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CurriculumGlobal 5500 › Ground School Syllabus
BD-700 · Large Cabin

Bombardier Global 5500
Ground School Syllabus

Phase-gated ground school covering all systems, limitations, avionics, and emergency procedures — with CPT stage gate requirements.

Ground School SyllabusFFS SyllabusAircraft Phase SyllabusCompletion StandardsProgram Policies
45 hrs
FFS hours
16 hrs
Aircraft hours
$125,000
Initial program
14 days
Duration
In this document
Program Flow — Six PhasesEnrollment PrerequisitesGround School Syllabus — 55 HoursWritten Examination & Mock OralPhase 03 — CPT Sessions
Site
Programs & pricing Fleet detail Simulator complex Master policies
Section 1
Program Flow — Six Phases

The Global 5500 type rating program progresses through six sequential phases. No phase may begin until the preceding phase is complete and documented. The phase timeline below shows the full sequence — this document covers Phases 01 through 03.

Phase 01
eLearning
Pre-arrival
Phase 02
Ground School
On campus
Phase 03
CPT
Cockpit trainer
Phase 04
FFS
Level D sim
Phase 05
Aircraft
Actual flight
Phase 06
Practical Test
TCE checkride

Phase 01 — eLearning (remote, pre-arrival): Completed before campus arrival. Minimum 22 hours. 80% pass all modules required. Access provided upon deposit payment.

Phase 02 — Ground School (on campus): 55 hours of type-specific classroom instruction. Covers all aircraft systems, limitations, emergency procedures, and ACS knowledge areas. Concludes with written examination and mock oral.

Phase 03 — CPT (on campus): Cockpit Procedures Trainer — fixed-base cockpit environment for checklist flows and avionics familiarization before entering the Level D FFS. CPT sessions are logged but not as flight time.

Section 2
Enrollment Prerequisites

All prerequisites verified by Director of Training before deposit is accepted. Non-negotiable except where noted in the master policies document.

FAA ATP or Commercial Pilot certificate with instrument rating
FAA First or Second Class medical — valid through program completion
Minimum flight time per program requirements (see enrollment policies)
TSA AFSP clearance on file (non-U.S. persons)
Apex eLearning pre-course completed — 80% pass all modules
Section 3
Ground School Syllabus — 55 Hours

Topics are covered in the sequence below. Hours are on-campus instruction time; the eLearning pre-course provides additional foundational coverage before campus arrival. Each topic concludes with comprehension questions administered by the instructor — these are formative, not graded, but unsatisfactory responses trigger review before proceeding.

5.5 hrs
Aircraft General & Certification
Global 5500 type certificate BD-700 — certification basis and history. Airframe construction materials and structural design philosophy. Pressurization system: maximum differential, cabin altitude schedule, outflow valve operation, safety valve. Emergency exits: location, operation, activation forces, slide deployment on applicable aircraft. Door warning systems integration with avionics alerting. Cabin altitude warning system. Oxygen system: crew masks (quick-don), passenger masks, diluter-demand vs pressure demand.
6.4 hrs
Powerplant — Rolls-Royce Pearl 15
Engine type: Rolls-Royce Pearl 15. FADEC — full authority digital engine control: operation, fault codes, degraded modes, FADEC failure response. N1/N2 speed relationships; ITT/EGT limits; oil pressure and temperature limits. Thrust ratings: takeoff, max continuous, climb, cruise derates. Engine bleed: sources, anti-ice demand effect on thrust. Thrust reverser system: deployment envelope, inadvertent deployment procedure, reverser locked-open drill. Engine start: normal, cross-bleed, APU-assisted (if applicable), hot start recognition and response. Engine fire detection: loop A/B, extinguisher discharge sequence, engine shutdown memory items. Single-engine performance: drift-down altitude, net ceiling, obstacle clearance.
3.2 hrs
Fuel System
Fuel tank configuration: main tanks, auxiliary/tip tanks (if applicable), center tank (if applicable). Fuel transfer: automatic crossfeed, manual crossfeed, transfer pump operation. Fuel imbalance limits: maximum allowable imbalance at MTOW, correction procedure. Fuel quantity indication: primary, backup, low-level warning thresholds. FMS fuel integration: fuel used, fuel remaining, estimated fuel at destination, range rings. Fuel system abnormals: pump failure, crossfeed valve stuck, fuel quantity discrepancy procedure. Fuel specification: Jet-A, Jet-A1, JP-8; contamination check; density correction for weight planning. Auxiliary fuel tanks: total capacity increase, transfer rate, long-range fuel planning for oceanic.
3.2 hrs
Electrical System
Generator architecture: starter-generators or dedicated generators per engine (aircraft-specific). Bus architecture: main bus, essential bus, emergency bus, avionics bus. Battery systems: main battery, emergency battery, battery charger. Ground power: external power acceptance, GPU connection procedure. Load shedding matrix: what drops on essential bus, what drops on emergency bus. Electrical abnormals: generator failure (single and dual), bus tie failure, battery only operations. Avionics bus protection: avionics master switch, cooling fan monitoring. APU electrical: APU generator capacity, APU as backup electrical source.
3.2 hrs
Hydraulics & Landing Gear
Hydraulic system architecture: system A and B (if dual), fluid specification, reservoir monitoring. Landing gear: normal retraction/extension; gear door sequence; position indication (green/unsafe/unlocked). Alternate gear extension: free-fall or mechanical extension; checklist; groundspeed limitations before extension. Nose wheel steering: tiller authority; differential braking below NWS authority. Brake system: carbon brake pads; anti-skid operation; anti-skid failure; brake energy limits (max landing weight brake temp check). Parking brake: application and release; failure mode (brakes applied). Hydraulic abnormals: hydraulic pump failure; hydraulic fluid low; hydraulic pressure loss — gear and brake backup.
3.2 hrs
Flight Controls
Primary flight controls: elevator, ailerons, rudder — cable and pushrod or cable and hydraulic actuation. Secondary controls: spoilers (flight and ground); roll spoilers if applicable; speed brakes. Flap system: positions, Vfe at each setting, asymmetric flap detection and limitation. Trim systems: electric pitch trim (runaway trim procedure); manual roll and yaw trim. Yaw damper: operation, failure indication, flight without yaw damper (VMC only vs all weather). Stall protection: stick shaker activation angle, stick pusher (if equipped) — when and how it activates. Flight control abnormals: jammed elevator; jammed aileron; rudder hard-over; flap asymmetry.
10.1 hrs
Avionics — Bombardier Vision
Display architecture: Rockwell Collins Fusion-based; dual 15-inch PFD/MFD; cursor/enter touchscreen; integrated EICAS; HUD standard on Global 7500. FMS: Dual Rockwell Collins FMS; ETOPS planning; oceanic track system entry (NAT, PACOTS); CPDLC datalink; ATC route modifications. Approach capability: ILS, LPV, RNAV, RNP; curved approach (RF legs); GBAS on equipped airports; approach preview via SVS. Autopilot/autoflight: Dual-channel autopilot; autothrottle standard; coupled ILS to 50 ft; go-around; Fly-By-Wire on Global 7500 (Bombardier AAEV). Failure modes: Vision avionics failure sequence; FMS crossfill failure; HUD failure procedure; fly-by-wire degradation modes on 7500. Aircraft-specific: Global 7500 Fly-By-Wire: direct, normal, and alternate law — similar concept to Airbus but Bombardier-specific implementation; crew must understand law degradation. Cockpit scan pattern: how the display layout affects instrument crosscheck; transition from other avionics suites. Checklist integration: electronic checklist (if equipped) vs paper QRH; CAS message hierarchy.
2.8 hrs
Ice & Rain Protection
Ice protection system type: hot bleed air (engine cowl and wing leading edge, if applicable) and/or electric (windshield, pitot/static, AOA). Ice detection: visual cues (ice accretion reference indicators), AOA degradation, ice detector (if equipped). FIKI status: approved for flight into known icing with all systems operative. Icing encounter procedure: pitot heat — windshield — engine anti-ice — wing anti-ice sequence; power implications of bleed demand. Structural icing limits: maximum continuous icing, maximum intermittent icing, freezing drizzle and freezing rain (FZRA) — most aircraft are not certified for FZRA. Icing abnormals: anti-ice system failure in icing conditions; pitot heat failure; airspeed unreliable with ice.
4.6 hrs
Emergency Procedures
Memory items vs checklist items: which emergency items require immediate action without checklist (aircraft-specific — must be memorized exactly). Engine failure below V1 (138–158 KIAS): rejected takeoff — maximum braking, thrust levers idle, reversers deployed. Engine failure at V1: continued takeoff — maintain V2 (148–168 KIAS), wings level, ball in center; engine failure items after positive climb established. Engine fire in flight: shutdown sequence, fire handle pull, extinguisher discharge — first then second bottle discharge timing. Emergency descent: recognition, 'Pan-Pan' or 'Mayday' ATC, passenger oxygen, descent profile (Mmo then Vmo then 250 KIAS below 10,000); target altitude for pressurization loss. Rapid decompression: oxygen mask — gloves — goggles sequence (15-second useful consciousness at FL410); emergency descent immediately. Smoke and fumes: source identification (electrical vs environmental system vs cabin); isolation procedure; smoke goggle use; oxygen mask. Electrical emergency: generator failure, essential bus configuration, load shedding, avionics priority. Windshear encounter: EGPWS/TAWS windshear alert — immediate full thrust — maintain target pitch — no configuration changes. Ditching: over-water emergency landing — checklist, ditching configuration, evacuation; relevant for ULR oceanic operations.
5.5 hrs
Performance & Limitations
Speed schedule: V1 138–158 / Vr 142–162 / V2 148–168 / Vref 118–130 / Vapp 125–136 KIAS (weight-dependent — these are representative ranges). Structural limits: Vmo 330 KIAS, Mmo 0.9, Va (maneuvering speed), Vfe (flap extension — each setting). Weight limits: MTOW 96,800 lbs; max landing weight (MLW); max zero fuel weight (MZFW); ramp weight. CG envelope: forward and aft limits at MTOW; CG shift during flight (fuel burn); loading procedure to remain within envelope. Takeoff performance: balanced field length; accelerate-stop distance; V1 adjustment for wet/contaminated runway; obstacle clearance departure procedure. Climb performance: all-engine climb gradient; single-engine climb gradient (net); net climb limit altitude; drift-down procedure. Cruise performance: long-range cruise (LRC); cost index; step climb planning; Mach/altitude optimization. Landing performance: landing distance required; approach category (Cat A/B/C/D); Vref calculation; wet runway landing distance correction. ETOPS planning: ETOPS alternate selection; equal time point; point of safe return; critical fuel scenario. RVSM: height-keeping requirements; RVSM system check; RVSM airspace procedures (FL290–FL410).
3.7 hrs
Oceanic & ETOPS Operations
NAT track system: track message, track selection, oceanic clearance format, position reporting. SELCAL: test before departure; in-range call; ATC oceanic clearance delivery. HF radio: ATC communications; SELCAL decode; SATCOM as backup. CPDLC: controller-pilot datalink; ATC clearance via datalink; voice backup procedure. ETOPS authorization: route authorization, alternate requirements, critical fuel scenario calculation, diversion decision. Minimum equipment for ETOPS: which systems must be operative before ETOPS departure. Equal time point: calculation; point of safe return; diversion decision criteria. Contingency fuel: ETOPS reserve; holding at alternate; priority of fuel management decision.
3.7 hrs
ACS Oral Preparation — Mock Oral
Mock oral examination structured as a full DPE session: examiner persona, applicant role. Areas of Operation from the BD-700 ACS: aircraft systems (all of the above), limitations (recited from memory), normal procedures, abnormal/emergency procedures, instrument procedures, performance. Common examiner question patterns: 'walk me through what happens when...'; 'what are your memory items for...'; 'what would you do if...'. Limitations committed to memory: Vmo 330 KIAS, Mmo 0.9, MTOW 96,800 lbs, engine operating limits. Professional response technique: organized, complete, direct; know when to say 'I would refer to the QRH' vs memory item. Mock oral is conducted by an Apex check airman who is NOT the student's primary ground instructor — same person who reviews records before the practical test is scheduled.
Section 4
Written Examination & Mock Oral

Written examination: 80–120 questions, closed-book, covering all systems topics above. Minimum score: 85% overall, with no single module below 75%. Students below 85% receive remedial instruction and re-examination before CPT begins. Re-examination requires minimum 4 additional hours of instruction in the deficient module.

Mock oral examination: Conducted by an Apex check airman who is not the primary ground instructor — minimum 90 minutes. All ACS knowledge areas. Limitations must be recited from memory. The mock oral result is reviewed by the Chief Standards Pilot and documented in the training record before the practical test date is considered.

Limitations committed to memory — required for mock oral and practical test:

LimitationValue
Vmo330 KIAS
MmoMach 0.9
MTOW96,800 lbs
V1 range138–158 KIAS (weight/temp dependent)
Vr range142–162 KIAS
V2 range148–168 KIAS
Vref range118–130 KIAS
Max operating altitudeFL510
Stage Gate — Ground School → CPT Phase

All of the following must be satisfied and documented by the Chief Standards Pilot before CPT Phase is authorized:

  • Written systems examination: minimum 85% on all modules — no partial credit across modules
  • All ground school attendance hours logged — no session may be skipped or shortened
  • Pre-course eLearning verified complete (80% pass) before ground school begins
  • Director of Training sign-off on ground school completion in training record
Section 5
Phase 03 — CPT Sessions

The Cockpit Procedures Trainer (CPT) is a fixed-base, non-motion simulator that replicates the Global 5500 cockpit to a level sufficient for checklist flows, avionics familiarization, and normal procedure drills. CPT sessions are not logged as flight time. They are the bridge between ground school knowledge and the Level D FFS.

CPT objectives:

  • Complete all normal checklist flows (preflight, engine start, taxi, takeoff, cruise, descent, approach, landing, shutdown) without reference to checklist — flows from memory, checklist to verify
  • Demonstrate avionics proficiency: load a flight plan including SID, airways, STAR, and approach from scratch; modify the route; load an alternate; execute the missed approach in the FMS
  • Demonstrate autopilot mode engagement sequence: IAS → ALT SEL → VS → APP — without prompting
  • Practice emergency procedure memory item sequences at normal pace before entering the FFS
Stage Gate — CPT Phase → FFS Phase

All of the following must be satisfied and documented by the Chief Standards Pilot before FFS Phase is authorized:

  • CPT sessions completed per approved TCO schedule
  • Normal procedures checklist flows demonstrated without reference for all applicable checklists
  • Avionics proficiency demonstrated: approach loading, FMS route entry, autopilot engagement
  • Chief Standards Pilot authorization in training record