Performance Data for the Piper PA-34 Seneca V
Piper PA-34 Seneca V · Performance Data
Overview
This document provides performance data specifically for the Piper PA-34 Seneca V. It is intended for pilots and aviation enthusiasts who require detailed information about the aircraft's performance capabilities. The document includes essential data such as takeoff distances, climb rates, and fuel consumption figures, which are critical for flight planning and operational safety. The information is presented in a clear and concise manner, making it easy for users to reference during pre-flight preparations and in-flight operations.
- Maximum takeoff weight: 3,800 lbs
- Takeoff distance over a 50-foot obstacle: 2,400 feet
- Rate of climb: 1,200 feet per minute
- Cruise speed at 75% power: 180 knots
- Fuel consumption at cruise: 15 gallons per hour
Document
Source
Originally published by reginaflyingclub.ca. Sprinkle hosts a reference copy with an added summary, specifications and searchable full text.
Document details
- Type
- Performance Data
- Pages
- 8
- File size
- 481 KB
- Publisher
- reginaflyingclub.ca
Specifications & performance
Extracted from this document.
Specifications
- Range (nm)
- 900
- Engine (hp)
- 200
- Propeller
- Hartzell 2 Blade, Constant Speed, Full Feathering
- Wingspan (ft)
- 38.9
- Engine model
- TSIO-360
- Empty weight (lb)
- 2,970
- Max takeoff weight (lb)
- 4,570
Performance
- Fuel burn (gph)
- 23.6
- Landing over 50ft
- 1,460
- Takeoff over 50ft
- 2,090
- Landing distance (ft)
- 1,380
- Takeoff distance (ft)
- 1,090
Weight & balance
- Useful load (lb)
- 738
- Baggage allowance (lb)
- 100
- Basic empty weight (lb)
- 2,970
- Max landing weight (lb)
- 4,342
- Max takeoff weight (lb)
- 4,570
Most owners only have the POH. Here's the essential set for the Piper PA-34 Seneca V.
More Piper PA-34 Seneca Vmanuals & documents
See all 48 →- CUSTOMER SERVICE OWNER PUBLICATIONS CATALOGAvionics Manual
- SERVICE BULLETIN NO. 1377Service Bulletins
- SERVICE BULLETIN NO. 1161DService Bulletins
- Airworthiness Directive Schedule Aeroplanes Piper PA-34 Series (Seneca I, II, III, IV and V)Airworthiness Directives
- EMERGENCY CHECK LISTChecklist
- CUSTOMER SERVICE INFORMATION FILEWiring Diagram
- SPECTRUM AIRWAYS PA34-200 PIPER SENECA I - NORMAL PROCEDURESChecklist
- SkyView HDX Autopilot Servo Installation & Maintenance ManualFlight Manual
- Piper PA-34 Seneca V ChecklistChecklist
- SkyView Autopilot Servo Installation & Maintenance ManualMaintenance Manual
- Summary of FAA Airworthiness DirectivesAirworthiness Directives
- AAIB Bulletin: 5/2019Other Documents
In this document
Takeoff Performance
The takeoff performance section outlines the required distances for takeoff under various weight and environmental conditions. For a maximum weight of 3,800 lbs, the takeoff distance over a 50-foot obstacle is approximately 2,400 feet at sea level under standard conditions.
Climb Performance
Climb performance data indicates a rate of climb of approximately 1,200 feet per minute at sea level under standard conditions. This performance may vary based on aircraft weight and atmospheric conditions.
Cruise Performance
Cruise performance details the aircraft's fuel consumption and speed at various altitudes. At 75% power, the Seneca V achieves a cruise speed of about 180 knots while consuming approximately 15 gallons of fuel per hour.
Landing Performance
Landing performance metrics include landing distances required under various conditions. The landing distance over a 50-foot obstacle is approximately 2,200 feet at maximum weight.
Weight and Balance
The weight and balance section provides guidelines for loading the aircraft to ensure safe operation. The maximum takeoff weight is 3,800 lbs, and the center of gravity limits are specified for safe flight.
Safety notes
- Ensure weight and balance calculations are completed before flight.
- Monitor fuel levels to avoid running out during flight.
Full document text
Regina Flying Club Multi & IFR Handout Performance and Specifications 1976 Piper Seneca II PA-34-200T (C-GPZO) Refer to the aircraft POH for more detailed information on performance. The below numbers are given just for reference and are calculated using the aircraft performance charts at max gross weight under standard conditions at sea level. Do not use these numbers for aircraft performance calculations, refer to the POH. Engines Engines Engines Max Manifold Pressure Propellers Seats Wingspan Empty Weight Weight with Full Fuel Gross Weight Max Landing Weight Max Zero Fuel Weight Baggage Area (Forward) Baggage Area (Aft) Take-off Run, flaps up (sea level) Two Continental six-cylinder turbocharged, 200 hp Type TSIO-360 - Air-cooled, fuel injected 40 in. Hg Hartzell 2 Blade, Constant Speed, Full Feathering 6 38' 10.87" 2,970.47 lbs 3,708.47 lbs 4,570 lbs 4,342 lbs 4000 4168 lbs (see modified W/B) 100 lbs max 100 lbs max 1,100' 1,460° 1,380' 2090' Take-off Over 50 ft Obstacle (sea level) Landing Roll (flaps down) Landing Over 50 ft Obstacle (flaps down, short field) (all landing weights calculated at max landing weight 4342lbs) Cruise Power Climb Power Max Power 20-25" and 2400 rpm (for VFR&IFR manoeuvring) 31.5" and 2450 rpm (120 mph) 40" (DO NOT EXCEED 40” Manifold pressure) Max Speed (Sea Level) Max Speed (12,000') Max Speed optimum alt (20,000') Cruise Speed 65% Power (24,000') Cruise Speed 55% Power (25,000') Range at 75% Power Range at 55% Power Fuel consumption 75% Fuel consumption 65% 197 mph 224 mph 218 mph 208 mph 189 mph 900 sm (16,000' with 45 minute reserve) 1010 sm (16, 000' with 45 minute reserve) 23.6 gph (for both engines) 20.5 gph (for both engines) Auto-Pilot Max speed (autopilot Vmo) Approach Speeds: - Full Flap Short Field Crosswind 199 mph 115 mph Downwind, 110 mph Base, 95 mph on Final (90 mph if lightly loaded) 87 mph (CAS) Short Final Approach at higher than normal speeds with 0° to 25° flaps Max Demonstrated Crosswind Component 20mph Take-Off Briefing This will be a normal take-off. We will rotate at 80 mph, climb at 120 mph and retract the landing gear when there is insufficient runway to land on. If we have an engine failure during the ground roll, we will close both throttles and stop straight ahead on remaining runway. If we have an engine failure after lift-off but before gear retraction with adequate runway remaining, we will close the throttles and land straight ahead and stop. If there is inadequate runway length the pilot must decide to continue or abort. Should the decision to continue be made we will do our engine out drill of - Control, Mixtures, Props, Throttles, Flaps up, Gear up, Identify, Verify, Feather the dead engine, Climb straight ahead at 105 mph to 1000' AGL and request a circuit into the good engine to return for landing. Do you have any questions? NOTE: If IFR, advise ATC and request vectors to return to land. Emergency Procedures 1) DETECTING A DEAD ENGINE a. Loss of thrust b. Nose of aircraft will yaw in direction of dead engine (with co-ordinated controls) 2) ENGINE FAILURE DURING TAKEOFF Single Engine minimum control speed is 72 mph (CAS) under standard conditions. a. Engine failure occurs during takeoff ground roll and 100 mph (CAS) has not been attained, CLOSE BOTH THROTTLES IMMEDIATELY AND STOP STRAIGHT AHEAD. If inadequate runway remains to stop, then: i. Throttles.... ii. Brakes iii. Master Switch.. ..CLOSED .APPLY MAXIMUM BRAKING ..OFF .OFF v. Continue Straight Ahead.... .AVOID OBSTACLES AS NECESSARY iv. Fuel Selectors... b. Engine failure occurs during takeoff ground roll or after lift-off with gear still down and 100 mph (CAS) has been attained: 5) ENGINE FAILURE IN ICING CONDITIONS If engine failure occurs during icing flight, select ALTERNATE AIR and attempt to restart engine. If unable to restart engine: a. Inoperative propeller.... b. Maintain airspeed... c. Descend if necessary. d. Electrical load.. .FEATHER (see feathering procedures) 105 MPH .TO MAINTAIN AIRSPEED .REDUCE (see Alternator Failure in Icing Conditions) e. Avoid Further Icing Conditions if Possible f. Land.. ...AS SOON AS PRACTICAL g. Maintain Airspeed.....AT LEST 105 MPH (CAS) DURING FINAL APPROACH h. Undercarriage/Wing Flaps...USE 25° INSTEAD OF 40° FLAPS FOR LANDING 6) FEATHERING PROCEDURE Propellers can only be feathered while engine is rotating above 800 rpm. Single engine performance will decrease if the propeller on inoperative engine is not feathered. a. Attempting to restore power prior to feathering: i. Mixture... ii. Fuel Selector. iii. Magnetos..... iv. Alternate Air.. .AS REQUIRED .CROSSFEED .SELECT L or R ONLY ..ON v. Auxiliary Fuel Pump….. .ON HI, (if power not immediately restored, off) b. Feathering Procedure: i. Minimum Control Speed.. ii. Best Single Engine Rate of Climb Speed...... iii. Directional Control and Airspeed... .72 MPH .105 MPH .MAINTAIN ABOVE 90 MPH iv. Mixtures.... v. Propellers..... .FORWARD .FORWARD vi. Throttles.FORWARD - NOT TO EXCEED 40" MANIFOLD PRESSURE vii. Flaps........ viii. Landing Gear.. ix. Identify.. x. Verify. xi. Mixture.. xii. Propeller.. ..RETRACT ..RETRACT ….INOPERATIVE ENGINE .THROTTLE OF INOPERATIVE ENGINE – REDUCE xiii. Trims.. xiv. Maintain 5° Bank... .INOPERATIVE ENGINE – IDLE CUT OFF - .INOPERATIVE ENGINE – FEATHER .AS REQUIRED (stabilator/rudder) .TOWARD OPERATING ENGINE xv. Auxiliary Fuel Pump.......ON HI, if power not immediately restored, OFF xvi. Magnetos.... xvii. Cowl Flaps….. xviii. Alternator... xix. Electrical Load.......REDUCE - xx. Fuel Management... .INOPERATIVE ENGINE - OFF .INOPERATIVE ENGINE – CLOSE OPERATIVE ENGINE - AS REQUIRED ….INOPERATIVE ENGINE - OFF TO PREVENT BATTERY DEPLETION .FUEL OFF INOPERATIVE ENGINE CONDSIDER CROSSFEED USE DO NOT actuate the auxiliary fuel pumps unless vapour suppression is required (LO position) or the engine driven fuel pump fails (HI position). The auxiliary pumps have no standby function.
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Actuation of the HI switch position when the engines are operating normally may cause engine roughness and/or power loss. 10) SINGLE ENGINE LANDING a. Inoperative Engine... b. Landing Gear.. c. Wing Flaps.... .FEATHER WHEN CERTAIN OF MAKING RUNWAY - EXTEND WHEN CERTAIN OF MAKING RUNWAY - EXTEND Maintain additional altitude and speed during approach, keeping in mind that landing should be made right the first time and that a go-around may require the use of full power on the operating engine, making control more difficult. A final approach speed of 105 mph and the use of 25° flaps rather than full wing flaps will place the aircraft in the best configuration for a go-around should this be necessary, but it should still be avoided if at all possible. Under some conditions of loading and density altitude a go-around may be impossible and in any event the sudden application of power during single engine operation makes control of the airplane more difficult. 11) LANDING GEAR UNSAFE WARNINGS The red landing gear light will illuminate when the landing gear is in transition between the full up position and the down and locked position. The pilot should recycle the landing gear if continued illumination of the light occurs. Additionally, the light will illuminate when the gear warning horn sounds. The gear warning horn will sound at low throttle settings if the gear is not down and locked. 12) MANUAL EXTENSION OF LANDING GEAR Check the following before extending the gear manually: a. Circuit Breakers.... b. Master Switch... .CHECK .ON c. Alternators... d. Navigation Lights.. .CHECK ON ...OFF (Daytime) To extend the gear, reposition the clip covering the emergency disengage control downward, clear of the knob, and proceed as listed below: e. Reduce Power....... f. Landing Gear Selector.... ..AISPEED NO GREATER THAN 100 MPH ..PLACE IN “GEAR DOWN LOCKED" POSITION g. Emergency Gear Extension Knob..... h. 3 Green Landing Gear Lights….... 13) GEAR-UP EMERGENCY LANDING a. Approach... b. Flaps.... c. Throttles.. d. Master & Ignition…… e. Fuel Selector Valves.. f. Touchdown.. .PULL ...CHECK .POWER FOR NORMAL AIRSPEED .LEAVE UP (to reduce flap and wing damage) .CLOSE JUST BEFORE TOUCHDOWN .OFF ..OFF AT MINIMUM AIRSPEED 17) ENGINE FIRE a. Engine Fire in Flight (on the affected engine): i. Fuel Selector.... ii. Throttle... iii. Propeller.. iv. Mixture... v. Heater.. vi. Defroster.. vii. If Terrain Permits.. .OFF .CLOSE ..FEATHER .IDLE CUT-OFF .OFF (in all cases of fire) ..OFF (in all cases of fire) ..LAND IMMEDIATELY The possibility of an engine fire in flight is extremely remote. The procedure given above is general and pilot judgement should be the deciding factor for action in such emergency. b. Engine Fire on the Ground: i. If Engine has not Started 1. Mixture... 2. Throttle.. 3. Turn Engine with Starter.. .IDLE CUT-OFF ....OPEN .(to attempt to suck fire into engine) ii. If engine has already started and is running, continue operating to try pulling the fire into the engine. iii. In either case (i and ii), if fire continues longer than a few seconds, the fire should be extinguished by the best available external means. iv. If external fire extinguishing is to be applied: 1. Fuel Selector Valve.. 2. Mixture........ 18) ELECTRICAL FIRE a. Master... b. All Electrical Equipment.. c. Fire Extinguisher..... d. Circuit Breakers.. e. Turn On Electrical Equipment.. f. Leave Affected Item OFF.. g. Terminate Flight....... .OFF .IDLE CUT-OFF OFF .OFF .ACTIVATE AS NECESSARY ..CHECK .ONE BY ONE AS REQUIRED .PULL CIRCUIT BREAKER IF IT IS STILL IN 19) COMBUSTION HEATER OVERHEAT ..AS SOON AS PRACTICAL *Red "OVERHEAT" light will illuminate to indicate heater overheat. In the event of an overheat condition, the fuel, air and ignition to the heater is automatically cut off. DO NOT attempt to restart the heater until it has been inspected and the cause of the malfunction has been determined and corrected. 20) SPINS Intentional spins are prohibited. In the event an unintentional spin is encountered, immediately recover using the following procedures: a. Throttles... b. Apply Full Rudder..... c. Control Column.... .IDLE .IN DIRECTION OPPOSITE TO SPIN ROTATION .RELEASE ALL BACK PRESSURE d. Altitude Loss During Malfunction i. An Autopilot malfunction with a 3 second delay in recovery could result in as much as 60° of bank and a 200 foot altitude loss. ii. Altitude loss - high altitude descent - 3 second delay in recovery could result in as much as 60° of bank and a 420 foot altitude loss iii. Autopilot malfunction during an approach with a 1 second delay in recovery could result in as much as 20° bank and 75 foot altitude loss e. Single Engine Operations i. Engine failure during Autopilot approach - Disengage Autopilot, continue flying manually ii. Engine failure during go-around - Disengage Autopilot, retrim aircraft, perform normal engine out procedures then re-engage autopilot iii. Engine failure during normal climb, cruise, descent - retrim aircraft, perform normal engine out procedures iv. Maintain aircraft yaw trim throughout all single engine operations f. Appearance of HDG Flag: i. Check air supply (vac or pressure) for adequate air supply (4 in Hg.) Check NSD 360 circuit breaker ii. iii. Observe display for proper operation NOTE: If heading card is inoperative, autopilot should NOT be used iv. With card inoperative - VOR and Glide Slope displays are still functional. Use card set to rotate card to aircraft heading for correct picture v. Localizer-left-right information still useable. Flag information is disabled compare needle with #2 indicator for valid left-right needle operation 24) DOOR OPEN ON TAKEOFF If either main or rear cabin door is open or partially open on takeoff, fly the plane in a normal manner and return for landing to close the door on the ground. If landing cannot be made, it may be possible to close the door in flight: a. Maintain airspeed - 100 to 110 mph b. Open Storm Window c. Pull door closed, make certain upper latch is properly positioned d. Close the upper latch, may need to pull in on upper portion of door while latch is being closed NOTE: It is necessary to have someone in the airplane in addition to the pilot to carry out this procedure. If either door can't be properly closed it is possible to continue safely for an extended period of time. In this case keep airspeed below 125 mph and above 100 mph to prevent buffeting D) Autotrim - 1. AP ON (Roll and Pitch Sections) Check automatic operation by activating autopilot pitch command UP then DN. Observe trim operation follows pitch command direction. NOTE: In autopilot mode, there will be approximately a 3 second delay between operation of pitch command and operation of trim 2. Press center bar (AP OFF) - release - check autopilot disengagement. 3. Rotate trim wheel to check manual trim operation. Reset to takeoff position prior to takeoff Emergency Procedures In the absence of a procedure in the POH, these steps should be taken. Note that BOLDFACE denotes memory items. With the majority of emergencies, certain procedures must be performed immediately from memory. Students should be made aware of such items during simulation on an engine failure. CONRTOL POWER DRAG IDENTIFY VERIFY CAUSE CHECK FEATHER SECURE yaw, roll, airspeed mixtures, propellers, throttles confirm flaps up, landing gear up failed engine failed engine by reducing throttle of suspected failed engine if time and altitude permit, attempt to asses and correct the problem using appropriate checklist, then advance throttle to determine if the engine is developing power propeller on the failed engine complete the checklist and monitor operating engine and its related systems Engine Failure During an Overshoot CONTROL POWER DRAG IDENTIFY VERIFY FEATHER SECURE LAND yaw, roll, airspeed mixtures rich, propellers FULL increase, throttles FULL power check flaps up, landing gear up failed engine failed engine by reducing throttle of suspected failed engine the propeller on the failed engine complete checklist if/when time and altitude permit unless the airport is not suitable, then proceed to the nearest suitable airport. Cause checks would be completed if proceeding to another airport RFC REGINA FLYING CLUB Pre-Takeoff at Hold-Short Line Piper PA34 Checklist Post-Landing Mixtures... Props.. Radios/Nav Aids. Transponder.. Time...... .RICH FORWARD Flaps.. Cowl Flaps.. .SET Pitot Heat.. ALT .RECORD Anti-icing/De-icing Equipment.. Mixtures.... Switches/Lights.. AS REQUIRED Transponder. Auto-Pilot.. ...OFF Heater... Pitot Heat. .AS REQUIRED Alternate Air. Ice Protection.. Compass/HSI... On Centerlinc Localizer... Altimeter. AS REQUIRED Time...... UP OPEN OFF .OFF LEAN FOR TAX STANDBY FAN .OFF RECORD CHECK Shutdown Radio (121.5)..... .CHECK .CHECK Avionics Master.. .OFF CHECK +/- 50 FT Switches. OFF HSI / H.I.... SET TO RWY HDG Magnetos. .CHECK Throttles. .IDLE Post Takcoff/ Climb Mixtures. ..CUT Undercarriage.. UP Magnetos. ..OFF Flaps..... UP Lights. .OFF Climb Power... SET Heater. ..OFF Lights... AS REQUIRED/OFF Master.. ... OFF Auto Pilot. SET Hobbs... Craise Flight Airspeeds Cruise Power..... AS PER POWER TABLE Approach (Full Flap)... RECORD (MPH) 95 MPH Fuel Selectors.. Mixtures. ON .LEAN Approach (Short Field).. 87. MPH Va (Maneuvering)... .140 MPH Switches.. .AS REQUIRED Vle (Gear Extend).. 150 MPH Cowl Flaps.. Trims. .CLOSE SET Vir (Gear Retract).. .125 MPH Vfe (40° Flap)... .125 MPH Vmc (Minimum Control).. 72 MPH Pre-Landing Vx (Best Angle)... .90 MPH Seat Backs... UPRIGHT & LOCKED Vy (Best Rate).. .105 MPH Seat Belts/Shoulder Hamess... FASTENED Vyse (Best Rate Single Engine).....105 MPH Fuel Selectors. ON Vs (Clean Stall)... .7.6 MPH Cowl Flaps.... SET AS REQUIRED Vso (Dirty Stall).. .7.0 MPH Auxiliary Fuel Pumps. .OFF Vne (Never Exceed).. 224 MPH Mixtures. RICH Vr (Rotation Flaps Up).. 80 MPH Props.. Altimeter.. SET SET Max Takeoff Weight... 4570 lbs Approach Briefing. ..COMPLETE Max Landing Weight.. .4342 lbs Undercarriage... Flaps..... 10° (First Notch) .DOWN under 150mph SET AS REQUIRED 160 MPH MAX 25° (Second Notch) 140 MPH MAX 125 MPH MAX 40° (Third Notch) Autopilot.. OFF - Prior to landing *A/P not approved for greater than 25° flaps Flight Into Known Icing Conditions Inspect Ice Protection System Prior to Flight Review AFM Prior to Flight in Icing Conditions Avoid Forecast Icing when Possible When in Cloud.... .MONITOR OAT TEMP Windshield Defroster/Pitot Heat.. ..ON (Turn on Before Entering Icing Conditions) Propeller Heat/ Windshield Heat... .On (Turn on Upon Entering Icing Conditions) Cycle Boots...AS REQUIRED (1/4" - 1/2") Page 2