How do I fly the Airbus A320 in Microsoft Flight Simulator?

To fly the Airbus A320 in Microsoft Flight Simulator, choose a short IFR route, verify it in the MCDU/FMS, use the correct thrust detents for take-off, and monitor the flight mode annunciator (FMA) as managed modes handle climb, cruise and descent. Arrive early, fully configured and stable; then hand-fly the landing or execute a go-around.

Which Microsoft Flight Simulator A320 should you use?

Choose the simplest A320 that provides the level of system detail you want to learn. The same Airbus principles apply in Microsoft Flight Simulator 2020 and 2024, but the installed aircraft package determines the exact MCDU pages, flight-plan import method, electronic flight bag and system behaviour.

Whichever version you use, the key controls are the FCU for tactical guidance, the MCDU for flight management, and the PFD's FMA for confirming active and armed modes. If those displays are unfamiliar, our labelled guide to the A320 controls and cockpit displays explains the FCU, MCDU, PFD, ND and ECAM.

For a first flight, use daylight, light wind, long runways and a route of roughly 100–200 nautical miles with an ILS at the destination. Start with the aircraft powered at a gate or on the runway; cold-and-dark operation is easier to learn after you can manage a complete flight.

How do you fly the Microsoft Flight Simulator A320 step by step?

The easiest training flight uses a verified IFR route, managed guidance for most of the trip and a stabilised ILS approach.

1. Plan a manageable sector. Select the departure runway, destination runway, cruise altitude and likely approach before programming the aircraft. Avoid a very short route that leaves no time between flap retraction and descent preparation.

2. Load and inspect the route. Build it through the simulator flight planner or the aircraft's supported import method, then inspect it in the MCDU. Confirm the runway, SID, en-route legs, STAR, transition and approach; our step-by-step A320 MCDU programming guide covers the full entry sequence.

3. Resolve route problems deliberately. Look for duplicate fixes, loops, impossible turns and F-PLN DISCONTINUITY entries. Do not automatically clear every discontinuity: one following a vectors or manual leg may be intentional and may require ATC vectors or a sensible direct-to instruction.

4. Enter the performance data. Depending on the aircraft, this may include zero-fuel weight and centre of gravity, block fuel, cost index, cruise level, take-off flap and trim, V1, VR, V2 and a FLEX temperature. Use figures calculated or supplied by the aircraft's supported performance system; do not invent V-speeds or a FLEX temperature.

5. Prepare the departure. Set the cleared initial altitude on the FCU, select the correct barometric setting, switch on the flight directors and configure flaps, trim, spoilers and take-off autobrake as modelled. Brief the first turn and altitude constraint so an unexpected departure does not become a last-second MCDU repair.

6. Taxi smoothly. Use only enough thrust to start rolling, then reduce it and control speed with light braking. Sudden steering, prolonged high thrust and heavy brake applications make the A320 unnecessarily difficult on the ground.

7. Use the Airbus thrust detents for take-off. Advance the levers to FLEX/MCT when you have valid FLEX data, or TOGA when full take-off thrust is required. Check the FMA for the expected take-off thrust and guidance modes, maintain the centreline, and rotate smoothly at VR rather than pulling sharply.

8. Clean up on schedule. Select gear up after a positive climb. At thrust-reduction altitude, move the thrust levers to CL when the aircraft displays the climb-lever prompt; at acceleration altitude, let the aircraft accelerate and retract flaps according to the F and S speed cues. Engage AP1 once the aircraft is stable if you want automation to handle the climb.

9. Confirm every mode change on the FMA. Managed NAV should follow the programmed route, while managed speed and CLB use the FMS targets and constraints. The selected FCU altitude remains your clearance limit: an FMS altitude constraint does not authorise the aircraft to climb through the altitude set on the panel.

10. Plan the descent before the arrival. Use the computed top-of-descent point when it is credible. As a cross-check, allow roughly 3 nautical miles per 1,000 feet of height to lose, plus distance for slowing; a descent from 30,000 feet therefore needs about 90 nautical miles before adding deceleration, wind and routing allowances.

11. Start down using the appropriate mode. Set the cleared lower altitude and push the altitude knob for managed DES when a valid vertical profile exists. Pulling it normally commands open descent, which is useful when you need a more direct descent without respecting the calculated profile. Speed brakes can correct a modest energy excess, but they cannot rescue a descent begun far too late.

12. Prepare the ILS early. Verify the landing runway, approach transition, ILS frequency or auto-tuning, identifier, course and minima where supported. Intercept the localiser from a sensible angle and the glideslope from below. Pressing APPR arms approach guidance; it does not lower the gear, extend the flaps or guarantee an autoland.

13. Configure in stages. Slow before extending each flap setting, respect the speed-tape limits, lower the gear in good time and use the approach speed calculated for that flight. Do not confuse activating the MCDU's approach phase, which changes the managed speed schedule, with pressing the FCU's APPR button, which arms approach capture.

14. Land or go around. Aim to be aligned, fully configured, on approach speed and making only small corrections by about 1,000 feet above the airfield. For a manual landing, disconnect the autopilot when established, keep the thrust levers in CL while autothrust controls speed, make a modest flare and move the levers to idle at the retard prompt. Use reverse thrust and braking as required after touchdown.

What does the FMS in an Airbus A320 do?

The Airbus A320 FMS stores the route and performance data used to calculate lateral guidance, managed speeds, altitude constraints, predictions and the vertical profile. Airbus commonly refers to the wider system as the FMGS; the MCDU is the cockpit interface through which you enter and review its data.

• Flight plan: departure runway, SID, en-route fixes, STAR, transition and approach.
• Performance: weights, fuel, cost index, cruise level, take-off speeds and approach data, depending on the simulated aircraft.
• Guidance: managed NAV, climb, descent and speed targets.
• Predictions: estimated times, fuel remaining, top of climb and top of descent.

The FMS cannot correct a contradictory route by itself. A mistake we see constantly is loading a plan through the Microsoft Flight Simulator World Map and never checking what actually reached the MCDU.

Can I use the World Map flight plan without programming the MCDU?

You can use the World Map to create the route, but you should still verify every leg in the aircraft. Import behaviour varies: some A320 models accept the plan directly, while more detailed add-ons may use their own flight-plan or EFB workflow.

At minimum, check the active departure, arrival, approach, cruise altitude and all discontinuities. If the simulator changes the runway or approach after loading, the MCDU may still contain the old procedure.

Do I need FSHud to fly the A320?

No; FSHud is an optional external ATC and traffic tool, not part of the Airbus A320 FMS and not required to fly the aircraft. It may issue runway, route, altitude and arrival instructions, but the MCDU and FCU still control how the aeroplane follows them.

If you use FSHud, verify that its route and runway agree with the aircraft's MCDU before departure. When it assigns a different STAR or approach, update and inspect the aircraft flight plan before arming APPR. Integration varies by simulator and A320 package, so never assume an automatically transferred plan is complete.

How do managed and selected A320 autopilot modes work?

On the usual Airbus FCU logic, pushing a knob generally asks the FMS for managed guidance, while pulling it commands the value selected on the panel. Mouse interaction and cockpit tooltips differ between A320 packages, but the underlying distinction remains the same.

The FMA at the top of the PFD is the source of truth. Read it after every significant FCU input: one column shows what is active now, while armed modes show what the aircraft expects to capture next.

Why is the A320 ignoring the flight plan?

An A320 usually stops following the magenta route because selected guidance is active, the route is broken, or the aircraft cannot intercept the programmed leg.

• Selected heading is active: if you pulled the heading knob, the aircraft is obeying HDG rather than NAV. Create a sensible intercept or use a suitable direct-to, then reselect managed navigation.
• The route contains a discontinuity: inspect both sides of the gap before clearing it. Do not join legs blindly if doing so would create a sharp turn or bypass an ATC-vector segment.
• The wrong procedure is loaded: duplicated fixes, loops around the airport and reversals often indicate a mismatched runway, STAR or transition.
• The aircraft is too far from the active leg: NAV may not capture a path behind the aircraft or one approached at an unsuitable angle. Use selected heading to establish an intercept or choose the next appropriate fix.
• The FCU altitude blocks the profile: managed climb and descent cannot pass the altitude selected on the panel. Set only the altitude you are cleared or intend to use.
• Managed descent has no valid path: a late descent, bad constraints or loss of lateral navigation can prevent DES from behaving as expected. Recover with selected modes and rebuild the arrival if necessary.
• Autothrust lacks the expected lever setting: after take-off, many A320 simulations require the levers in CL for normal autothrust operation. Poorly calibrated throttle detents can also make the lever indication flicker between modes.
• APP mode was armed from a bad position: an ILS generally needs the correct frequency and course, a reasonable localiser intercept and an approach from below the glideslope.
• The autopilot repeatedly disconnects: check for duplicate pitch or roll bindings, controller noise and inadequate dead zones. Sustained sidestick input can disconnect the autopilot.

What should you do if the A320 approach is unstable?

Go around if the aircraft is high, fast, not correctly configured or not aligned late on final. Continuing a poor approach usually produces a long float, runway overrun or hard last-second corrections.

Move the thrust levers to TOGA, confirm the expected go-around guidance on the FMA, follow the commanded pitch, select gear up after a positive climb and retract the flaps on schedule. Then follow the missed approach or ATC instructions and move the levers back to CL when prompted; our full A320 go-around sequence for flight simulators explains the mode changes and cleanup in detail.

When should you hand-fly the Microsoft Flight Simulator A320?

Hand-fly the take-off, initial climb and calm-weather landing while learning, then use the autopilot for the en-route portion and high-workload arrival. The A320 is designed around managed automation, so hand-flying the entire flight while programming the MCDU often creates avoidable overload.

Learn the aircraft in layers rather than attempting cold-and-dark startup, route entry, manual flight and a difficult arrival in one session:

1. Route and mode awareness. Make the aircraft follow a simple route and learn to read the FMA.

2. Take-off and climb. Practise the thrust detents, CL prompt, acceleration and flap retraction.

3. Descent management. Arrive at the correct altitude and speed without relying on speed brakes as an emergency fix.

4. ILS approach. Learn localiser and glideslope capture, approach phase, flap scheduling and stabilisation.

5. Manual landing and go-around. Add the flare and missed-approach decision once the rest of the flight is under control.

6. Cold-and-dark operation. Learn the full electrical, ADIRS, APU and engine-start sequence after you can complete the flight reliably.