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Take off, climb and cruise

This guide will explain the correct procedures to accomplish take off, climb and establish cruise altitude.

MSFS start from gate or runways

Microsoft Flight Simulator allows you to start your flight from cold & dark at a gate or directly from the runway with the aircraft ready for takeoff.

For this guide we assume you started cold & dark at the gate and taxied to the runway holding point.

If you did start on the runway you can skip the first part (Line-up) and directly continue reading Takeoff.

Pre-requisites

  • Aircraft is in taxi state (checklist TAXI completed)
  • Aircraft is at runway holding point, parking breaks are set

Possible Checklist Download or screenshot of before start items

Chapters / Phases

This guide will cover these phases:

  1. Lineup
  2. Takeoff
  3. Initial climb
  4. Climb
  5. Cruise

Note

The level of detail in this guide is meant to get a beginner safely up in the air under normal conditions while simplifying details which are not (yet) important for a beginner. Further reading:
A320 Autoflight

Base knowledge about the Airbus A320 for flight

This is in comparison to other airliners a user might be used to.

  • Fly-by-wire system.
    Traditional mechanical and hydro-mechanical flight control systems use a series of levers, rods, cables, pulleys, and more which pilots move to adjust control surfaces to aerodynamic conditions. Their "hands on" design gives pilots a direct, tactile feel for how the aircraft is handling aerodynamic forces as they fly. On the other hand, mechanical systems are also complicated to operate, need constant monitoring, are heavy and bulky, and require frequent maintenance.

    In fly-by-wire systems when the pilot moves flight controls, those movements are converted into electronic signals, which are then interpreted by the aircraft's Electrical Flight Control System (EFCS) to adjust actuators that move flight control surfaces. Computers also monitor sensors throughout the aircraft to make automatic adjustments that enhance the flight.

    Because fly-by-wire is electronic, it is much lighter and less bulky than mechanical controls, allowing increases in fuel efficiency and aircraft design flexibility, even in legacy aircraft. And to prevent flight critical failure, most fly-by-wire systems also have triple or quadruple redundancy back-ups built into them. source: BAE Systems

    See also: Fly-by-wire Wikipedia

  • Autotrim
    The A320 has a feature called "Autotrim", which makes it unnecessary to hold the stick or even use the trim wheel for holding current pitch. This system is always active, even when the autopilot is off (in Normal Law).

  • Autothrust
    The A320 has Autothrust which is similar to Autothrottle (e.g., in a Boeing), but it does not move the thrust levers. Basically the thrust levers are only moved by the pilot and stay there until moved. The thrust levers act as a maximum allowed power setting for the autothrust system. During normal flight (after take off) the levers stays in the CL climb) dedent, and the Autothrust system will set engine power accordingly.

  • Autopilot
    The A320's Autopilot system works a bit differently from other manufacturer's systems. The A320 FCU controls allows to set certain values and then push or pull the knobs. Pushing usually means automatic control( managed mode) and pulling will use the manually selected value (selected mode).

    image_1

    Note

    In Microsoft Flight Simulator pushing is clicking the knob "UP" and pulling is clicking the knob "DOWN" image_2

  • Flight phases
    The A320 uses flight phases to manage different parts of a flight. These are preflight, take off, climb, cruise, descent, approach, go around, done. They match the PERF pages in the MCDU (see Preparing the MCDU ).

  • Protections
    The A320 includes many protections for the pilot which make it nearly impossible to stall or overspeed the aircraft. It's beyond this beginner-guide to go into details (Normal law, Alternate Law, ...)

1. Lineup

Situation: ATC (Ground or Tower) has instructed us to hold at runway holding point and wait until we are cleared to "line up" or "take off". Aircraft is still in TAXI state and parking brakes are set.

Holding

Typically, it is latest here that we are asked to switch to Tower ATC frequency for take off clearance.

Preparation and checklist pre-clearance

While approaching the runway holding point or latest at runway holding point the "Before take off checklist" needs to be completed.

The following steps from TAXI setup need to be done and checked:

  • Check OVHD panel: APU off, no lights under normal circumstances
    (exception: evtl. Pack 1+2 OFF)

    • image

  • Check Flight Controls

  • Check Flight Instruments

    • CockpitTOReady

  • Check correct FLAPS setting (must be in line with PERF TAKE OFF page)

  • Check V1, VR, V2 speeds and also, if required, FLX temperature setting (PERF page)

  • Check Squawk

    • check squawk ID number
    • Set to AUTO or On
    • Set ALT RPTG to ON

  • Check TCAS

    • Set to TA or TA/TR and traffic to All or ABV)
    • ATC-TCAS

  • Check COM frequency

    • tip: set the second frequency to the Departure frequency to be able to quickly change after take off

  • Check ECAM - no blue writing must be visible

    • AUTO BRK MAX
    • SIGN ON
    • CABIN READY
    • SPLRS ARM
    • FLAPS TO
    • TO CONFIG NORMAL
    • ECAM

  • Press T.O.Config below ECAM to check take off configuration (last blue text "TEST" should disappear)

  • Check ENG MODE SEL as required

  • Check PACKS as required (some airlines start with Packs off to allow more power to thrust and save fuel - not necessarily required)

You can/should also do the following steps:

  • Set Weather Radar to Sys 1 to show weather on ND
    • Radar

Preparation post-clearance

After ATC (Tower) gives clearance to "line up" or "take off" we are allowed the runway.

"Line up" means that we roll onto the runway and stop at or starting point. We MUST wait for ATC to give us "take off clearance" before we can continue.

"Cleared for take off" means we are allowed to actually start the take off.

Before we start rolling onto the runway we do the following steps:

  • Turn on landing lights and check of Strobe is AUTO or ON landing_lights

Entering runway

Before we start rolling we visually double-check that no other aircraft is on final approach. We can also use TCAS on the ND to check for aircrafts in the vicinity.

If everything is clear we release the parking brake and slowly roll onto the runway in the direction of take off and come to s stop in the middle of the runway in line with the middle runway line.

There is also a "running start" where we would not stop but directly apply thrust for take off once we are straight on the runway. But as a beginner a stop is recommended, so you can double-check everything.

image

When we reached our starting point we stop and set the parking brakes.

If we were only cleared for "line up" we wait here until we get clearance.

2. Take off

Situation: Aircraft is on runway and fully setup for take off.

After ATC has given clearance for take off we can actually start our roll.

A typical standard take off follows these steps:

Release parking brake and hold down brakes.

Apply thrust slowly to about 50% thrust until both engines are stabilized (N1 stays constant at around 50%) while still holding the brakes.

Push Sidestick forward to about -10° on the PFD to put pressure on the front gear

thrust-brake-forward-pressure

Release brake and apply FLX/MCT or TO GA power

(depending if have configured a FLEX temperature, and the runway is long enough for a FLEX start)

Takeoff_thrust

The PFD Flight Mode Annunciator (FMA) now shows several things which you should check when aircrafts starts rolling:

FMA_to_thrust

From the left:

  • Thurst: set to MAN FLX +60
  • Vertical guidance:
    • Active (green): SRS (pitch guidance to maintain V2+10)
    • Armed (blue): CLB mode (is next after SRS is done)
  • Lateral guidance:
    • Active: RWY (automatic runway axis follow up through ILS use)
    • Armed: NAV (navigation guidance according to HDG knob)
  • Autopilot, Flight Director, Autothrust:
    • Autopilots are off
    • Flight Director 1 and 2 are ON
    • A/THR (Autothrust) is armed (not active yet)

Vertical and lateral guidance are only shown via Flight Director as we have not turned on the Autopilot yet and need to be followed manually by the pilot.

flight_director_guidance

Keep the aircraft on the center line while accelerating down the runway.

Note

There are three important speeds for take off which you have configured earlier when programming the MCDU's PERF page for take off.

V1: The speed beyond which takeoff should no longer be aborted.

VR: Rotation speed. The speed at which the pilot begins to apply control inputs to cause the aircraft nose to pitch up, after which it will leave the ground

V2: Takeoff safety speed. The speed at which the aircraft may safely climb with one engine inoperative

On a long enough runway V1 and VR are often very close together and can't be clearly distinguished on the PFD speed tape.

At about 80 knots release the forward pressure on the sidestick until about 100 knots when the sidestick should be neutral.

When reaching V1 remove your hand from the thrust levers.

At VR pull gently back on the Sidestick and try to get a 10-15° climb angle. Use the green horizontal flight director line as reference.

V1

Once we have confirmed "positive climb" we can retract the gear

Positve_climb. gearup

We confirm that the landing gear is up by looking at the landing gear annunciators, and the lower ECAM Wheels page.

ldg_gear_annun image

Now we turn off TAXI and RWY TURN OFF lights. We do this as they are sitting on the front gear and are now within the gear housing getting hot.

landing_lights_gear_up

Last step of this part is disarming the SPEED BRAKE.

3. Initial Climb

Situation: Aircraft has left ground and is climbing at about 15°. Gear is up. Thrust levers are in FLX MCT or TO GA detent. Flaps still in T.O. position.

After take off the aircraft will use FLX/MCT or TO GA thrust until thrust reduction altitude is reached (typically ~1500ft above runway).

The PFD FMA now shows a flashing LVR CLB message which instructs the pilot to reduce thrust to CLB thrust.

Pull the throttle back into the CL detent.

lvr_clb

This activates the Autothrust system (FMA shows A/THR in white now). In the A320 (and most Airbus models) under normal flight conditions you will not touch the thrust levers again before final approach and landing.

The aircraft will now climb to the altitude selected in the FCU (in our case 5.000ft).

Activate Autopilot at this point by pressing the AP1 button on the FCU.

AP1

The FMA should now show AP1 in white in the upper right corner,

Note

The FCU (Flight Control Unit) shows three important values: SPD: --- : means the autopilot is managing speed (e.g. 250knots <1000ft, 290 above) If you pull the SPD knob you can select a speed which the autopilot will then apply. HDG: --- : means the lateral navigation is in managed mode and the autopilot follows the route. Dialing the HDG knob let you select a heading and by pulling the knob you tell the autopilot to fly this heading. ALT: 5000 : means the selected altitude is 5000ft

When reaching VS speed retract flaps (assuming we took off with FLAPS 1). VS speed is signified with an S next to the speed band in the PFD.

S_speed

Complete "After Take Off checklist"

  • Landing gear up
  • Flaps retracted
  • Packs on
  • check Baro setting: above transition altitude set it to STD by pulling the baro knob. The flashing baro value in the PFD will remind you in case you forgot.

This is usually a good time to contact ATC Departure with your current altitude. In most cases they would now give you a higher climb altitude. If not you have to level off at the selected altitude. If you have the Autopilot activated it will level off automatically.

This concludes the Initial Climb.

4. Climb

Situation:

5. Cruise

Situation:

Last update: June 24, 2021