISSUED AT 042200EHAM 0624 VRB03KT CAVOKBECMG 0710 21009KT SCT025 BKN080PROB30 TEMPO 1218 7000 BR -RA SCT012 SCT035BECMG 1215 27012KTBECMG 2023 6000 BR SCT008 =
TAF EHBK ISSUED AT 040400EHBK 1206 28011KT 7000 BR SCT012 SCT040BECMG 1215 CAVOKBECMG 1720 VRB03KTBECMG 0104 20006KT 7000 BR SCT008 BKN012 =
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033-11198 A
List of TAFs
TAF EDDF ISSUED AT 042200EDDF 0524 VRE03KT CAVOKBECMG 0609 20005KT 9999 SCT030 BKN045 =
TAF EDDK ISSUED AT 042200EDDK 0624 14005KT 7000 NSCBECMG 0608 CAVOKTEMPO 1115 9999 SCT040 =
TAF EDDL ISSUED AT 042200EDDL 0624 16003KT 5000 NSCBECMG 0608 CAVOK =
TAF EDDM TSSUED AT 042200EDCM 0624 26005KT 9999 SCT035 =
TAF EDDN ISSUED AT 042200EDDN 0624 26005KT 9999 SCT035 =
TAF EDDH ISSUED AT 042200EDOH 0624 21010KT CAVOKBECMG 0810 9999 SCT025 SCT040PROB30 TEMPO 1218 7000 -RADZ BKN012BECMG 1620 7000 BKN020TEMPO 1824 4000 RADZ BKN005 =
TAF EDDS ISSUED AT 042200EDDS 0624 26005KT 9999 SCT035 =
TAF EGLL ISSUED AT 042200EGLL 0624 17005KT 5000 SCT040PROB30 TEMPO 0607 1500 BRBECMG 0811 23010KT 9999BECMG 1619 BRNO15 =
TAF EHAM ISSUED AT 042200EHAM 0624 VRB03KT CAVOKBECMG 0710 21009KT SCT025 BKN080PROB30 TEMPO 1218 7000 BR -RA SCT012 SCT035BECMG 1215 27012KTBECMG 2023 6000 BR SCT008 =
TAF EHBK ISSUED AT 040400EHBK 1206 28011KT 7000 BR SCT012 SCT040BECMG 1215 CAVOKBECMG 1720 VRB03KTBECMG 0104 20006KT 7000 BR SCT008 BKN012 =
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033-11201 A
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126/242
033-11202 A
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127/242
033-11204 A
JAR - FCLFLIGHT PLANNING
QUICK DETERMINATION OF FLIGHT PLAN
INTRODUCTION
The following flight planning tables allow the planner to determine trip fuel consumption and trip timerequired to cover a given air distance.
These tables are established for:
- Takeoff- Climb profile : 250kt/300kt/M.80- Cruise mach number: M.80, M.82, M.84, LR- Descent profile: Cruise Mach number/300kt/250kt- Approach and landing : 240 kg - 6 minute IFR- ISA- CG = 37 %
- Normal air conditioning- Anti ice OFF
Note:
1. In the tables, the asterisk (*} means that a step climb of 4000 feet must be flown to reach thecorresponding FL.
2. To obtain a flight plan at optimum cruise level, the highest flight level desired within the flighthas to be selected in the table.
3. For each degree Celsius above ISA temperature apply fuel correction 0.010 (kg/C/NM) x
CORRECTION FOR DEVIATION FROM REFERENCE LANDING WEIGHT
The fuel consumption must be corrected when the actual landing weight is different from the referencelanding weight
If it is lover (or greater) man the reference landing weight subtract (or add) the value given in thecorrection part of the table per 1000 kg below (or above) the reference landing weight.
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033-11204 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
GROUND DISTANCE/AIR DISTANCE
LONG RANGE CRUISE ABOVE FL250
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033-11204 C
JAR - FCLFLIGHT PLANNING
GROUND DISTANCE/AIR DISTANCE
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131/242
033-11207 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
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033-11208 A
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
FUEL TANKING
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033-11209 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
FUEL TANKING
GENERAL
Fuel tanking graphs allow to determine the Optimum fuel quantity to be tanked as a function of the fuelprice ratio between departure and destination airports. The following pages present for one flight levelper page the Optimum aircraft takeoff weight depending on the fuel price ratio (departure fuel pricedivided by destination fuel price) and on the air distance to fly.
The computed optimum takeoff weight is based on the additional fuel consumption needed for thetransport of the extra (tanked) fuel and it is the weight at which the maximum profit can be achieved. Thequantity of extra fuel that can be loaded is calculated as the difference between the Optimum takeoffweight (including extra fuel) and the planned takeoff weight {without fuel tanking).
The graphs are established for:
- FL 290, 310, 330, 350, 370, 390- Air distances from 500 to 5000 NM- Flight profile :Climb 250kt/300kt/M.80Cruise M.80Descent M.80/300kt/250kt
Note:
1. ff necessary, step climbs are performed to reach the indicated flight levels.
2. The crew/operator has to verify that the found aircraft weight complies with basic aircraft
limitations (e.g. max fuel capacity) as well as with mission dependent restrictions (e.g. MLW atdestination).
EXAMPLES
1. Fuel price ratio = 0.930
Cruising Altitude = FL310Planned TOW = 200 000 kg (mission weight without fuel tanking)
Air Distance = 2500 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 187 000 kg, which is lower than theplanned take off weight d no fuel tanking recommended.
2. fuel price ratio = 0.890
Cruising Altitude = FL 350Planned TOW = 190 000 kg (mission weight without fuel tanking)Air Distance = 3250 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 198 000 kg, which is 8 000 kg higher than
the planned takeoff weight optimum quantity of extra fuel is 8 000 kg.Check :a) new TOW less or equal MTOW from departure airport.b) total fuel to be loaded less or equal maximum fuel capacity.c) MLW at destination
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033-11209 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
FUEL TANKING
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136/242
033-11210 B
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
FUEL TANKING
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033-11211 A
JAR - FCLFLIGHT PLANNING
QUICK DETERMINATION OF FLIGHT PLAN
INTRODUCTION
The following flight planning tables allow the planner to determine trip fuel consumption and trip timerequired to cover a given air distance.
These tables are established for:
- Takeoff- Climb profile : 250kt/300kt/M.80- Cruise mach number: M.80, M.82, M.84, LR- Descent profile: Cruise Mach number/300kt/250kt- Approach and landing : 240 kg - 6 minute IFR- ISA- CG = 37 %
- Normal air conditioning- Anti ice OFF
Note:
1. In the tables, the asterisk (*} means that a step climb of 4000 feet must be flown to reach thecorresponding FL.
2. To obtain a flight plan at optimum cruise level, the highest flight level desired within the flighthas to be selected in the table.
3. For each degree Celsius above ISA temperature apply fuel correction 0.010 (kg/C/NM) x
ISA(C) x Air Distance (NM).
CORRECTION FOR DEVIATION FROM REFERENCE LANDING WEIGHT
The fuel consumption must be corrected when the actual landing weight is different from the referencelanding weight
If it is lover (or greater) man the reference landing weight subtract (or add) the value given in the
correction part of the table per 1000 kg below (or above) the reference landing weight.
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033-11211 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGQUICK DERTERMINATION OF F-PLN
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033-11212 A
JAR - FCLFLIGHT PLANNING
QUICK DETERMINATION OF FLIGHT PLAN
INTRODUCTION
The following flight planning tables allow the planner to determine trip fuel consumption and trip timerequired to cover a given air distance.
These tables are established for:
- Takeoff- Climb profile : 250kt/300kt/M.80- Cruise mach number: M.80, M.82, M.84, LR- Descent profile: Cruise Mach number/300kt/250kt- Approach and landing : 240 kg - 6 minute IFR- ISA- CG = 37 %
- Normal air conditioning- Anti ice OFF
Note:
1. In the tables, the asterisk (*} means that a step climb of 4000 feet must be flown to reach thecorresponding FL.
2. To obtain a flight plan at optimum cruise level, the highest flight level desired within the flighthas to be selected in the table.
3. For each degree Celsius above ISA temperature apply fuel correction 0.010 (kg/C/NM) x
ISA(C) x Air Distance (NM).
CORRECTION FOR DEVIATION FROM REFERENCE LANDING WEIGHT
The fuel consumption must be corrected when the actual landing weight is different from the referencelanding weight
If it is lover (or greater) man the reference landing weight subtract (or add) the value given in thecorrection part of the table per 1000 kg below (or above) the reference landing weight.
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033-11212 B
JAR - FCL FLIGHT PLANNINGQUICK DERTERMINATION OF F-PLN
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033-11213 A
JAR - FCLFLIGHT PLANNING
QUICK DETERMINATION OF FLIGHT PLAN
INTRODUCTION
The following flight planning tables allow the planner to determine trip fuel consumption and trip timerequired to cover a given air distance.
These tables are established for:
- Takeoff- Climb profile : 250kt/300kt/M.80- Cruise mach number: M.80, M.82, M.84, LR- Descent profile: Cruise Mach number/300kt/250kt- Approach and landing : 240 kg - 6 minute IFR- ISA- CG = 37 %
- Normal air conditioning- Anti ice OFF
Note:
1. In the tables, the asterisk (*} means that a step climb of 4000 feet must be flown to reach thecorresponding FL.
2. To obtain a flight plan at optimum cruise level, the highest flight level desired within the flighthas to be selected in the table.
3. For each degree Celsius above ISA temperature apply fuel correction 0.010 (kg/C/NM) x
ISA(C) x Air Distance (NM).
CORRECTION FOR DEVIATION FROM REFERENCE LANDING WEIGHT
The fuel consumption must be corrected when the actual landing weight is different from the referencelanding weight
If it is lover (or greater) man the reference landing weight subtract (or add) the value given in thecorrection part of the table per 1000 kg below (or above) the reference landing weight.
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033-11213 B
JAR - FCL FLIGHT PLANNINGQUICK DERTERMINATION OF F-PLN
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033-11214 A
JAR - FCLFLIGHT PLANNING
QUICK DETERMINATION OF FLIGHT PLAN
INTRODUCTION
The following flight planning tables allow the planner to determine trip fuel consumption and trip timerequired to cover a given air distance.
These tables are established for:
- Takeoff- Climb profile : 250kt/300kt/M.80- Cruise mach number: M.80, M.82, M.84, LR- Descent profile: Cruise Mach number/300kt/250kt- Approach and landing : 240 kg - 6 minute IFR- ISA- CG = 37 %- Normal air conditioning
- Anti ice OFFNote:
4. In the tables, the asterisk (*} means that a step climb of 4000 feet must be flown to reach thecorresponding FL.
5. To obtain a flight plan at optimum cruise level, the highest flight level desired within the flighthas to be selected in the table.
6. For each degree Celsius above ISA temperature apply fuel correction 0.010 (kg/C/NM) x
ISA(C) x Air Distance (NM).
CORRECTION FOR DEVIATION FROM REFERENCE LANDING WEIGHT
The fuel consumption must be corrected when the actual landing weight is different from the reference
landing weightIf it is lover (or greater) man the reference landing weight subtract (or add) the value given in thecorrection part of the table per 1000 kg below (or above) the reference landing weight.
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033-11215 A
DATA SHEETLRJT 1
JAR - FCL
FLIGHT PLANNING
INTEGRATED CRUISE
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033-11216 A
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTEGRATED CRUISE
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033-11223 A
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTEGRATED CRUISE
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033-11223 B
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTEGRATED CRUISE
CLIMB CORRECTION
The planner must correct the values for the fuel and the time obtained from the integrated cruise tableswith the numbers given in the following tables. The tables which are established for M.80, M.82, M.84and long range speed take into account climbing from the brake release point at 250KT/300KT/M.80.
LONG RANGE SPEED
CLIMB TO OPTIMUM FL
STEP CLIMB CORRECTION
When the flight includes one or more step climbs (2000 feet below FL290, 4000 feet above), apply acorrection of 160 kg per step climb to the fuel consumption.
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033-11224 A
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTEGRATED CRUISE
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151/242
033-11224 B
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTEGRATED CRUISE
CLIMB CORRECTION
The planner must correct the values for the fuel and the time obtained from the integrated cruise tableswith the numbers given in the following tables. The tables which are established for M.80, M.82, M.84
and long range speed take into account climbing from the brake release point at 250KT/300KT/M.80.
LONG RANGE SPEED
CLIMB TO OPTIMUM FL
STEP CLIMB CORRECTION
When the flight includes one or more step climbs (2000 feet below FL290, 4000 feet above), apply acorrection of 160 kg per step climb to the fuel consumption.
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033-11224 C
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGINTEGRATED CRUISE
DESCENT CORRECTION
Correct the fuel and the time values determined in the integrated cruise tables s follows to take intoaccount the descent down to 1500 feet followed by 6 min IFR approach and landing.
LONG RANGE CRUISE
IRC, M.80, M.82. M.84 FROM OPTIMUM FL
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033-11226 A
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLA
CRUISE LEVEL
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154/242
033-11226 B
DATA SHEETLRJT 1
JAR - FCLFLIGHT PL
CRUISE LEVEL
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155/242
033-11228 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
GROUND DISTANCE/AIR DISTANCE
LONG RANGE CRUISE ABOVE FL250
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033-11229 A
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLA
CRUISE LEVEL
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157/242
033-11231 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGGROUND DISTANCE/AIR DISTANCE
LONG RANGE CRUISE ABOVE FL250
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033-11238 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
INTERGRATED CRUISE
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033-11239 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
FUEL TANKING
FUEL TANKING
GENERAL
Fuel tanking graphs allow to determine the Optimum fuel quantity to be tanked as a function of the fuelprice ratio between departure and destination airports. The following pages present for one flight levelper page the Optimum aircraft takeoff weight depending on the fuel price ratio (departure fuel pricedivided by destination fuel price) and on the air distance to fly.
The computed optimum takeoff weight is based on the additional fuel consumption needed for thetransport of the extra (tanked) fuel and it is the weight at which the maximum profit can be achieved. Thequantity of extra fuel that can be loaded is calculated as the difference between the Optimum takeoff
weight (including extra fuel) and the planned takeoff weight {without fuel tanking).The graphs are established for:
- FL 290, 310, 330, 350, 370, 390- Air distances from 500 to 5000 NM- Flight profile :Climb 250kt/300kt/M.80Cruise M.80Descent M.80/300kt/250kt
Note:
1. ff necessary, step climbs are performed to reach the indicated flight levels.
2. The crew/operator has to verify that the found aircraft weight complies with basic aircraftlimitations (e.g. max fuel capacity) as well as with mission dependent restrictions (e.g. MLW at
destination).
EXAMPLES
1. Fuel price ratio = 0.930
Cruising Altitude = FL310Planned TOW = 200 000 kg (mission weight without fuel tanking)
Air Distance = 2500 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 187 000 kg, which is lower than theplanned takeoff weight d no fuel tanking recommended.
2. fuel price ratio = 0.890
Cruising Altitude = FL 350Planned TOW = 190 000 kg (mission weight without fuel tanking)
Air Distance = 3250 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 198 000 kg, which is 8 000 kg higher thanthe planned takeoff weight d optimum quantity of extra fuel is 8 000 kg.Check :a) new TOW less or equal MTOW from departure airport.b) total fuel to be loaded less or equal maximum fuel capacity.c) MLW at destination
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033-11240 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
FUEL TANKING
FUEL TANKING
GENERAL
Fuel tanking graphs allow to determine the Optimum fuel quantity to be tanked as a function of the fuelprice ratio between departure and destination airports. The following pages present for one flight levelper page the Optimum aircraft takeoff weight depending on the fuel price ratio (departure fuel pricedivided by destination fuel price) and on the air distance to fly.
The computed optimum takeoff weight is based on the additional fuel consumption needed for thetransport of the extra (tanked) fuel and it is the weight at which the maximum profit can be achieved. Thequantity of extra fuel that can be loaded is calculated as the difference between the Optimum takeoff
weight (including extra fuel) and the planned takeoff weight {without fuel tanking).The graphs are established for:
- FL 290, 310, 330, 350, 370, 390- Air distances from 500 to 5000 NM- Flight profile :Climb 250kt/300kt/M.80Cruise M.80Descent M.80/300kt/250kt
Note:
3. ff necessary, step climbs are performed to reach the indicated flight levels.
4. The crew/operator has to verify that the found aircraft weight complies with basic aircraftlimitations (e.g. max fuel capacity) as well as with mission dependent restrictions (e.g. MLW at
destination).
EXAMPLES
1. Fuel price ratio = 0.930
Cruising Altitude = FL310Planned TOW = 200 000 kg (mission weight without fuel tanking)
Air Distance = 2500 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 187 000 kg, which is lower than theplanned takeoff weight d no fuel tanking recommended.
2. fuel price ratio = 0.890
Cruising Altitude = FL 350Planned TOW = 190 000 kg (mission weight without fuel tanking)
Air Distance = 3250 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 198 000 kg, which is 8 000 kg higher thanthe planned takeoff weight d optimum quantity of extra fuel is 8 000 kg.Check :a) new TOW less or equal MTOW from departure airport.b) total fuel to be loaded less or equal maximum fuel capacity.c) MLW at destination
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033-11240 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
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033-11243 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
FUEL TANKING
GENERAL
Fuel tanking graphs allow to determine the Optimum fuel quantity to be tanked as a function of the fuelprice ratio between departure and destination airports. The following pages present for one flight levelper page the Optimum aircraft takeoff weight depending on the fuel price ratio (departure fuel pricedivided by destination fuel price) and on the air distance to fly.
The computed optimum takeoff weight is based on the additional fuel consumption needed for thetransport of the extra (tanked) fuel and it is the weight at which the maximum profit can be achieved. Thequantity of extra fuel that can be loaded is calculated as the difference between the Optimum takeoff
weight (including extra fuel) and the planned takeoff weight {without fuel tanking).The graphs are established for:
- FL 290, 310, 330, 350, 370, 390- Air distances from 500 to 5000 NM- Flight profile :Climb 250kt/300kt/M.80Cruise M.80Descent M.80/300kt/250kt
Note:
5. ff necessary, step climbs are performed to reach the indicated flight levels.
6. The crew/operator has to verify that the found aircraft weight complies with basic aircraftlimitations (e.g. max fuel capacity) as well as with mission dependent restrictions (e.g. MLW atdestination).
EXAMPLES
1. Fuel price ratio = 0.930
Cruising Altitude = FL310Planned TOW = 200 000 kg (mission weight without fuel tanking)
Air Distance = 2500 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 187 000 kg, which is lower than theplanned takeoff weight d no fuel tanking recommended.
2. fuel price ratio = 0.890
Cruising Altitude = FL 350Planned TOW = 190 000 kg (mission weight without fuel tanking)
Air Distance = 3250 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 198 000 kg, which is 8 000 kg higher thanthe planned takeoff weight d optimum quantity of extra fuel is 8 000 kg.Check :a) new TOW less or equal MTOW from departure airport.b) total fuel to be loaded less or equal maximum fuel capacity.c) MLW at destination
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033-11243 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
FUEL TANKING
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033-11244 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
FUEL TANKING
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033-11245 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNING
FUEL TANKING
FUEL TANKING
GENERAL
Fuel tanking graphs allow to determine the Optimum fuel quantity to be tanked as a function of the fuelprice ratio between departure and destination airports. The following pages present for one flight levelper page the Optimum aircraft takeoff weight depending on the fuel price ratio (departure fuel pricedivided by destination fuel price) and on the air distance to fly.
The computed optimum takeoff weight is based on the additional fuel consumption needed for thetransport of the extra (tanked) fuel and it is the weight at which the maximum profit can be achieved. Thequantity of extra fuel that can be loaded is calculated as the difference between the Optimum takeoff
weight (including extra fuel) and the planned takeoff weight {without fuel tanking).The graphs are established for:
- FL 290, 310, 330, 350, 370, 390- Air distances from 500 to 5000 NM- Flight profile :Climb 250kt/300kt/M.80Cruise M.80Descent M.80/300kt/250kt
Note:
9. ff necessary, step climbs are performed to reach the indicated flight levels.
10. The crew/operator has to verify that the found aircraft weight complies with basic aircraftlimitations (e.g. max fuel capacity) as well as with mission dependent restrictions (e.g. MLW at
destination).
EXAMPLES
1. Fuel price ratio = 0.930
Cruising Altitude = FL310Planned TOW = 200 000 kg (mission weight without fuel tanking)
Air Distance = 2500 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 187 000 kg, which is lower than theplanned takeoff weight d no fuel tanking recommended.
2. fuel price ratio = 0.890
Cruising Altitude = FL 350Planned TOW = 190 000 kg (mission weight without fuel tanking)
Air Distance = 3250 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 198 000 kg, which is 8 000 kg higher thanthe planned takeoff weight d optimum quantity of extra fuel is 8 000 kg.Check :a) new TOW less or equal MTOW from departure airport.b) total fuel to be loaded less or equal maximum fuel capacity.c) MLW at destination
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033-11253 A
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTERGRATED CRUISE
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DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTERGRATED CRUISE
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033-11254 D
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTEGRATED CRUISE
DESCENT CORRECTION
Correct the fuel and the time values determined in the integrated cruise tables s follows to take intoaccount the descent down to 1500 feet followed by 6 min IFR approach and landing.
LONG RANGE CRUISE
IRC, M.80, M.82. M.84 FROM OPTIMUM FL
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033-11255 B
DATA SHEETLRJT 1
JAR - FCLFLIGHT PLANNING
INTEGRATED CRUISE
CLIMB CORRECTION
The planner must correct the values for the fuel and the time obtained from the integrated cruise tableswith the numbers given in the following tables. The tables which are established for M.80, M.82, M.84and long range speed take into account climbing from the brake release point at 250KT/300KT/M.80.
LONG RANGE SPEED
CLIMB TO OPTIMUM FL
STEP CLIMB CORRECTION
When the flight includes one or more step climbs (2000 feet below FL290, 4000 feet above), apply acorrection of 160 kg per step climb to the fuel consumption.
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033-11259 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
FUEL TANKING
GENERAL
Fuel tanking graphs allow to determine the Optimum fuel quantity to be tanked as a function of the fuelprice ratio between departure and destination airports. The following pages present for one flight levelper page the Optimum aircraft takeoff weight depending on the fuel price ratio (departure fuel pricedivided by destination fuel price) and on the air distance to fly.
The computed optimum takeoff weight is based on the additional fuel consumption needed for the
transport of the extra (tanked) fuel and it is the weight at which the maximum profit can be achieved. Thequantity of extra fuel that can be loaded is calculated as the difference between the Optimum takeoffweight (including extra fuel) and the planned takeoff weight {without fuel tanking).
The graphs are established for:
- FL 290, 310, 330, 350, 370, 390- Air distances from 500 to 5000 NM- Flight profile :Climb 250kt/300kt/M.80Cruise M.80
Descent M.80/300kt/250kt
Note:
1. ff necessary, step climbs are performed to reach the indicated flight levels.
2. The crew/operator has to verify that the found aircraft weight complies with basic aircraftlimitations (e.g. max fuel capacity) as well as with mission dependent restrictions (e.g. MLW atdestination).
EXAMPLES
1. Fuel price ratio = 0.930
Cruising Altitude = FL310Planned TOW = 200 000 kg (mission weight without fuel tanking)
Air Distance = 2500 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 187 000 kg, which is lower than theplanned takeoff weight d no fuel tanking recommended.
2. fuel price ratio = 0.890
Cruising Altitude = FL 350
Planned TOW = 190 000 kg (mission weight without fuel tanking)Air Distance = 3250 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 198 000 kg, which is 8 000 kg higher thanthe planned takeoff weight d optimum quantity of extra fuel is 8 000 kg.Check :a) new TOW less or equal MTOW from departure airport.b) total fuel to be loaded less or equal maximum fuel capacity.c) MLW at destination
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033-11259 B
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
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033-11260 A
DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
FUEL TANKING
GENERAL
Fuel tanking graphs allow to determine the Optimum fuel quantity to be tanked as a function of the fuelprice ratio between departure and destination airports. The following pages present for one flight levelper page the Optimum aircraft takeoff weight depending on the fuel price ratio (departure fuel pricedivided by destination fuel price) and on the air distance to fly.
The computed optimum takeoff weight is based on the additional fuel consumption needed for thetransport of the extra (tanked) fuel and it is the weight at which the maximum profit can be achieved. The
quantity of extra fuel that can be loaded is calculated as the difference between the Optimum takeoffweight (including extra fuel) and the planned takeoff weight {without fuel tanking).
The graphs are established for:
- FL 290, 310, 330, 350, 370, 390- Air distances from 500 to 5000 NM- Flight profile :Climb 250kt/300kt/M.80Cruise M.80Descent M.80/300kt/250kt
Note:
1. ff necessary, step climbs are performed to reach the indicated flight levels.
2. The crew/operator has to verify that the found aircraft weight complies with basic aircraftlimitations (e.g. max fuel capacity) as well as with mission dependent restrictions (e.g. MLW at
destination).
EXAMPLES
1. Fuel price ratio = 0.930
Cruising Altitude = FL310Planned TOW = 200 000 kg (mission weight without fuel tanking)
Air Distance = 2500 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 187 000 kg, which is lower than theplanned takeoff weight d no fuel tanking recommended.
2. fuel price ratio = 0.890
Cruising Altitude = FL 350
Planned TOW = 190 000 kg (mission weight without fuel tanking)Air Distance = 3250 NMEnter graphFor the given air distance, the optimum fuel tanking weight is 198 000 kg, which is 8 000 kg higher thanthe planned takeoff weight d optimum quantity of extra fuel is 8 000 kg.Check :a) new TOW less or equal MTOW from departure airport.b) total fuel to be loaded less or equal maximum fuel capacity.c) MLW at destination
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DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGFUEL TANKING
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033-11261 A
JAR - FCLFLIGHT PLANNING
ICAO MODEL FLIGHT PLAN FORM
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JAR - FCLFLIGHT PLANNING
ICAO MODEL FLIGHT PLAN FORM
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DATA SHEETLRJT 1
JAR - FCL FLIGHT PLANNINGINTERGRATED CRUISE
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JAR - FCLFLIGHT PLANNING
ICAO MODEL FLIGHT PLAN FORM
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JAR - FCLFLIGHT PLANNING
ICAO MODEL FLIGHT PLAN FORM
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JAR - FCLFLIGHT PLANNING
ICAO MODEL FLIGHT PLAN FORM
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JAR - FCLFLIGHT PLANNING
ICAO MODEL FLIGHT PLAN FORM
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ICAO MODEL FLIGHT PLAN FORM
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033-12302 B
CIVIL AVIATION AUTHORITYFUEL PLANNING
DATA SHEETMRJT 1
Figure 4.5.3.1 Long Range Cruise
All Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 34000 Ft.
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS55500 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER IS 67100 KGTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
IS 65700 KGIS 64000 KG
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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CIVIL AVIATION AUTHORITYFUEL PLANNING
DATA SHEETMRJT 1
Figure 4.5.1 EN - ROUTE CLIMB 280/.74 ISA +6 C TO +15 C
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CIVIL AVIATION AUTHORITYFUEL PLANNING
DATA SHEETMRJT 1
5.2 Wind Range Correction (Fig. 4.5.2)
This graph is used for conversion of nautical ground miles to nautical air miles. (This is intended for usein conjunction with the 'integrated range' tables). Enter graph with average TAS. Correct for windcomponent. Move to ground distance at the right then vertically down to read corresponding air distance.For longer distances than shown on the graph apply a factor of 10 to the tabulated values.
Figure 4.5.2 WIND RANGE CORRECTION GRAPH
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CIVIL AVIATION AUTHORITYFUEL PLANNING
DATA SHEETMRJT 1
Figure 4.5.3.3 Mach 0.78 CruiseAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 30000Ft TAS 460 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 64200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-
INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.6 PERCENT PER 10 DEGREES C ABOVE ISA0.6 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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033-12307 A
CIVIL AVIATION AUTHORITYFUEL PLANNING
DATA SHEETMRJT 1
5.2 Wind Range Correction (Fig. 4.5.2)
This graph is used for conversion of nautical ground miles to nautical air miles. (This is intended for usein conjunction with the 'integrated range' tables). Enter graph with average TAS. Correct for windcomponent. Move to ground distance at the right then vertically down to read corresponding air distance.For longer distances than shown on the graph apply a factor of 10 to the tabulated values.
Figure 4.5.2 WIND RANGE CORRECTION GRAPH
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CIVIL AVIATION AUTHORITYFUEL PLANNING
DATA SHEETMRJT 1
Figure 4.5.3.4 LOW LEVEL CRUISE 300KIASAll Engines Maximum Cruise Thrust Limits A/C Auto
PRESSURE ALTITUDE 21000Ft TAS 406 Kts
NOTE - OPTIMUM WEIGHT FOR PRESSURE ALTITUDE IS 64200 KGTHRUST LIMITED WEIGHT FOR ISA + 10 AND COLDER EXCEEDS STRUCTURAL LIMITTHRUST LIMITED WEIGHT FOR ISA + 15THRUST LIMITED WEIGHT FOR ISA + 20
EXCEEDS STRUCTURAL LIMITEXCEEDS STRUCTURAL LIMIT
ADJUSTMENTS FOR OPERATION AT NON-STANDARD TEMPERATURES-INCREASE FUEL REQUIRED BYDECREASE FUEL REQUIRED BY
0.5 PERCENT PER 10 DEGREES C ABOVE ISA0.5 PERCENT PER 10 DEGREES C BELOW ISA
INCREASE TAS BY 1 KNOT PER DEGREE C ABOVE ISADECREASE TAS BY 1 KNOT PER DEGREE C BELOW ISA
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