4. Standard Operating Procedures (SOPs)
- 4.1 Cockpit Preparation
- 4.2 Engine Start
- 4.3 Taxi
- 4.4 Takeoff
- 4.5 Climb
- 4.6 Cruise
- 4.7 Descent
- 4.8 Approach
- 4.9 Landing
- 4.10 Taxi & Shutdown
4.1 Cockpit Preparation
Objective
To ensure the aircraft is correctly configured, powered, and programmed prior to engine start.
Crew Concept
- PF (Pilot Flying):
- Reviews flight plan
- Performs MCDU setup
- Cross-checks entries
- PM (Pilot Monitoring):
- Performs cockpit setup
- Powers aircraft systems
- Executes checklists
Initial Cockpit Setup
PM:
- BAT 1 + BAT 2 → ON
- External Power → ON (if available)
Check:
- ECAM displays active
- No abnormal warnings
Overhead Panel Setup (PM)
- Fuel Pumps → ON
- Hydraulic Panel → CHECK
- Electrical Panel → CHECK
- Air Conditioning → SET
ADIRS:
- Set all IR selectors → NAV
Cockpit Lighting (PM)
- Set as required for conditions
MCDU Initialization (PF)
INIT A Page:
- FROM / TO → Set departure & arrival airport
- Flight Number → INSERT
- Cost Index → SET
- Cruise Level → SET
Flight Plan Page:
- Insert route (airways / waypoints)
- Check for discontinuities
- Insert SID (Standard Instrument Departure)
- Verify routing
INIT B Page:
- Block Fuel → INSERT
- Zero Fuel Weight → INSERT
Performance Setup:
- V1 / VR / V2 → CALCULATE & INSERT
- FLEX Temperature → SET (if applicable)
- Thrust Reduction / Acceleration Altitude → SET
FMGS Crosscheck
PM cross-checks all entries:
- Route correctness
- Fuel values
- Performance data
Flight Instruments Setup
Both pilots:
- Set Barometric Reference
- Set Initial Altitude
- Set Vertical Display Selector on Above
Takeoff Briefing (PF)
Must include:
- Runway
- SID
- Initial altitude
- Expected routing
- Threats & considerations
Before Start Checklist
Performed when all preparation is complete.
Key Principles
- Always verify MCDU entries
- Cross-check between PF and PM
- Avoid rushing the setup
Philosophy
A correct cockpit preparation ensures:
- Reduced workload during taxi and takeoff
- Fewer errors in flight
- Better situational awareness
A rushed or incomplete setup increases risk significantly.
4.2 Engine Start
Objective
To safely start the engines while ensuring proper coordination with ground crew and maintaining full control of the aircraft during pushback or stand departure.
General Principle
Engine start must only be performed when:
- Aircraft is correctly configured
- Area around aircraft is clear
- Ground crew confirms readiness
Mandatory Condition
👉 Engine start is only permitted after “CLEAR TO START” from ground crew
Engine Start WITH Pushback
Preconditions
- Pushback clearance received
- Ground crew connected (headset)
- Beacon → ON
- APU BLEED → ON
- Fuel Pumps → ON
Procedure
PF:
- “Request pushback and start”
PM:
- Communicates with ground
Pushback Initiation
- Parking Brake → RELEASE (on instruction)
- Pushback begins
Engine Start Sequence
After “CLEAR TO START”:
PF: “Start Engine 1”
PM: “Starting Engine 1”
PM:
- ENG MODE Selector → IGN/START
- ENG 1 MASTER → ON
ECAM Monitoring (PM)
- N2 rotation
- Fuel Flow at ~20% N2
- EGT rise
- Stable parameters
Callouts
- “N2 increasing”
- “Fuel Flow”
- “EGT rising”
- “Engine 1 stabilized”
- Repeat for Engine 2
During Pushback
- Monitor aircraft movement
- Maintain communication with ground crew
- Avoid distractions during engine start
After Pushback
- Parking Brake → SET (on instruction)
- Ground crew disconnect confirmed
Engine Start WITHOUT Pushback (Self Maneuvering Stand)
Preconditions
- Area around aircraft visually confirmed clear
- No ground crew in hazard area
- Beacon → ON
- APU BLEED → ON
- Fuel Pumps → ON
Procedure
PF:
- Confirms: “Area clear”
Engine Start
PF: “Start Engine 1”
PM: “Starting Engine 1”
PM:
- ENG MODE Selector → IGN/START
- ENG 1 MASTER → ON
ECAM Monitoring
- N2 rotation
- Fuel Flow
- EGT rise
- Stabilization
- Repeat for Engine 2
Key Difference
- No pushback coordination required
- PF responsible for visual clearance
After Start Actions (Both Cases)
PM Flow:
- ENG MODE Selector → NORM
- APU BLEED → OFF
- APU → OFF (if not required)
- Anti-Ice → AS REQUIRED
- Flaps → SET
- Pitch Trim → SET
Key Principles
- Engine start is a controlled and monitored process
- Ground crew safety has priority
- Standard sequence must always be followed
Core Rule
“No clear area – no engine start.”
Outcome
- Engines started safely
- Aircraft ready for taxi
- Full coordination between cockpit and ground
Single Engine Taxi Policy
To improve fuel efficiency and reduce engine wear, single engine taxi should be used when operationally feasible.
Application
Single engine taxi is required when:
- Expected taxi time exceeds 10 minutes
Applicable airports are defined in the respective airport briefing.
Procedure
- Start Engine 1 only during engine start phase
- Keep Engine 2 OFF
Considerations
- Maintain sufficient thrust for taxi
- Monitor aircraft handling (asymmetric thrust)
- Use additional thrust carefully if required
4.3 Taxi
Objective
To safely maneuver the aircraft from stand to runway while maintaining full control, situational awareness and ground crew safety.
Taxi Phase Definition
The taxi phase begins when:
- Pushback is completed
OR - Aircraft starts moving under its own power (self-maneuvering stand)
Taxi Clearance
PF: Requests taxi clearance
PM: Handles ATC communication
Taxi Procedure
PF:
- Releases parking brake
- Applies minimum thrust required to initiate movement
Thrust Management
- Use IDLE thrust whenever possible
- Apply thrust only to start movement
- Avoid continuous thrust application
Steering
- Nose wheel steering via tiller (PF)
- Rudder pedals for small corrections
- Use smooth and controlled inputs
Speed Control
- Standard taxi speed: ~20 kt
- Outside apron: max 30 kt
- Tight turns: max 15 kt
Brake Usage
- Apply brakes smoothly
- Avoid aggressive braking
- Maintain passenger comfort
Self Maneuvering / 180° Turns
At stands where no pushback is used and a self-turn (e.g. 180°) is required:
Procedure
PF:
- Release parking brake
- Use minimum thrust only
- Initiate slow, controlled turn
Speed & Control
- Maintain very low speed
- Avoid tight or aggressive steering
- Aircraft should roll smoothly through the turn
Lighting Policy (Ground Safety)
During initial movement (nose still facing stand/apron):
- Taxi Lights → OFF
- Runway Turnoff Lights → OFF
Once aligned with taxi direction:
- Taxi Lights → TAXI
- Runway Turnoff Lights → ON
Purpose
- Prevent blinding ground personnel
- Increase apron safety
- Ensure professional operation
Taxi Lights Configuration
During normal taxi:
- Taxi Lights → TAXI
- Runway Turnoff Lights → ON
- Landing Lights → OFF
Monitoring (PM)
- Brake temperature
- Taxi route
- External traffic
- Clearance compliance
Flight Control Check
Performed during taxi:
PF: “Flight Controls Check”
PM monitors ECAM:
- Full and free movement
- Correct deflection
Before Takeoff Preparation
- Complete Before Takeoff Checklist
- Verify aircraft configuration
Key Principles
- Maintain situational awareness at all times
- Taxi with low energy and high precision
- Protect ground crew through proper light usage
Core Rule
“Taxi is a low-energy phase – precision over speed.”
Outcome
A correct taxi ensures:
- Safe ground operations
- Reduced workload before takeoff
- Proper aircraft positioning
Second Engine Start (Single Engine Taxi Operations)
Objective
To ensure both engines are available and stabilized prior to takeoff.
Timing
👉 The second engine must be started:
- At latest 5 minutes before expected takeoff
Procedure
- Start remaining engine according to Engine Start SOP (4.2)
- Ensure full stabilization before runway entry
Monitoring
- Confirm engine parameters stable
- Verify no abnormal indications
- Complete required after start flow
Operational Note
- Plan engine start early enough to avoid:
- Time pressure
- Delays at holding point
Core Rule
“Be ready before the runway – not on it.”
4.4 Takeoff
Line-Up
PF:
-
Align aircraft with runway centerline
PM:
-
Confirms runway and clearance
Takeoff Clearance
PM: Confirms ATC clearance
PF: “Takeoff”
Thrust Application
-
Thrust Levers → ~50% N1 (stabilization)
-
Then → FLEX/MCT or TOGA
Standard Callouts (PM)
-
“MAN FLEX / MAN TOGA”
-
“Thrust Set”
Takeoff Roll
PM Callouts:
-
“100 knots”
-
“V1”
-
“Rotate”
Rotation
PF:
-
Smooth pitch input (~2–3°/sec)
-
Target pitch ~15°
Liftoff
PM:
-
“Positive Climb”
PF:
-
“Gear Up”
Initial Climb
-
Maintain runway track
-
Follow FD (Flight Director)
After Takeoff
-
At acceleration altitude:
-
Pitch down
-
Flaps retract according to schedule
-
Climb Thrust
-
Thrust Levers → CL detent
Autopilot Engagement
The autopilot may only be engaged when the aircraft is properly stabilized and following the Flight Director.
Conditions for Autopilot Engagement:
- Aircraft is in a stable climb
- No excessive pitch or bank
- Flight Director crossbars are aligned (aircraft follows FD commands)
- No abnormal flight parameters
Recommendation:
- Typical engagement above 500–1000 ft AGL
Key Principle
“Follow the Flight Director first – then engage the autopilot.”
Engaging the autopilot while not aligned with the Flight Director may result in:
- Abrupt aircraft movements
- Unstable flight path
- Loss of situational awareness
Philosophy
A stabilized and disciplined takeoff ensures:
-
Safe departure
-
Proper energy management
-
Smooth transition into climb phase
4.5 Climb
Objective
To establish a stable and efficient climb profile after takeoff.
After Takeoff Flow
At acceleration altitude:
PF:
- Reduce pitch attitude
- Select climb profile
PM:
- Monitor speed increase
Flap Retraction
- Retract flaps according to speed schedule
- Ensure aircraft is clean (Flaps 0)
Thrust Setting
- Thrust Levers → CL detent
Autopilot
- Engage when conditions are met (see 4.4)
Standard Procedure
- Climb Mode → MANAGED
- Speed → MANAGED
The aircraft shall follow:
- FMGS vertical profile
- SID constraints
- Pre-programmed speed schedule
Exceptions
Selected modes may only be used if:
- ATC explicitly assigns:
- A specific speed
- A specific vertical rate or altitude constraint
- Operational reasons require intervention, such as:
- Avoiding traffic
- Weather deviations
- Energy management corrections
Monitoring (PM)
-
Both pilots must ensure:
- The aircraft follows the intended vertical profile
- Speed constraints are respected
- No unintended mode changes occur
Passing Transition Altitude
- Set Standard Pressure (STD)
During Climb
- As soon as its safe: Turn off the seat belt sign
- When passing FL250: Set Vertical Display Selector on Below
Key Principles
- “Managed by default – Selected only when required.”
- Maintain situational awareness
- Monitor automation continuously
- Anticipate level-off
4.6 Cruise
Objective
To maintain a stable and efficient flight at cruise altitude.
Establishing Cruise
- Aircraft levels off at cruise altitude
- Thrust reduces automatically
Autopilot & Automation
- Autopilot engaged
- Managed speed (Mach mode typically active)
Cruise Speed Management
During cruise, the aircraft should remain in Managed Speed Mode under normal conditions.
Standard Procedure
- Autopilot → ENGAGED
- Speed Mode → MANAGED (Mach mode)
The aircraft automatically optimizes:
- Fuel efficiency
- Speed profile
Exceptions
Selected speed may only be used if:
- ATC assigns a specific speed
- Turbulence requires speed adjustment
- Operational considerations demand deviation
Monitoring Duties
Both pilots:
- Monitor flight progress
- Check fuel consumption
- Verify route
Systems Monitoring (PM)
- ECAM parameters normal
- Monitor Mach number and fuel consumption
- Ensure compliance with ATC instructions
- Detect any unexpected automation behavior
Navigation
- Follow programmed route
- Monitor for deviations
ATC Interaction
- Maintain assigned altitude and speed
- Respond to new clearances
Situational Awareness
- Monitor weather
- Anticipate descent planning
Key Principles
- “Let the aircraft manage efficiency – intervene only when necessary.”
- Stay ahead of the aircraft
- Avoid complacency
- Continuously cross-check systems
4.7 Descent
Objective
To conduct a controlled and passenger-comfort-oriented descent from cruise altitude to approach phase while maintaining compliance with all constraints.
Descent Philosophy (VA Standard)
The descent is primarily flown with a focus on:
- Passenger comfort (smooth vertical profile)
- Pilot control over vertical path
- Compliance with ATC and charted constraints
Descent Preparation
PF:
- Reviews arrival (STAR, constraints, transition)
- Conducts approach briefing
PM:
- Programs arrival and approach into MCDU
- Verifies constraints and routing
Top of Descent (TOD)
- Descent initiated prior to or at TOD
- ATC clearance must be received before descent
Descent Mode (STANDARD VA PROCEDURE)
Vertical Mode:
- Primary Mode → SELECTED V/S (Vertical Speed)
The descent is manually controlled to ensure:
- Smooth cabin experience
- Stable and predictable vertical profile
Managed Mode Usage:
- Managed Descent is NOT the default
- It is used only when required to comply with constraints
Examples:
- Altitude restrictions on STAR
- Complex vertical profiles
- When automation assistance is beneficial
Speed Management
- Speed Mode → MANAGED (throughout STAR)
The aircraft shall:
- Follow FMGS speed profile
- Respect all published constraints
After STAR (Approach Phase Transition)
- Speed may be adjusted as required:
- ATC instructions
- Approach setup
- Traffic situation
Exceptions
Selected modes may be used if:
- ATC assigns specific:
- Speed
- Descent rate
- Altitude constraints
- Abnormal situations occur
Monitoring (PM)
- Vertical path vs constraints
- Speed profile
- ATC compliance
- Energy state (too high / too fast)
Energy Management
If aircraft is high or fast:
- Increase descent rate (V/S adjustment)
- Use Speed Brakes as required
Thrust Management
- Typically idle during descent
- Monitor engine parameters
Transition Level
- Set local QNH when passing transition level
Key Principles
- Smooth descent is priority
- Maintain control over vertical profile
- Use automation selectively, not blindly
Core Rule
“Vertical path is pilot-controlled – speed is aircraft-managed.”
Outcome
A properly managed descent results in:
- Passenger comfort
- Stabilized approach conditions
- Reduced workload in final phase
4.8 Approach
Objective
To establish a stable, controlled and smooth transition from descent into final approach, ensuring a safe and predictable landing.
Approach Philosophy (VA Standard)
The approach continues the descent philosophy:
- Vertical path → primarily pilot controlled (Selected modes)
- Speed → managed by aircraft (Managed mode)
Focus:
- Passenger comfort
- Stabilized approach
- Controlled energy management
Approach Preparation
PF:
- Conducts full approach briefing:
- Runway
- Approach type (ILS / RNAV)
- Minimums
- Missed approach procedure
PM:
- Verifies MCDU setup
- Tunes and identifies navigation aids
- Sets minimums
Initial Approach Phase
- Descent continues using:
- Selected V/S (preferred)
- Managed Descent only if required
- Speed → MANAGED
Localizer Capture
- Arm approach mode (APPR) as required
- Monitor LOC capture
Glide Slope Intercept
Configuration Requirement:
👉 Flaps 2 must be set BEFORE Glide Slope capture
This ensures:
- Stable aerodynamic configuration
- Smooth GS interception
- Reduced workload during capture
Configuration During Approach
Progressive configuration:
- Flaps 1 → as speed decreases
- Flaps 2 → BEFORE GS capture (mandatory SOP)
Final Approach (Stabilization Phase)
Configuration Targets:
By latest 5 NM Final:
- Gear → DOWN
- Flaps → FULL (in progress or completed)
Stabilization Requirement:
By 2 NM Final (latest at MINIMUM call):
The aircraft MUST be:
- Fully configured (Flaps FULL, Gear DOWN)
- At Final Approach Speed (VAPP)
- On correct vertical and lateral path
- Stable descent rate
Speed Management
- Managed Speed maintained throughout STAR and approach
On final:
- Aircraft transitions to VAPP automatically
- Manual intervention only if required
Stabilized Approach Criteria
At:
- 1000 ft (IMC)
- 500 ft (VMC)
Aircraft must be:
- On correct flight path
- At correct speed
- Fully configured
- Stable
If NOT stabilized:
👉 Immediate GO-AROUND
Monitoring (PM)
- Localizer / Glide slope deviation
- Speed trend (VAPP control)
- Configuration status
- Callouts
Standard Callouts
- “LOC STAR”
- “GLIDE SLOPE STAR”
- “FLAPS 2”
- “GEAR DOWN”
- “FLAPS FULL”
- “STABLE”
Mode Philosophy
- Vertical path:
- Controlled via GS or pilot input
- Speed:
- Managed by aircraft
Exceptions
Deviation from SOP allowed only if:
- ATC instructions
- Abnormal situations
- Safety requires immediate action
Core Rule
“Stabilize early – never chase the aircraft.”
Outcome
A correct approach results in:
- Fully stabilized final
- Predictable aircraft behavior
- Safe and smooth landing phase
4.9 Landing
Objective
To safely land the aircraft from a stabilized approach and conduct a controlled rollout while maintaining compliance with ATC and ensuring passenger comfort.
Landing Clearance Policy (VA Standard)
Without Landing Clearance:
If no landing clearance is received:
👉 At MINIMUM call:
- MANDATORY GO-AROUND
With “Expect Late Landing Clearance”:
If ATC issues:
👉 “Expect Late Landing Clearance”
Procedure:
- Continue approach below minimums
- Continue until over the runway threshold
If still NO landing clearance:
- Initiate GO-AROUND at/over threshold
Final Approach (Short Final)
- Maintain stabilized approach
- Monitor speed (VAPP)
- Small corrections only
Flare
PF:
- At ~20 ft → initiate flare
- Smoothly reduce descent rate
Touchdown
- Target:
- Main gear touchdown first
- Within touchdown zone
After Touchdown
PF:
- Maintain runway centerline
PM:
- Monitor deceleration
Automatic Systems
- Spoilers → Deploy automatically
- Autobrake → Active
- Reverse Thrust → As required
Deceleration Phase
Autobrake Policy:
- High-speed exit (rapid vacate):
- Autobrake remains active until 80 knots
- Normal rollout:
- Autobrake remains active until 60 knots
👉 Autobrake must NOT be disconnected before these speeds
Manual Braking
- Take over braking after autobrake phase as required
Runway Exit Speeds
High-Speed Turnoff:
- Target: 40 knots
- Maximum: 50 knots
Standard / Tight Turns:
- Follow Airbus standard:
- Maximum 15 knots
Reverse Thrust
- Use as required for runway conditions
- Reduce to idle at ~70 knots (typical)
Callouts (Typical)
- “RETARD” (automatic)
- “SPOILERS”
- “REVERSERS GREEN”
- “80 knots”
- “60 knots”
After Landing
- Vacate runway when safe
- Inform ATC
- Begin after landing flow
Key Principles
- Respect landing clearance at all times
- Never continue below minimums without authorization
- Maintain full control during rollout
Core Rule
“No clearance – no landing.”
“Any deviation results in a GO-AROUND – landing is considered a bonus, not a requirement.”
Outcome
A correct landing results in:
- Safe touchdown
- Controlled deceleration
- Efficient runway exit
4.10 Taxi & Shutdown
Objective
To safely taxi from the runway to the gate and perform complete aircraft shutdown while maintaining SOP compliance, passenger comfort, and ground crew safety.
Taxi After Landing
Initial Rollout
PF:
- Maintain runway centerline
- Smoothly decelerate using:
- Autobrake (until 60–80 kt, siehe Landing SOP)
- Reverse thrust (as required, idle ~70 kt)
PM:
- Monitor speed and runway clearance
- Call out speed reductions
Runway Exit
- Enter taxiway at appropriate speed:
- High-speed exit: 40 kt target, max 50 kt
- Tighter turns / standard turns: max 15 kt
PF:
- Steer via tiller / rudder pedals
- Maintain smooth control
PM:
- Monitor external traffic
- Verify lights and brake status
Taxi to Gate
- Taxi speed: approx. 20 kt
- Outside apron: up to 30 kt allowed
- Follow ATC instructions
- Maintain situational awareness
Lights:
- Taxi lights → TAXI
- Landing lights → OFF
- Turnoff lights → ON
Approach to Parking Spot / Stand
PF:
- Align aircraft with stand
- Reduce speed gradually
- Apply brakes smoothly
PM:
- Monitor nose wheel alignment
- Monitor stand guidance (marshaller / VDGS)
- Call out distance and alignment
Ground Crew Safety:
- ALL front lights (Taxi, Landing, Turnoff) → OFF
- Ensure visibility hazards minimized for ground personnel
Engine Shutdown Procedure
Engine shutdown is based on technical requirements, not ground crew signals.
Cooldown Requirement
After engine operation at higher thrust settings:
👉 A minimum cooldown period of 60 seconds must be observed before shutdown.
This applies from:
- The last time engine thrust exceeded approximately 50% N1
Purpose of Cooldown
The cooldown period ensures:
- Stabilization of engine temperatures
- Protection of internal components
- Prevention of thermal damage
Standard Procedure
After parking brake is set:
- Maintain engines at IDLE thrust
- Monitor engine parameters
- Wait minimum 60 seconds cooldown
Engine Shutdown
After cooldown is complete:
- ENG MASTER switches → OFF
Important Notes
- Do NOT shut down engines immediately after high thrust usage
- Reverse thrust and taxi phases must be considered in cooldown timing
- Ground crew does NOT determine shutdown timing
After Engine Shutdown (Turnaround)
Objective
To safely transition the aircraft from engine operation to ground handling during turnaround while ensuring system stability and ground crew safety.
Engine Spool Down Monitoring
After engine shutdown:
- Monitor engine parameters (N1)
- Ensure engines are fully spooled down
Beacon Light Policy
👉 Beacon must remain ON until engines are fully spooled down
- Wait until N1 < 10% on both engines
Only then:
- Beacon → OFF
Purpose
This ensures:
- Clear indication to ground crew that engines are no longer hazardous
- Prevention of personnel approaching running or spooling engines
APU Usage During Turnaround
The APU may remain in operation during turnaround depending on environmental conditions.
Standard Practice
- APU → RUNNING (if required)
Typical Use Cases
APU should remain ON when:
- High outside temperatures (heat) → cabin cooling required
- Low outside temperatures (cold) → cabin heating required
- No external power or air supply available
When APU May Be Turned OFF
- External power is connected and stable
- Environmental conditions allow
Electrical Configuration
- External Power → PREFERRED (if available)
- APU → BACKUP or primary (if needed)
Cabin & Systems
- Seatbelt Signs → OFF
- Fuel Pumps → AS REQUIRED
- Lighting → AS REQUIRED
Key Principles
- Engine shutdown does not end aircraft responsibility
- Systems must remain stable during turnaround
- Passenger comfort must be considered
Core Rule
“Shutdown is a transition – not the end of operation.”
Outcome
- Safe handover to ground operations
- Protected ground crew
- Aircraft ready for next departure
Aircraft Shutdown Procedure
Apply if crew leave the aircraft and no new crew is there to take the aircraft.
Before Shutdown
PM / PF:
- Verify systems powered down safely
- Check fuel, lights, electrical systems
Standard Shutdown Flow
- Engines → OFF (Engine Master switches)
- APU → ON (if ground power needed)
- External Power → CONNECTED
- Battery switches → OFF (as required)
- Anti-collision lights → OFF
- Flight Instruments → Parked / Safe
- Parking Brake → SET
After Shutdown
- Perform walk-around (virtual / checklist)
- Ensure aircraft ready for next flight
- Log flight details if required
Key Principles
- Smooth, controlled taxi to gate
- Maximum taxi speed 20 kt (30 kt outside apron)
- All front lights OFF when entering parking stand
- Follow VA philosophy: passenger comfort & ground crew safety first
- Shutdown only after full stop and all systems verified
Outcome
- Aircraft safely at gate
- Engines off, systems secured
- Crew ready for debriefing / next flight