MEP & Seneca Flashcards

1
Q

Definition of Critical Engine

A

The engine which causes the greatest yawing moment in case of failure

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2
Q

Conditions assumed for Vmca

A
  • Gear up
  • Inoperable engine windmilling
  • CoG at rearmost position
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3
Q

Reason for a minimum rpm for prop-feathering system

A

To prevent activation of anti-feathering latches

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4
Q

Engine control sequence for increasing power

A
  • Enrich mixture
  • Increase rpm
  • Advance throttle
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5
Q

V(a) definition

A

Design (maximum) manoeuvring speed

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6
Q

V(lo) definition

A

Maximum speed for operating the gear (can be different for up and down)

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7
Q

V(le) definition

A

Maximum speed for having the gear extended

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8
Q

V(2) - TOSS definition

A

Lowest speed at which an AVERAGE PILOT can maintain control with take-off configuration and power and engine failure of critical engine.

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9
Q

Fuel and oil levels at BEM

A

Unusable fuel in tanks, no useable fuel
Full oil

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10
Q

Effect on critical speed of a forward moving CoG (e.g. due to fuel burn off)

A

It decreases (good thing)

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11
Q

Immediate actions after engine failure

A

Use rudder to prevent yaw
Use ailerons to level the wings

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12
Q

Effect of alternator loss in multi-engine aircraft

A

Can power essential services but may need to load shed

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13
Q

Maximum bank and resulting balance when using aileron with an engine failure

A

5 degrees AoB
Ball slightly towards the live engine

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14
Q

Asymmetric blade effect

A

Descending propeller travels further than the ascending blade thus generating more thrust when descending.
High pitch during engine failure exacerbates this.

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15
Q

Seneca prop rotation directions

A

Counter rotating (clockwise on left, counter-clockwise on right)

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16
Q

Seneca fuel capacity (US gallons)

A

98 US gallons
93 US gallons useable

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17
Q

Seneca oil capacity

A

8 quarts

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18
Q

Seneca MTOW and MLW

A

MTOW: 4200lb
MLW: 4000lb

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19
Q

Seneca tire pressures

A

Nose: 31psi
Main: 50psi

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20
Q

Seneca engine horsepower

A

200hp

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21
Q

Seneca engines

A

LIO-360-C1E6

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22
Q

Seneca stall warner system

A

Two detectors on left wing:
- Inboard for flaps @ 20 & 40 degrees
- Outboard for other flap positions

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23
Q

Seneca baggage capacity

A

100lbs in nose
100lbs in rear behind seats

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24
Q

Seneca maximum load factor

A

3.8g

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25
Seneca V(lo) (up and down)
Up - 107kt Down - 129kt
26
Seneca max crosswind
13kt
27
Seneca V(fe)
107kt [landing flap] 10 deg - 137kt 25 deg - 120kt
28
Seneca fuel pressure range
14 to 35 psi
29
Seneca cylinder head temp range
200 to 475 deg F
30
Seneca rpm range
500 to 2700rpm
31
Seneca rpm avoid continuous red range
2200 to 2400rpm
32
Seneca fuel tanks
2 interconnected tanks in each wing, each filled from a single point
33
Seneca gear horn operation
- Gear lever up whilst on the ground - Gear lever up with MP < 14"
34
Feathering lock activation speed
800 rpm
35
Location of hydraulic reservoirs (brakes & gear)
Behind panels in the nose baggage compartment
36
Adverse yaw in seneca
Linkage between ailerons and rudder coordinates and reduces adverse yaw
37
V(mca)
68kt
38
V(2) - TOSS
77kt
39
V(r)
80kt
40
Our climb speed (dual engine)
100kt
41
V(x)
78kt
42
V(y)
91.5kt
43
V(xse)
82kt
44
V(yse)
89kt
45
Seneca cruise speed
130kt
46
Single engine cruise speed
105kt
47
Go-around speeds - dual and single engine
Dual engine - 100kt Single engine - 90kt
48
V(a)
125kt (at max weight, down to 114kt @ low weight)
49
V(no)
165kt
50
V(ne)
189kt
51
V(S0)
58kt
52
V(S1)
64kt
53
Fuel to "wet bottoms"
190l
54
Our standard fuel fill level
Wet bottoms (190l) plus 40l each side. Total 270l
55
Fuel burn rate (l/hr)
70l/hr
56
Manifold settings for stalls
16" to configure (gear, flaps) 12" to stall
57
ACA
Asymmetric Commitment Altitude 250ft + threshold elevation @ stapleford [21 - 370ft+, 3 - 430ft+]
58
What happens to prop if oil pressure is lost?
Will head to coarse. Feather lock will activate as rpm degrades
59
Seneca electrical system voltage
14v dc
60
Mag drop for initial checks
100-300rpm
61
Purpose of initial mag drop checks
Checking for rough running engine
62
Max time to run starter
30 seconds
63
Oil type for running in engine
Non-detergent
64
Target speed after engine failure (V speed)
V(YSE)
65
Renewal period for MEP rating
90 days before expiry (12 months)
66
Major source of drag with engine failure - e.g. flaps, gear, windmilling prop, feathered prop?
Windmilling prop
67
MEP requirements to revalidate
10 sectors Skill test Every 12 months