L1C01: Air Law

Duration: 4 hours | 86 slides

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Instructor Notes:

Studying regulations may be considered the 'driest' and is the longest section of this course. This is why it is being covered first while the students are fresh.

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Key Points:

Operators and pilots are responsible for being aware of and following current regulations. E.g., What regulations are we operating under? What are the rules? What are the limits? New regulations have been implemented and regulations change over time.

Objectives & L1C Context

After this section, you will be able to...

  • Identify which parts of the Canadian Aviation Regulations apply to RPAS operations
  • Differentiate between Advanced RPAS operations and Level 1 Complex (L1C) RPAS operations
  • Explain the difference between a regulation and a standard

Advanced vs. L1C vs. SFOC

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Canada has three operational environments above the 'basic' level: Advanced, Level 1 Complex, and the SFOC environment. In this course, we will be covering the information required for the L1C certification.

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Discussion:

What types of drone operations do each of the participants engage in? Which of three operations environments would apply?

L1C Requirements

Candidates must...

  • 1.Be minimum of 18 years of age
  • 2.Complete the advanced exam, L1C exam, and application online through Transport Canada's Drone Management Portal (DMP)
  • 3.Complete a 20-hour ground school and in-person flight review (Note: This course meets this requirement)
  • 4.Ground school instructors must be affiliated with an organization that has declared to Transport Canada that they have a L1C training program that meets the TP 15530 standard
  • 5.Flight reviewers must hold a L1C RPAS certificate with flight reviewer privileges and be associated with a TP 15530 declared training organization in the DMP

Note: The completion order of these requirements is fixed, because Transport Canada wants applicants to build a foundation of knowledge.

Aviation Regulations

The Aeronautics Act:

  • Is the legislation that governs aviation in Canada
  • Enables the Canadian Aviation Regulations (CARs)
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The Aeronautics Act from 1985 is what enables the Canadian Aviation Regulations (CARs). The Aeronautics Act still exists, but CARs started in the mid 1990s. CARs was a big change to the existing regulations.

Main Three Agencies

Transport Canada

  • • Builds and enforces regulations
  • • Before the 1990s, provided air traffic control and airport management
  • • Now oversees public safety in a regulatory capacity

NAV CANADA

  • • Air traffic control
  • • Does not build regulations
  • • Relevant when flying in airspace near airports

Transportation Safety Board

  • • Independent agency
  • • Reviews incidents and accidents
  • • Makes safety recommendations
  • • Only investigates drones over 25kg

Canadian Aviation Regulations (CARs)

Part I General Provisions
Part II Aircraft Registration
Part III Airports
Part IV Licensing and Training
Part V Airworthiness
Part VI Flight Rules
Part VII Commercial Air Services
Part VIII Air Navigation Services
Part IX RPAS (Most Important for Drones)
Part X Greenhouse Gas Emissions
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Important Notes:

  • CARs are not only for drones
  • Drone operators mostly work with CARs Part 9 but should be familiar with other parts, especially 1 and 6
  • Part 6 is relevant because we share space with traditional pilots and want to understand what larger aircraft are going to be doing

Regulation vs. Standard

Regulation

Can be enforced. States the rule.

Standard

Method to enable compliance with regulation. Explains how to meet that rule.

Numbering Structure

First digit identifies the Part.

Example: 901.56 = Part IX

Second digit identifies a regulation versus a standard.

Example: 901.56 '0' = regulation

Example: 921.04 '2' = standard

Third digit identifies the Subpart.

Example: 901.56 = Subpart 1 of Part IX

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Real Part IX Examples You'll Use:

901.56 - Sheltered Operations

Part 9 (900) + Regulation 0 + Subpart 1 + Section 56 = Division V requirements

901.87 - BVLOS Operations Applicability

Part 9 (900) + Regulation 0 + Subpart 1 + Section 87 = Division VI (your focus in L1C!)

901.213 - RPAS Operator Certificate Eligibility

Part 9 (900) + Regulation 0 + Subpart 2 + Section 13 = Division XII requirements

921.04 - RPAS Pilot Certificate Training

Part 9 (900) + Standard 2 + Subpart 1 + Section 04 = Standard 921, Division X

922.07 - Manufacturer Declaration Requirements

Part 9 (900) + Standard 2 + Subpart 2 + Section 07 = Standard 922, Division XI

923.01 - Vision-Based Detect and Avoid

Part 9 (900) + Standard 2 + Subpart 3 + Section 01 = Standard 923, your DAA method!

Pro Tip: When someone says "CAR 901.87" you immediately know it's a regulation (0) in Subpart 1, and when they say "Standard 923" you know it's about detect and avoid (Subpart 3).

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SFOCs are managed under Subpart 3 of CARs.

CARs Part I – General Provisions

Provides a comprehensive list of definitions used in the Canadian Aviation Regulations (CAR 101.01)

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It is important to be familiar with the definitions to ensure everyone is speaking the same language. For example, in CARs Part 9, an RPAS operator refers to the individual or organization holding the RPAS Operator Certificate, not the pilot.

Key Definitions

Remotely Piloted Aircraft (RPA)

A navigable aircraft, other than a balloon, rocket, or kite, that is operated by a pilot who is not on board

Remotely Piloted Aircraft System (RPAS)

A set of configurable elements consisting of an RPA, its control station, the command and control links, and any other system elements required during flight operation

Command and Control Link

The data link between an RPA and a control station that is used in the management of a flight

Control Station

The collection of facilities and equipment from which an RPA is controlled and monitored

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RPAS vs RPA:

  • RPAS: Refers to the whole system, including the command station, command and control link, and the aircraft
  • RPA: The aircraft itself
  • Control Station: Collection of facilities and equipment. It is up to the manufacturer to decide the level of the control station (e.g., RC controller, laptop, big moving van, etc.)
  • CARs Part 9 does not differentiate model aircraft and drones. They are all covered.

CAR 103.01 Document Inspection

Every person who is required by these Regulations to maintain a Canadian aviation document, a technical record, or any other document shall produce the Canadian aviation document, technical record, or other document for inspection in accordance with the terms of a demand made by a peace officer, an immigration officer, or the Minister.

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Who Can Demand to See Your Documents:

  • Peace Officer: Police, RCMP, provincial/municipal law enforcement
  • Immigration Officer: CBSA officers at borders or ports of entry
  • The Minister: Transport Canada inspectors and authorized representatives

What Documents You Must Produce:

  • • Pilot certificate (L1C certificate)
  • • Proof of recency (within 24 months)
  • • RPAS Operator Certificate (if operating under one)
  • • RPAS registration certificate
  • • Proof of liability insurance (if required)
  • • Flight logs and technical records (maintenance logs)
  • • Site survey documentation
  • • SFOC (if applicable to the operation)

Real-World Context:

Transport Canada has been actively training police and RCMP to recognize compliant vs. non-compliant drone operations. If law enforcement approaches you during operations, be professional, immediately cease flight activities, and produce all requested documents. Refusal to produce documents is a violation of CAR 103.01.

Best Practice: Keep digital copies on your phone/tablet and physical copies in your flight case. Being able to produce documents immediately demonstrates professionalism and compliance.

CAR 103.04 Record Keeping

Every person who is required to keep a record under these Regulations may keep the record in an electronic format if:

(a) the electronic format is protected against loss, destruction and falsification; and

(b) the record may be made available in printed form to the Minister with reasonable notice.

Every person who keeps a record in an electronic format shall provide a printed copy of the record to the Minister within the time that is specified in a written request for the record from the Minister.

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What "Protected Against Loss, Destruction and Falsification" Means:

  • Backup Required: Cloud storage (Google Drive, Dropbox, OneDrive) or external hard drive backup. Single device storage is NOT sufficient.
  • Version Control: Use dated filenames or version numbers to prevent accidental overwrites (e.g., FlightLog_2026-03-31_v1.pdf)
  • Access Control: Password-protected accounts, limited access to authorized personnel only
  • Tamper Evidence: PDF format (harder to edit than Word docs), digital signatures if available, or read-only permissions after finalization

Practical Record Keeping System Examples:

  • Small Operator (1-3 pilots): Google Sheets for flight logs synced to cloud, maintenance records in Google Drive, scanned certificates in Dropbox. All auto-backed up, accessible from phone/tablet in field.
  • Medium Organization (4-10 pilots): Dedicated flight logging software (e.g., AirData, DroneDeploy), ROM and procedures in shared company drive with access controls, annual export to PDF for long-term archive.
  • Large Operator (10+ pilots): Database system with user permissions, automated backup to offsite server, integration with maintenance tracking and compliance monitoring tools.

When TC Requests Records:

Transport Canada can request records during audits, incident investigations, or random compliance checks. You must be able to produce printed copies within the timeframe they specify (typically 24-72 hours). If you can't produce records because they were lost or destroyed, you're in violation of CAR 103.04.

Best Practice: Test your backup system quarterly - can you actually retrieve and print your records? Many operators discover their "backup" doesn't work when TC comes calling.

CAR 106.01 Accountable Executive

Appointment and Acceptance of Accountable Executive

(1) A person or organization that holds a certificate referred to in subsection (5) shall appoint an accountable executive:

(a) to be responsible for the operations or activities authorized under the certificate and accountable on their behalf for meeting the requirements of these Regulations that relate to those operations or activities; and

(b) to provide a letter of acceptance from the accountable executive to the Minister acknowledging their responsibilities and accountability.

(2) No person shall be appointed as an accountable executive under subsection (1) unless they have control of the financial and human resources required to carry out the operations or activities authorized under the certificate.

Note: Subsection (5) lists applicable certificates including RPAS Operator Certificates

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Who Can Be an Accountable Executive:

The Accountable Executive must have real authority - not just a title. They must control the budget (financial resources) and can hire/assign/train personnel (human resources). If they can't allocate money for safety equipment or can't pull a pilot from operations due to safety concerns, they don't have sufficient authority.

Common Scenarios:

  • Sole Proprietor: You're the owner, pilot, maintenance person, AND accountable executive. You wear all hats. Your letter of acceptance acknowledges YOU are responsible for everything.
  • Small Company (2-10 employees): Typically the owner or president. Could be operations manager if they have budget authority and can make hiring/firing decisions.
  • Department in Larger Organization: Cannot be the company president who has no knowledge of RPAS operations. Must be someone in the drone operations division with delegated budget and staffing authority (e.g., Director of UAS Operations).
  • Government Agency: Typically branch director or program manager who controls budget for the RPAS program and has authority over personnel assignments.

Letter of Acceptance Requirement:

The Accountable Executive must provide a written letter to Transport Canada stating:

"I, [Name], accept the role of Accountable Executive for [Organization Name] and acknowledge that I am responsible for ensuring all operations conducted under RPAS Operator Certificate [Number] comply with the Canadian Aviation Regulations. I understand I am accountable to Transport Canada for the safety and regulatory compliance of these operations."

What Makes Someone NOT Qualified:

  • ❌ Manager who must get approval for equipment purchases over $500
  • ❌ Supervisor who can't remove unsafe pilots from duty
  • ❌ Owner who delegates all authority to someone else
  • ❌ Figurehead who doesn't understand RPAS operations

Bottom Line: Transport Canada will hold the Accountable Executive personally responsible in incidents. Choose someone who has actual authority and understands the weight of this role.

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Discussion:

What is the participant's organization structure? Who is the accountable executive? OR What would be the structure if the organization had an operating certificate? Who would be the accountable executive?

CARs Part VI – Flight Rules

VFR vs IFR - Traditional Aircraft

Visual Flight Rules (VFR)

  • • Visual reference to the surface of the earth
  • • Visual Meteorological Conditions (VMC)
  • • 'See and be seen'
  • • Typical for small aircraft sharing the same airspace as RPAS

Instrument Flight Rules (IFR)

  • • No longer require reference to the surface on the Earth
  • • Airlines and aircraft that fly at high altitudes
  • • Near airports/aerodromes
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Since airspace is shared, drone operators and pilots must have a basic understanding of what traditional aircraft are doing in the airspace.

VFR: Flying in visual reference to the ground (out of cloud, can see the ground, heads outside of cockpit); NAV CANADA is not looking out for drones, so pilots must look out and be reactive (see and be seen).

IFR: No longer flying in visual reference to the ground; set of rules needed when flying in and above cloud (flying on instruments); NAV CANADA gets everyone out of the drone's way.

Canadian Domestic Airspace (CDA)

Canadian Domestic Airspace:

  • Southern Domestic Airspace (SDA)
  • Northern Domestic Airspace (NDA)
  • Canadian Regulations (CARs) apply to this airspace
  • Different rules between SDA and NDA
  • NDA: ARC-A (atypical) airspace for RPAS operators
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Most Canadian operations will be in the SDA. There is a different set of rules for the NDA, because it is very low risk and low traffic.

In NDA, everything below 400 ft AGL is atypical airspace (ARC A), which means the DAA performance criteria has significantly reduced. For the rest of this course, "airspace" is going to refer to SDA.

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NAV CANADA's Designated Airspace Handbook shows the SDA and NDA on a map. Highlight how north the NDA is.

Altimeter Setting vs. Standard Pressure Regions

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Note: This will be discussed more in the Systems slide deck.

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Pilots have two general regions: Altimeter Setting Region and Standard Pressure Region.

Altimeter Setting Region (SDA): When operating in SDA, drones are in an Altimeter Setting Region. When operating near an airport, there is an altimeter setting that you must put into the altimeter to make your altitude real. Those altitudes are corrected to an altitude above sea level.

Standard Pressure Region (NDA): When operating in NDA, drones are in a Standard Pressure Region. The weather stations are so far apart, so pilots can't get all the corrections needed to have a valid altimeter reading. When outside of takeoff and landing, set a standard pressure of 29.92.

The altitudes are part of traffic management in traditional aviation and work towards traffic separation. It's important to work on common altitudes for separation.

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Practice Question:

What are RPAS altitudes derived from?

Answer: Your drone is giving you true altitude. Your aircraft altitude is not a true altitude unless at are at a standard ISA temperature. Anything that deviates outside of ISA and traditional aircraft are no longer at a true altitude.

Discussion:

What are the challenges combining RPAS (GPS) altitudes with traditional aircraft that use altimeters?

Airspace Classes

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For the RPAS Operator Certificate/L1C operations, drones will be operating in the Class F and Class G airspace for the most part.

Drone operators do not need to understand the nuances of Class A, B, C, D, and E. It is more important to understand if the airspace is controlled or uncontrolled.

Controlled vs. Uncontrolled Airspace

Controlled Airspace:

Class A, B, C, D, E

Uncontrolled Airspace:

Class F (mostly), Class G

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Real Canadian Airspace Examples - Where You'll Actually Operate

Class C - Major International Airports (SFOC Required for RPAS)

Toronto Pearson (CYYZ)

  • • Canada's busiest airport
  • • Class C from SFC to 11,500 ft
  • • ~30 NM radius of controlled airspace
  • • Extremely high traffic volume

Vancouver (CYVR)

  • • West coast hub
  • • Class C from SFC to 10,000 ft
  • • Complex terrain (mountains, water)
  • • Multiple helicopter operators nearby

Montreal (CYUL)

  • • Quebec's primary airport
  • • Class C from SFC to 10,000 ft
  • • Bilingual ATC communications
  • • Multiple approach paths

Calgary (CYYC)

  • • Prairie hub, high elevation (3,557 ft)
  • • Class C from SFC to 11,500 ft
  • • Mountain wave activity common
  • • Strong wind conditions

⚠️ RPAS operations within Class C require SFOC and ATC coordination - typically not suitable for routine L1C operations

Class D - Regional Airports (SFOC Required for RPAS)

Ottawa (CYOW)

  • • National capital airport
  • • Class D from SFC to 3,000 ft within 7 NM
  • • Government and commercial traffic
  • • Class C airspace above 3,000 ft

Victoria (CYYJ)

  • • BC provincial capital
  • • Class D with control zone
  • • Frequent seaplane traffic nearby
  • • Weather influenced by Pacific

London (CYXU)

  • • Southern Ontario regional
  • • Class D control zone
  • • Mix of commercial and training traffic
  • • Active flight school operations

Kelowna (CYLW)

  • • Okanagan Valley hub
  • • Class D with mountainous terrain
  • • Seasonal wildfire operations
  • • High summer traffic volume

⚠️ Class D operations require tower communication and authorization - coordination essential for RPAS

Class E - Transition Airspace (May Require Coordination)

Where you'll encounter Class E:

  • • Airways connecting major airports (Victor Airways, Jet Routes)
  • • Terminal control area transitions (surrounding Class C/D airspace)
  • • Typically starts at 2,200 ft AGL or higher in most areas
  • • Controlled airspace where ATC provides service to IFR traffic

Example: Flying near CYOW (Ottawa), Class E transition airspace extends beyond the Class D control zone, typically starting at 2,200 ft AGL. If your RPAS operates below 2,200 ft and outside the control zone, you're likely in Class G.

Most L1C operations below 400 ft AGL will be in Class G, not Class E

Class F & Class G - Where You'll Actually Fly (No ATC Required)

Class G (Uncontrolled): Most rural areas, agricultural land, remote regions

  • Example: Farm operations 50 km from any aerodrome - typically Class G from surface
  • Example: Northern Ontario mining site - Class G throughout most of the area
  • Example: Pipeline inspection in rural Alberta - Class G below 2,200 ft AGL

Class F (Advisory/Restricted/Danger): Special use airspace - check DAH and NOTAMs

  • CYA503(P) - Parachute zone near Gatineau, QC (check activity times)
  • CYA306(T) - Training area near Cold Lake, AB (military aircraft)
  • CYR518 - Restricted area for artillery range (never enter when active)

✓ Target these areas for L1C operations - no ATC coordination required, but always check NOTAMs for temporary restrictions!

Planning Tip for Site Selection:

  • 1. Check VFR charts: Identify airspace class at your operating altitude
  • 2. Measure distances: How far from nearest controlled airspace? (Use NRCAN DSST or VFR chart)
  • 3. Look for Class G: Rural areas >10 NM from aerodromes are usually Class G
  • 4. Check Class F: Any CYA/CYR/CYD areas nearby? When are they active?
  • 5. Review NOTAMs: Temporary restricted areas, military exercises, forest fire TFRs
  • 6. Document in ROM: Your site survey must include airspace classification and any coordination required

AC 903-001 7.0 Air Risk Determination

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This was not reviewed in Advanced RPAS training.

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ARC stands for Air Risk Class. In BVLOS under the L1C, you will be operating under ARC-A, -B, and occasionally -C.

ARC-D airspace is going to be handled under the SFOC process. NAV CANADA will get involved, because almost all ARC-D airspace is regulated by NAV CANADA.

ARC-A performance requirements for DAA are almost nonexistent. There is almost no requirement to have an onboard DAA to meet the requirements for ARC-A.

Class F Airspace Designations

Example: CYA113(A)

CY = Canada

Third Letter = Type:

  • A = Alert
  • D = Danger
  • R = Restricted

Numbers = Area Identification

Modifier in Parentheses:

  • (A) = Acrobatic
  • (F) = Aircraft Test Area
  • (H) = Hang Gliding
  • (M) = Military
  • (P) = Parachuting
  • (S) = Soaring
  • (T) = Training
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This may not have been covered in the Advanced RPAS exam, but some of these questions may be on the L1C exam.

Remind the students that questions related to airspace designation may in the L1C online exam.

Where to Find Airspace Dimensions?

Designated Airspace Handbook

  • • Includes user/controlling agency for Class F airspace (CYA, CYR)
  • • Effective dates
  • • 'Ultimate authority'
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Find information on this in the Designated Airspace Handbook, which is free to download. This handbook is the ultimate authority and law for the regulations when building programs and looking at a new site assessment, because it is regularly updated.

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Practice Question:

Can you find the Designated Airspace Handbook?

Answer: All participants can locate the handbook online.

Digital Tools

NAV Drone Map Viewer

Has a lot of airspace information and has a geographic representation of NOTAM closed areas

NRCAN Drone Site Selection Tool - 2 (DSST-2)

Can be used for BVLOS operations. Has already accounted for population density. If the area is shaded, don't fly. If the area is not shaded, fly (L1C operations).

VFR Navigation Charts (VNC)

Freemium Providers:

• SkyVector

• FltPlan Go (good for finding CFS airport information and VNC maps)

Commercial Providers:

• Foreflight (standard in traditional aviation)

• FlySafe

Where to Find Airport Information?

  • • Canada Flight Supplement
  • • Canada Water Aerodrome Supplement
  • • NRCAN Drone Site Selection Tool – 2
  • • VFR Navigation Charts (VNC)
  • • Commercial providers (Foreflight, Flysafe)
  • • Freemium providers (FltPlan Go, Sky Vector)
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Canada Flight Supplement (CFS):

  • Regularly updated. Do not buy paper copies, because they will become outdated quickly.
  • Most of the data contained in the CFS is also included with apps such as ForeFlight and FltPlanGo.
  • L1C operations cannot occur within 5 nautical miles of an aerodrome listed in this document.
  • DSST-2 tool has built the 5 nautical mile buffers around these aerodromes.
  • Aerodromes in this document are considered 'registered'. However, commercial airports may also be considered certified (cert) as meeting CARs Part III requirements for an airport.

CAR 602.96 Operations at or in the Vicinity of an Aerodrome

602.96(3) The pilot-in-command of an aircraft operating at or in the vicinity of an aerodrome shall:

(a) maintain a continuous listening watch on the appropriate frequency for aerodrome control communications or, if this is not possible and an air traffic control unit is in operation at the aerodrome, keep a watch for such instructions as may be issued by visual means by the air traffic control unit; and

(b) where the aerodrome is a controlled aerodrome, obtain from the appropriate air traffic control unit, either by radio communication or by visual signal, clearance to taxi, take off from or land at the aerodrome.

602.96(4) Traffic Pattern:

Unless otherwise authorized by the appropriate air traffic control unit or unless specified otherwise in the Canada Flight Supplement, no pilot-in-command shall operate an aircraft in the traffic pattern at an altitude that differs from the altitude specified in the Canada Flight Supplement for that aerodrome.

602.96(5) Altitude Restrictions:

Subject to subsection (6), no pilot-in-command of an aircraft shall operate the aircraft over an aerodrome at an altitude of less than 2,000 feet above aerodrome elevation unless the pilot-in-command is granted a clearance to do so by the appropriate air traffic control unit or the operation is conducted for one of the following purposes: take-off, approach and landing, conducting a practice approach, conducting an instrument approach procedure, aerial inspection, search and rescue operations, firefighting operations, police operations, ambulance flights, or military operations.

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Why does this matter for RPAS operations?

When conducting RPAS operations near an aerodrome, you need to understand manned aircraft traffic patterns. The standard traffic pattern is 1,000 feet AGL in a left-hand circuit (unless the CFS or ATC specifies otherwise). This is why RPAS typically operate at 400 feet AGL - well below the traffic pattern.

The 2,000 ft AGL rule for transient (passing through) aircraft means that any manned aircraft just flying over the aerodrome area must stay high to avoid conflicts with aircraft in the circuit. This creates a protected airspace layer (500-2,000 ft AGL) around aerodromes.

Real-world example: If you're flying a drone near an uncontrolled aerodrome at 300 ft AGL, manned aircraft will either be in the circuit at 1,000 ft AGL or transiting above 2,000 ft AGL - creating natural separation. However, you still need to monitor the appropriate frequency and watch for aircraft on approach or departure.

CAR 602.97 Uncontrolled Aerodromes within an MF Area

602.97(1) Equipment Requirement:

Subject to subsection (3), no pilot-in-command shall operate a VFR or IFR aircraft within an MF area unless the aircraft is equipped with radiocommunication equipment pursuant to Subpart 5.

602.97(2) Listening Watch:

The pilot-in-command of a VFR or IFR aircraft operating within an MF area shall maintain a listening watch on the mandatory frequency specified for use in the MF area.

CAR 602.100 - MF Reporting Procedures on Departure:

The pilot-in-command of an aircraft operating at an uncontrolled aerodrome within an MF area shall

(a) before conducting a take-off at the aerodrome, broadcast the aircraft identification, location, intentions and the type of operation to be conducted on the mandatory frequency; and

(b) after conducting a take-off at the aerodrome, broadcast on the mandatory frequency that the aircraft is clear of the circuit.

CAR 602.101 - MF Reporting Procedures on Arrival:

The pilot-in-command of an aircraft intending to land at an uncontrolled aerodrome within an MF area shall broadcast the following information on the mandatory frequency:

(a) when the aircraft is at a distance of approximately five nautical miles from the aerodrome, the aircraft identification, location, altitude, intentions and estimated time of arrival at the aerodrome;

(b) when joining the aerodrome traffic circuit, the aircraft identification and the position in the circuit; and

(c) after landing at the aerodrome, the aircraft identification and the location on the aerodrome.

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MF (Mandatory Frequency) Areas - What RPAS Pilots Need to Know:

An MF area is designated airspace around an uncontrolled aerodrome where all aircraft must monitor a specific radio frequency. For manned aircraft, this means broadcasting their position and intentions at specific times (5 miles out, entering circuit, taking off, landing, etc.).

Why this matters for drones: While RPAS are not required to make radio calls, if you're operating near an MF area, monitoring the frequency gives you situational awareness of manned aircraft activity. You'll hear pilots announcing their positions and can plan accordingly.

Example: You're flying a drone 3 NM from an aerodrome within the MF area. You hear a pilot broadcast "5 miles north, inbound for landing." This tells you a plane is approaching your area and you should prepare to land your drone or ensure you're well clear of their approach path.

CAR 601.14 Minimum Altitudes & Distances

Subject to subsections (2) to (5), no person shall operate an aircraft

(a) over a built-up area at an altitude less than 1,000 feet above the highest obstacle located within a horizontal distance of 2,000 feet from the aircraft;

(b) over any place other than a built-up area at an altitude less than 500 feet above the surface; or

(c) over an open-air assembly of persons at an altitude less than 1,000 feet above that assembly, unless the pilot-in-command is taking off, cruising, landing or conducting a police operation and does so in accordance with the Canadian Aviation Regulations.

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Why This Matters for RPAS Operations:

CAR 601.14 applies to ALL aircraft including RPAS. However, Part IX regulations (CARs 900-series) provide specific RPAS rules that work alongside these general minimums.

Understanding the Altitudes:

  • Built-up area: 1,000 ft above highest obstacle within 2,000 ft horizontal radius. This high minimum exists because manned aircraft need clearance for emergency engine-out glides to clear landing areas.
  • Non-built-up area: 500 ft AGL minimum. Provides separation from terrain, wildlife, and allows aircraft to maneuver safely.
  • Open-air assembly: 1,000 ft above the assembly. Protects crowds (concerts, festivals, sporting events) from aircraft overhead.

The "Built-Up Area" Definition Problem:

There is no official definition of what constitutes a "built-up area" in the CARs - this is a known gap. Practically, it means areas with concentrated buildings/structures (cities, towns, subdivisions), but the boundary is subjective.

How RPAS Part IX Addresses This:

  • Population density approach: Part IX uses NRCAN population density classifications (populated vs sparsely populated) instead of "built-up area," providing more objective criteria.
  • RPAS operating below 400 ft AGL: Most L1C operations stay well below the 500-1,000 ft minimums in CAR 601.14, so they're compliant by altitude alone. However, you still must respect Part IX population/distance requirements.
  • Manned aircraft flying above you: CAR 601.14 ensures manned aircraft maintain altitude separation. When you operate RPAS below 400 ft, manned aircraft should be 500+ ft above you (100+ ft vertical separation).

Bottom Line: As an RPAS operator, you're typically operating well below these minimums. Your responsibility is to stay low (≤400 ft AGL) and follow Part IX population density rules, while manned aircraft maintain CAR 601.14 altitude minimums above you.

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Practice Question:

What is the definition of a built-up area?

Answer: There is no official definition of what a built-up area is in the CARs. This is a known gap in the regulations. For RPAS operations, we use population density classifications from NRCAN instead, which provides objective data on populated vs sparsely populated areas.

CAR 602.15 Permissible Low Altitude Flight

602.15(1) A person may operate an aircraft at altitudes and distances less than those specified in subsection 602.14(2) where the aircraft is operated

(a) for the purpose of a police operation that is conducted in the service of a police authority;

(b) for the purpose of saving human life;

(c) for the purpose of a firefighting operation or an ambulance flight;

(d) for the purpose of the administration of the Fisheries Act or the Coastal Fisheries Protection Act;

(e) for the purpose of the administration of the national or provincial parks;

(f) for the purpose of a flight inspection authorized by the Minister;

(g) for the purpose of flight training, aerial application, aerial inspection, aerial photography or aerial surveying, where the aircraft is operated in accordance with an air operator certificate, a flight training unit operator certificate or a private operator certificate;

(h) in respect of a helicopter, for the purpose of transporting, hoisting or depositing an external load;

(i) in respect of a helicopter, for the purpose of flight training, where the aircraft is operated at an aerodrome;

Key Conditions:

The aircraft must be operated at altitudes and distances that are no less than necessary for the purposes of the operation, and the aircraft must be operated without creating a hazard to persons or property on the surface.

💡

Why Traditional Aircraft Can Fly Lower Than 500 ft AGL:

While CAR 602.14 sets minimum altitudes (500 ft AGL over open areas, 1,000 ft over built-up areas), CAR 602.15 provides exceptions for specific operations. This is critical for understanding why you might encounter low-flying aircraft even when you're operating your drone well below 500 feet.

Common scenarios RPAS pilots encounter:

1. Police helicopters conducting surveillance can legally fly at low altitudes in your area

2. Agricultural aircraft (crop dusters) flying below 500 ft are operating legally under subsection (g)

3. Search and rescue or firefighting aircraft have priority and can fly very low

4. Helicopters with external loads (construction, forestry) operating at low altitudes

Key takeaway: Just because you're flying your drone at 200 ft doesn't mean you have that airspace to yourself. Always maintain visual observers and be prepared to yield to manned aircraft, which may legally be operating at the same altitude for legitimate purposes.

CAR 601.15 Forest Fire Aircraft Operating Restrictions

No person shall operate an aircraft:

  • (a) over a forest fire area, or over any area that is located within 5 nautical miles of a forest fire area, at an altitude of less than 3,000 ft AGL; or
  • (b) in any airspace that is described in a NOTAM issued pursuant to section 601.16.
💡

Wildfire operations are frequently suspended, because a drone was flying too close. Even a traditional aircraft can't fly near a wildfire (within 5 nautical miles and at an altitude of less than 3,000 ft AGL).

Drone operators are required to avoid wildfire areas even if there is no closed NOTAM space (designated and undesignated). Traditional air pilots are required to report wildfires.

ℹ️

Example incidents when a drone has caused a suspicion to flight operations: [Links to news articles provided in original]

CARs Part IX – RPAS Regulations

💡

CARs Part IX includes the most important regulations for drone operators. There have been a lot of changes in this new body of rules.

Timeline of Part IX to CARs

2019

CARs Part IX

New part of the Canadian Aviation Regulations to address small remotely piloted aircraft systems. SFOC process manages operations not addressed by Part IX.

2020

NPA Lower-Risk BVLOS

Notice of proposed amendments to CARs Part IX to address low-risk BVLOS.

2023

Canada Gazette, Part I Lower-Risk BVLOS

Proposed changes to CARs Part IX to consolidate low-risk BVLOS operations.

2025

Canada Gazette, Part II Lower-Risk BVLOS

Enactment of changes to CARs Part IX, fully coming into effect November 4, 2025.

💡

CARs Part IX is the second-newest part of CARs and applies to everything related to RPAS. Canada is one of the world leaders in BVLOS operations in terms of regulations.

Prior to 2019, all drone operations happened with an SFOC (Part 9 of CARs did not exist). L1C operations are covered under CAR 901 operations.

Transport Canada used the SFOC process as a learning ground. The work done in Phase 1 UTM trials was learning for operators, Transport Canada, and NAV CANADA. A lot of the lessons learned got converted into the L1C regulations.

CARs Part IX Structure

Subpart 1 is CARs 901 and talks about all the different operating conditions.

Key Divisions:

  • Division I: General Provisions
  • Division II: General Operating and Flight Rules
  • Division III: Registration and Basic Operations
  • Division IV: Basic Operations
  • Division V: Advanced Operations
  • • Division VI: L1C Operations (Critical Section)
  • Division X: Training and Flight Review
  • Division XI: RPAS Declarations
  • • Division XII: RPAS Operator Certificate
💡

We will discuss Division 6 (L1C Operations) and Division 12 (RPAS Operator Certificate) the most. Division 5 (Advanced Operations) has changes that grant a lot of additional privileges. We will not delve deeply into Subpart 3.

Part IX – Division I: General Provisions & Definitions

It is important that everyone is familiar with these definitions, so everyone is speaking the same language.

Advertised Event

An outdoor event that is advertised to the general public, including a concert, festival, market, or sporting event

Note: An event is considered advertised if you're making a public invitation. For example, a wedding would not count. A drone under 250g still needs an SFOC to operate at an advertised event.

BVLOS Operation

An operation of an RPA that is not in VLOS, but does not include an extended VLOS operation or a sheltered operation

Note: When the drone is not in VLOS of the pilot or visual observer. BVLOS does not include an extended VLOS operation.

Contingency Procedures

The procedures to be followed to address conditions that could lead to an unsafe situation

Contingency Volume

The area immediately surrounding the flight geography within which contingency procedures are intended to be used to return an RPA to the flight geography or safely terminate the flight

Extended VLOS Operation

An operation of an RPA that is not in VLOS but during which unaided visual contact is maintained with the airspace in which the aircraft is operating in a manner sufficient to detect conflicting air traffic and other hazards and take action to avoid them

Note: Extended VLOS is not BVLOS under CARs Part 9.

Flight Geography

The area within which an RPA is intended to fly for a specific operation

How to Define Flight Geography in Your ROM:

Option 1 - Coordinates: "Flight geography is bounded by coordinates N45°25.5' W75°41.2' (NW corner), N45°24.8' W75°40.1' (SE corner), altitude 0-400 ft AGL"

Option 2 - Visual Boundaries: "Flight geography extends from the north property fence line to the south treeline, west boundary at Highway 7, east boundary at the creek, altitude 0-300 ft AGL"

Option 3 - Radius: "Flight geography is a 2 NM radius centered on N45°25.123' W75°40.456', altitude 0-400 ft AGL"

⚠️ Your ROM must clearly define how you establish flight geography for each mission type!

Fly-away

In respect of an RPA, an interruption or loss of the command and control link, such that the pilot no longer being able to control the aircraft and the aircraft no longer following its preprogrammed procedures or operating in a predictable or planned manner

Note: People often confuse an RTL event with a fly-away. If the drone is doing what it was programmed to do after loss of control, it is not a fly-away. A fly-away is when the RPAS departs the operational volume and you can no longer control it.

Ground Risk Buffer

The area immediately surrounding the contingency volume that, when measured horizontally from the perimeter of the contingency volume, is at least equal to the planned maximum altitude of the RPA for the flight

Ground Risk Buffer Calculation Examples:

Example 1: Basic Calculation

  • • Planned maximum altitude: 400 ft AGL
  • • Minimum ground risk buffer: 400 ft horizontal from contingency volume perimeter
  • • Reasoning: Regulatory minimum = altitude (1:1 ratio)

Total protected area = Flight Geography + Contingency Volume + 400 ft buffer

Example 2: Wind Considerations (Conservative Approach)

  • • Planned maximum altitude: 300 ft AGL
  • • Wind conditions: 20 kt sustained, gusting 30 kt
  • • RPAS glide ratio: 3:1 (loses 1 ft altitude per 3 ft horizontal)
  • • Regulatory minimum buffer: 300 ft
  • • Wind drift calculation: 30 kt = ~50 ft/sec. Time to descend from 300 ft at 10 ft/sec = 30 seconds
  • • Potential wind drift: 50 ft/sec × 30 sec = 1,500 ft
  • • Recommended buffer: 1,500 ft (greater of regulatory min or wind drift)

⚠️ Professional practice: Calculate worst-case wind drift and use the larger value!

Example 3: Fly-Away Scenario Planning

  • • RPAS: DJI M300 RTK
  • • Maximum speed: 50 kt (82 ft/sec)
  • • Battery endurance: 15 minutes remaining
  • • Planned altitude: 400 ft AGL
  • • Regulatory minimum: 400 ft buffer
  • • Worst case fly-away: 82 ft/sec × 900 sec (15 min) = 73,800 ft = 12.3 NM
  • • Practical buffer considering terrain: 2 NM (account for obstacles forcing landing)

🚨 This shows why contingency procedures (geofencing, return-to-home, battery monitoring) are CRITICAL!

Example 4: Mission Planning Integration

Agricultural survey mission:

  • Flight Geography: 1 NM × 0.5 NM rectangular field pattern, 0-200 ft AGL
  • Contingency Volume: 200 ft buffer around flight geography (RTL path)
  • Ground Risk Buffer: Minimum 200 ft (= max altitude) from contingency volume perimeter
  • Wind adjustment: 15 kt winds → add 500 ft buffer = 700 ft total
  • Population check: Ensure no populated areas within ground risk buffer
  • Result: Total protected area requires ~1.3 NM × 0.8 NM clear zone

Factors That Increase Ground Risk Buffer Size:

  • High winds: Increase drift potential during descent
  • Heavy payload: Affects glide ratio and descent rate
  • Low battery: Limits contingency options
  • Complex terrain: Mountains, buildings affect descent paths
  • Multiple RPAS: Larger collective protected area
  • Population density: Higher risk requires larger buffer
  • RPAS performance: Faster aircraft = larger potential impact area

ROM Requirements for Ground Risk Buffer:

  • • Specify calculation method (regulatory minimum + wind factor)
  • • Define when to use conservative buffers (high wind, populated areas)
  • • Include pre-flight buffer verification checklist
  • • Document how buffer is measured and enforced (geofencing?)
  • • Specify who approves buffer calculations (Person Responsible for Operations)
  • • Require buffer review when conditions change (wind increase, altitude change)

Key Principle: Ground Risk Buffer is your last line of defense against ground impact outside your operational area. Always err on the side of caution!

Mandatory Action

The inspection, repair, or modification of an RPAS that is necessary to prevent an unsafe or potentially unsafe condition

Note: Something the operator and maintenance personnel are going to have to do to maintain the airworthiness of the aircraft.

Medium Remotely Piloted Aircraft (mRPAS)

An RPA that has an operating weight of more than 25 kg (55 lbs) but not more than 150 kg (331 lbs)

Note: New category that is allowed under your advanced privileges. Organizations can operate an RPAS between 25kg and 150kg without an SFOC. There are different privileges and safety assurances depending on whether pilots are operating a small or medium RPAS.

Small Remotely Piloted Aircraft (sRPAS)

An RPA that has an operating weight of at least 250 g (0.55 lb) but not more than 25 kg (55 lbs)

Operational Volume

The area that is composed of the flight geography, contingency volume, and ground risk buffer

Payload

A system, object, or collection of objects, including a slung load, that is on board or is otherwise connected to an RPA but that is not required for flight

Note: Anything that does not contribute to the operation of the aircraft (e.g., camera, delivery items).

Populated Area

An area with more than 5 people per square kilometre

Sparsely Populated Area

An area with more than 5 but not more than 25 people per square kilometre

RPAS Ground School Instruction

Instructor-led training given to 1 or more persons, delivered in-person or virtually, and provided through an organized program of lectures, homework, or self-paced study

Note: This course!

RPAS Operations Manual (ROM)

The manual established by an RPAS operator under section 901.217

Note: People that have been doing SFOCs most likely already have a ROM. Under L1C, Transport Canada required RPAS operators to have a ROM in addition to the license.

RPAS Operator

The holder of an RPAS Operator Certificate

IMPORTANT: Not the same as RPAS pilot. Under the L1C, RPAS operations look more like a small airline with structure, organizational control, maintenance procedures, etc. That group (holder of the RPAS Operator Certificate) is referred to as the RPAS operator, instead of the pilot.

RPAS Operator Certificate

A certificate issued under section 901.214

Sheltered Operation

An operation of an RPA that is not in VLOS and during which the aircraft remains at less than 200 ft (61 m), measured horizontally, from a building or structure and at an altitude no greater than 100 ft (30 m) above that building or structure

Operating Weight

The weight of an RPA at any point during a flight, including any payload and any safety equipment that is on board or otherwise connected to the aircraft

Note: Different from the maximum takeoff weight of an aircraft, which is a defined limitation that comes from the manufacturer.

Visual Line-of-sight (VLOS)

Unaided visual contact maintained with an RPA in a manner sufficient to maintain control of the aircraft, know its location, and scan the airspace in which it is operating to detect conflicting air traffic and other hazards and take action to avoid them

Note: Pilots must know the drone's location and see the drone close enough to be able to control it. There is no fixed limit, but this is typically 800 m to 1.2 km based on the size of the drone and meteorological conditions.

Visual Observer (VO)

A crew member who is trained to assist the pilot in ensuring the safe conduct of a flight

Note: It is important that this person is trained.

ℹ️

In the in-person in-flight review, participants will need to state what the population density is for the proposed area of flight operations. The 2021 Census by Statistics Canada is the current standard for assessing this.

Part IX – Division II & III: Basic Operations

CAR 900.08 Emergency Security Perimeter

"No person shall operate an RPA over or within the security perimeter established by a public authority in response to an emergency, unless an operation is conducted in the service of a public authority."

💡

Police, firefighters, and other public authority have a legal right to operate drones within an emergency security perimeter. There is no CAR on security perimeter for manned aviation. These security perimeter rules also apply to microdrones.

🎯

Discussion:

What physically delineates a security perimeter? What are the challenges in identifying the security perimeter to apply this CAR?

CAR 900.09 General Operating and Flight Rules

💡

Commercial air service used to refer to CARs Part 7 (Air Canada, West Jet, etc.). Now, CARs acknowledges that drones can perform commercial air services.

Operators don't need an SFOC if they're a non-resident/non-Canadian and operating under a free trade agreement. When operators haul goods, they need a CTA license, and the Canadian government will get a tax cut.

CAR 900.14-900.20 RPAS Registration

CAR 900.14 - Registration Required

No person shall operate a remotely piloted aircraft that is registered in accordance with Subpart 2 of Part I unless it is marked with its registration mark in accordance with section 202.26.

CAR 900.15 - Owner Registration

The owner of a remotely piloted aircraft shall register it if the aircraft weighs more than 250 g and less than 25 kg.

CAR 900.16 - Registration Not Required

The owner of a remotely piloted aircraft that is used exclusively for recreational purposes and has a maximum take-off weight of 250 g or less is not required to register it.

💡

What Changed in New Regulations:

Previously, drones above 25 kg could not be registered through the Drone Management Portal (DMP). Now, operators CAN register drones over 25 kg through the DMP, simplifying the process for medium and large RPAS.

Registration Requirements Summary:

  • Under 250 g (recreational only): No registration required
  • 250 g - 25 kg: MUST register through Drone Management Portal
  • Over 25 kg: NOW can register through DMP (new capability)

How to Register:

  1. 1. Create account at Drone Management Portal (tc.canada.ca/drones)
  2. 2. Enter drone details (make, model, serial number, weight)
  3. 3. Pay $5 registration fee (valid 1 year)
  4. 4. Receive registration number (e.g., C-ABCD1234)
  5. 5. Mark drone with registration number (permanent, fire-resistant marker or label)

Marking Requirements (CAR 202.26):

  • • Must be visible without tools (no battery compartment)
  • • Fire-resistant marking (won't burn off in crash)
  • • Readable (not hidden, not tiny text)
  • • Permanent (engraving, label, marker - not easily removed)

Common Registration Issues:

  • Serial number doesn't match format: DJI uses different formats - enter exactly as shown on drone
  • Multiple drones same model: Each drone needs separate registration (unique serial numbers)
  • Forgot to renew: Registration expires after 1 year - set calendar reminder
  • Marking inside battery bay: Not compliant - must be visible without opening/removing parts
  • Using old registration after selling drone: New owner must re-register in their name

Pro Tip: Take a photo of your registration certificate and marking on the drone. Keep it in your flight documents for quick reference during inspections.

CAR 901.19 Fitness of Crew Members

901.19(1) General Fitness:

No person shall act as a crew member of a remotely piloted aircraft system if the person (a) is suffering or is likely to suffer from fatigue; or (b) is otherwise unfit to perform properly the person's duties.

901.19(2) Alcohol and Drugs:

No person shall act as a crew member of a remotely piloted aircraft system

(a) within 12 hours after consuming an alcoholic beverage;

(b) while under the influence of alcohol; or

(c) while using any drug that impairs the person's faculties to the extent that aviation safety or the safety of any person is endangered or likely to be endangered.

💡

The "12-Hour Bottle-to-Throttle" Rule:

This regulation is identical to manned aviation rules. The 12-hour minimum waiting period applies regardless of how much you drank. Had one beer? 12 hours. Had several drinks? Still minimum 12 hours (but likely need more time).

Common Misconceptions:

1. "It's just a drone, not a real aircraft" - Wrong. RPAS crew members are held to the same fitness standards as manned aircraft pilots.

2. "I have a prescription, so it's okay" - Wrong. If the medication impairs your judgment or reaction time (e.g., opioid painkillers, medicinal cannabis, sedating antihistamines), you cannot act as a crew member, prescription or not.

3. "I feel fine" - Fatigue and impairment reduce your ability to recognize that you're impaired. If you worked a 12-hour shift and someone calls you for an "emergency" drone flight, you must decline.

Real-world scenario: Your company has a Friday evening team event where alcohol is served. You have a drone operation scheduled for Saturday at 8 AM. If you have a drink at 9 PM Friday, you cannot legally fly until 9 AM Saturday (12 hours later). Plan accordingly.

No medical certificate required: Unlike traditional pilots, RPAS pilots don't need a Transport Canada medical. However, this places greater responsibility on YOU to self-assess fitness before every flight. Many operators use a IMSAFE checklist: Illness, Medication, Stress, Alcohol, Fatigue, Emotion.

🎯

Discussion:

What are the current organizational policies towards drugs and alcohol? Do they meet the above regulation? Does your organization have a formal fitness-to-fly policy that crew members must follow? Are there specific medications that are prohibited in your industry?

CAR 901.24 Pre-Flight Information

A pilot of a remotely piloted aircraft shall, before commencing a flight, be familiar with the information that is relevant to the intended flight, including:

(a) the results of the site survey conducted under section 901.27;

(b) any declaration referred to in section 901.194 made in respect of the model of remotely piloted aircraft system to be used for the flight; and

(c) the qualifications of all crew members.

💡

The Pilot's Pre-Flight Responsibility - "Familiar With" Means More Than Just Reading:

This regulation places direct responsibility on the pilot-in-command to be familiar with three critical pieces of information before every flight. Notice it says "familiar with," not just "have access to." You must understand the content, not just have it in your flight bag.

(a) Site Survey Results: Even if someone else conducted the site survey, YOU as the pilot must review and understand it. What are the hazards? Where are the obstacles? What's the emergency landing area? If the site survey is 6 months old and a new cell tower has been built, you need an updated survey.

(b) RPAS Declaration (Safety Assurance): Know what your drone is declared for. If your DJI M300 has a declaration for BVLOS operations, but you've added a third-party payload that wasn't tested by the manufacturer, your declaration may no longer be valid. Check Transport Canada's public list of declarations before flight.

(c) Crew Qualifications: Verify that all crew members (visual observers, other pilots, technical crew) hold valid certificates and current recency. Don't assume your VO's basic certificate is still current - check the date.

Common mistake: Pilots sometimes accept a job and show up to fly without reviewing the site survey first. The operations manager did the survey, so the pilot assumes it's fine. Then they arrive and discover the site is near a hospital helipad (prohibited) or has power lines not marked on the map. By regulation, this is the PILOT'S responsibility to verify before flight, not after arrival.

CAR 901.26 Horizontal Distances (VLOS)

No person shall operate a remotely piloted aircraft in VLOS:

(a) in the case of a small remotely piloted aircraft, over a person unless the aircraft remains, during the operation, at least 30 m horizontally and at least 5 m vertically from that person;

(b) in the case of a medium remotely piloted aircraft, over or near a person unless the aircraft remains, during the operation, at least 152 m horizontally from that person; or

(c) in the case of a large remotely piloted aircraft, over or near a person.

💡

Understanding "Over" vs "Near" a Person:

  • Small RPAS (250 g - 25 kg): Can operate over people if maintaining 30 m horizontal AND 5 m vertical separation. This means if your drone is at 20 m altitude, you can be directly over someone, but if it's only 3 m up, you need 30 m horizontal distance.
  • Medium RPAS (25 kg - 150 kg): Cannot operate "over OR near" people. Must maintain 152 m (500 ft) horizontal distance at all times. No vertical separation option - it's absolute horizontal distance.
  • Large RPAS (over 150 kg): Prohibited from operating over or near people under basic VLOS rules. Requires SFOC for any operations near people.

Practical Measurement:

  • 30 m horizontal: About 100 feet, or roughly 10-12 paces. Typical residential lot width is 15-20 m, so 30 m is about 1.5-2 lot widths.
  • 5 m vertical: About 16 feet. A typical single-story house is ~3-4 m tall, so 5 m is slightly higher than a one-story building.
  • 152 m horizontal: About 500 feet or 1.5 football fields. This is significant separation - most medium RPAS operations will be BVLOS (L1C) due to this requirement pushing beyond visual range.

Common Scenarios:

  • Mapping a construction site (small RPAS): Workers on site must stay 30+ m away OR your drone must stay 5+ m above them. Pre-brief workers to clear the flight area or designate safe zones.
  • Pipeline inspection (medium RPAS like M300): Cannot fly if hikers/workers within 152 m. Must have site control or spotters to ensure area is clear before operations.
  • City operations: Even small RPAS can't maintain 30 m from all people in busy urban areas. This is why most city operations require SFOC or operate in controlled areas (rooftops, closed streets).

Key Takeaway: These distances are measured during the entire operation. If someone walks into your operational area mid-flight, you must immediately maneuver to maintain required separation or land.

CAR 901.27 Site Survey

The pilot-in-command of a remotely piloted aircraft shall, before conducting an operation, conduct or review a site survey of the area of the operation to identify

(a) any potential hazards to persons, property or other aircraft;

(b) any persons at or near the area who may be affected by the operation;

(c) any aviation activities near the area; and

(d) the population density of areas in or near the area of the operation.

💡

What Changed in the New Regulations:

Subsection (d) - population density - is NEW. Previously, site surveys focused on hazards, people present, and aviation activity. Now BVLOS operators must identify and document population density using objective data sources.

How to Determine Population Density:

  • NRCAN Drone Site Selection Tool (DSST-2): Official government tool showing populated vs sparsely populated areas on a map. Available at: https://natural-resources.canada.ca/drones
  • Statistics Canada Population Density Data: Provides people per square kilometer by dissemination area. Allows precise calculation for specific locations.
  • Definitions:
    • Populated Area: 1 or more persons per 5,000 m² (population density ≥ 200 per km²)
    • Sparsely Populated Area: Less than 1 person per 5,000 m² (population density < 200 per km²)

Site Survey Timing:

"Before conducting an operation" means either:

  • Conduct: Physically visit the site, observe conditions, document findings (recommended for new sites)
  • Review: Use previously conducted site survey if site hasn't changed (must verify currency before each mission series)

Best Practice: Site surveys should be reviewed/updated annually OR whenever significant changes occur (new buildings, changed land use, new aviation activity).

ℹ️

Site Survey Checklist & Examples

What a Proper Site Survey Must Include:

✓ Airspace Information

  • • Airspace class
  • • Controlled vs uncontrolled
  • • SFC boundaries
  • • NOTAMs affecting area
  • • Nearby aerodromes

✓ Population Density

  • • NRCAN DSST classification
  • • Populated areas within 1 NM
  • • Roads, highways proximity
  • • Buildings, structures
  • • Public gatherings potential

✓ Hazards & Obstacles

  • • Towers, powerlines height
  • • Trees, terrain features
  • • Wildlife (birds, nesting)
  • • Weather patterns
  • • Electromagnetic interference

✓ Operational Considerations

  • • GCS location options
  • • VO positioning
  • • Escape routes
  • • Emergency landing zones
  • • Access roads/permissions

Example Site Survey (Agricultural Monitoring)

Location: Rural farmland, 20 km southwest of Ottawa, ON

Coordinates: Center point N45°15.234' W75°52.123'

Date Surveyed: 2026-03-15 | Valid Until: 2027-03-15 (annual review required)

Airspace:

  • • Class G uncontrolled airspace
  • • 15 NM from CYOW (Ottawa/Macdonald-Cartier), Class C SFC at 12 NM
  • • No active NOTAMs or restrictions
  • • Nearest aerodrome: Rockcliffe (CYRO) 18 NM northeast

Population Density (NRCAN DSST):

  • • Classification: Sparsely populated (<1 person per 5,000 m²)
  • • Farmhouse 800 m east of center (1 family)
  • • County road 2 km south (light traffic, ~10 vehicles/hour)
  • • Nearest town: 5 km north (population 2,500)
  • • No advertised events expected in area

Hazards/Obstacles:

  • • Powerlines along east property boundary - 60 ft AGL (marked on map)
  • • Grain silo 1.2 km southeast - 120 ft AGL
  • • Tree line north boundary - 40-50 ft AGL
  • • Red-tailed hawks observed nesting in trees (seasonal, April-August)
  • • Prevailing winds: west/southwest, calm mornings typical

Operations Plan:

  • • GCS location: North field access road (coordinates provided)
  • • VO position: Center field elevation (line of sight to all areas)
  • • Flight geography: 1 NM radius, max altitude 300 ft AGL
  • • Emergency landing zones: 3 open fields identified (coordinates mapped)
  • • Landowner permission: Obtained, valid through October 2026

Weather Considerations:

  • • Nearest METAR: CYOW (20 km), update frequency: hourly
  • • Local effects: Morning fog common in low areas (burn off by 09:00)
  • • Abort criteria: If visibility < 4 SM or ceiling < 1,200 ft

✓ Site survey documented in ROM Section 4.2, reviewed and approved by Person Responsible for Operations

Common Site Survey Mistakes to Avoid:

  • Generic descriptions: "Rural area, no hazards" is insufficient. Be specific with measurements, coordinates, obstacle heights.
  • Outdated information: Not checking NOTAMs day-of. Site surveys should be reviewed before each mission series.
  • Missing population density: Assuming "looks empty" without checking NRCAN DSST or StatsCan data.
  • Ignoring seasonal changes: Bird migrations, crop heights, seasonal events (fairs, festivals) change site conditions.
  • No emergency planning: Not identifying emergency landing zones or abort procedures.
  • Vague boundaries: "Somewhere around the farm" instead of precise flight geography coordinates.
  • Single visit: Not observing different times of day (morning fog, afternoon traffic patterns, evening wildlife).

ROM Requirement:

Your RPAS Operations Manual must specify:

  • • Site survey template/checklist format
  • • Who is authorized to conduct site surveys
  • • How often surveys must be reviewed/updated
  • • Where site survey documentation is stored
  • • Process for updating surveys when conditions change

CAR 901.34 Minimum Weather Conditions

No person shall operate a remotely piloted aircraft in VLOS unless:

(a) the aircraft is operated in accordance with the operating limitations specified by the manufacturer, including those limitations respecting meteorological conditions; and

(b) in the case of a micro remotely piloted aircraft or a small remotely piloted aircraft, the ground visibility is 3 SM or more and the distance between the aircraft and any cloud is at least 500 feet measured vertically and 2,000 feet measured horizontally or, if the ground visibility is less than 4 SM, the aircraft remains, during the operation, within a horizontal distance from the pilot-in-command that is not greater than half of the distance corresponding to the ground visibility.

⚠️ Operations outside of these conditions require an SFOC.

💡

Understanding the Two Requirements:

Requirement (a) - Manufacturer Operating Limitations: You MUST follow the drone manufacturer's weather limits. Check your aircraft manual for maximum wind speeds, operating temperature ranges, precipitation limits, etc. CAR 901.34(a) makes manufacturer weather limits legally binding.

Requirement (b) - Regulatory Weather Minimums (micro/small RPAS only):

  • Standard weather: Visibility ≥ 3 SM, cloud distance 500 ft vertical / 2,000 ft horizontal
  • Reduced visibility: If visibility < 4 SM, stay within HALF that distance from PIC
    • • Example: 2 SM visibility → stay within 1 SM of pilot
    • • Example: 3 SM visibility → stay within 1.5 SM of pilot

Why the Reduced Visibility Rule Exists:

In lower visibility, you need to keep the drone closer so you can maintain VLOS and see conflicting traffic. The closer proximity compensates for reduced atmospheric clarity.

Medium & Large RPAS:

Note that subsection (b) only applies to micro and small RPAS. Medium and large RPAS operations have different weather requirements (typically requiring SFOC for VLOS anyway).

Cloud Distance Clarification:

500 ft vertical means if cloud base is at 1,000 ft AGL, you must stay below 500 ft AGL. 2,000 ft horizontal means don't fly into or near cloud edges. This allows manned aircraft operating in clouds to have separation from your RPAS.

ℹ️

How to Actually Assess Weather for RPAS Operations

1. Reading METAR Reports

CYOW 311500Z 27015G25KT 3SM -RA BR BKN008 OVC015 05/04 A2990 RMK SF5SC3

  • CYOW = Ottawa Airport
  • 311500Z = 31st day, 1500 UTC
  • 27015G25KT = Wind from 270° at 15 kt, gusting to 25 kt
  • 3SM = Visibility 3 statute miles (MINIMUM for Standard 923!)
  • -RA BR = Light rain, mist
  • BKN008 OVC015 = Broken clouds at 800 ft, Overcast at 1,500 ft (ceiling = 800 ft, BELOW 1,000 ft minimum!)
  • 05/04 = Temperature 5°C, Dewpoint 4°C (small spread = fog risk)

❌ This weather is NOT suitable for Standard 923 operations - ceiling too low (800 ft < 1,000 ft required)

2. Reading TAF (Terminal Aerodrome Forecast)

TAF CYOW 311138Z 3112/0118 30012KT P6SM FEW050 SCT120
FM311800 28015G25KT 4SM -SHRA BR BKN015 OVC040
TEMPO 3118/3122 2SM -SHRA BR BKN008

  • 3112/0118 = Valid from 31st 1200Z to 1st 1800Z (30 hours)
  • P6SM = Visibility greater than 6 SM (good!)
  • FEW050 SCT120 = Few clouds at 5,000 ft, Scattered at 12,000 ft (excellent ceiling!)
  • FM311800 = From 31st at 1800Z conditions change
  • 4SM -SHRA BR BKN015 = Vis drops to 4 SM, light rain showers, broken at 1,500 ft
  • TEMPO 3118/3122 2SM = Temporarily between 1800-2200Z visibility may drop to 2 SM

⚠️ Plan your mission timing! Good weather early, deteriorating after 1800Z. TEMPO period has 2 SM visibility (below minimums).

3. Cloud Coverage Interpretation

SKC/CLR

Sky clear - no ceiling

FEW (1-2 oktas)

Few clouds - no ceiling

SCT (3-4 oktas)

Scattered - no ceiling

BKN (5-7 oktas)

Broken - THIS IS A CEILING

OVC (8 oktas)

Overcast - THIS IS A CEILING

VV

Vertical visibility - obscured sky

Ceiling = lowest BKN, OVC, or VV layer. Must be 1,000 ft AGL or higher for Standard 923!

4. Visibility Measurement Techniques

  • Farm section lines: In prairie provinces, most sections are 1 mile × 1 mile. Quarter section = 0.5 SM. If you can see 6 quarter-sections, that's 3 SM (minimum!)
  • Known landmarks: Identify towers, buildings, or features at known distances. Can you clearly see the tower 3 miles away?
  • Contrast test: At 3 SM, you should see distinct colors and shapes. At 1-2 SM, edges blur together.
  • Nearest METAR: If METAR says 3 SM but you assess visibility as worse, use the more conservative value.

5. Ceiling Estimation Techniques

  • Communication towers: Most are 200-300 ft tall. If clouds are touching halfway up a 300 ft tower = 150 ft ceiling (too low!)
  • Hills/mountains: If you know terrain elevation, clouds hitting hillsides indicate ceiling height
  • Nearest METAR: Airport METAR ceiling is measured precisely with ceilometer
  • Pireps (Pilot Reports): Manned aircraft report cloud base heights
  • Rule of thumb: If clouds look "low and threatening", they probably are below 1,000 ft

6. When METAR and Observations Conflict

The nearest METAR reports 5 SM visibility and 2,000 ft ceiling, but at your site visibility looks like 2 SM with lower clouds.

ALWAYS use the more conservative assessment!

Weather varies by location. METARs are point observations at airports. If your on-site assessment is worse than METAR, trust your eyes and don't fly. Your ROM should specify this decision-making process.

Pro Tips for Weather Decision-Making:

  • ✓ Check multiple METAR stations around your operating area
  • ✓ Review TAF for trends - is weather improving or deteriorating?
  • ✓ Monitor real-time: weather radar, satellite imagery, webcams
  • ✓ Set personal minimums above regulatory minimums (e.g., 4 SM instead of 3 SM)
  • ✓ Have abort criteria in your ROM - what weather change triggers RTB?
  • ✓ Document weather assessment in your flight log (METAR time, conditions, decision rationale)
  • ✓ When temperature/dewpoint spread < 3°C, fog risk is HIGH - monitor closely

CAR 901.35 Icing Conditions

No person shall operate a remotely piloted aircraft:

(a) when icing conditions are observed, are reported to exist or are likely to be encountered during the operation, unless the aircraft is equipped with operational de-icing or anti-icing equipment and that equipment is used during the operation; or

(b) when frost, ice or snow is adhering to any of the critical surfaces of the aircraft.

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What This Means in Practice:

Critical surfaces = any surface that generates lift or controls flight: propellers, rotors, wings, control surfaces. On multirotors, this primarily means your propellers.

Real-World Scenarios:

  • Morning frost on your drone: You arrive at the site at 7 AM, drone was in the truck overnight, and there's frost on the propellers and airframe. Cannot fly - must remove ALL frost before flight or wait for it to melt naturally.
  • Freezing rain in the forecast: METAR shows "FZRA" (freezing rain) or GFA shows icing conditions. Cannot fly - unless your RPAS has certified de-icing equipment (extremely rare for small RPAS).
  • Snow accumulation during storage: Drone stored outside or in unheated building, snow accumulated on surfaces overnight. Cannot fly - brush off ALL snow, ensure no ice formed underneath.
  • Temperature near freezing with visible moisture: 0-2°C with fog, mist, or light rain. High risk - ice can form rapidly on cold aircraft surfaces. Monitor closely, abort if icing observed.
  • Cold-soaked aircraft: Drone stored in heated building, brought outside into -10°C air with high humidity. Moisture can condense and freeze on cold surfaces. Allow aircraft to temperature-equalize before flight, inspect for ice formation.

Bottom Line: Even a thin layer of frost reduces propeller efficiency and can cause loss of control. When in doubt, delay the flight.

CAR 901.38 Use of First-Person View Devices

No person shall operate a remotely piloted aircraft using a first-person view device unless a visual observer maintains unaided visual contact with the airspace in which the aircraft is operating in a manner sufficient to detect conflicting air traffic or other hazards and to take action to avoid them.

Definition - First-Person View (FPV) Device:

A device that generates and transmits a streaming video image to a control station display or monitor, giving the pilot of an RPA the illusion of flying the aircraft from an onboard pilot's perspective.

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Key Change in New Regulations:

The definition of FPV Device now includes ANY video feed that creates a first-person perspective - not just goggles. If you're watching a screen showing the drone's camera view and flying based on that feed (rather than looking at the actual aircraft), you're using an FPV device.

What Counts as FPV vs. What Doesn't:

  • IS FPV (requires VO): Pilot wearing goggles showing drone camera feed, pilot staring at tablet/phone screen flying via camera view, racing drone with video transmission where pilot never looks at actual aircraft
  • NOT FPV (no VO required): Traditional RC controller with no video feed - pilot maintains direct visual contact with aircraft, Camera/gimbal used for mission purposes (inspection, mapping) but pilot flies by watching the actual aircraft not the screen, Monitoring payload video occasionally while maintaining visual contact with aircraft

The Rule Simplified:

If you're flying by looking at a screen/goggles instead of the actual aircraft = FPV = Must have a Visual Observer maintaining direct visual contact with the airspace.

If a pilot becomes so focused on video that they stop monitoring the actual airspace, they've effectively created an FPV operation and need to bring in a VO.

Part IX – Division V: Advanced Operations

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Example: If there are any Model Aeronautics Association of Canada (MAAC) members (i.e., model aircraft clubs), those clubs must operate at least under basic RPAS operations. Basic operations have had no significant change under the new regulations.

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There have been significant changes to advanced operations under the new regulations. A safety assurance can also be called an RPAS declaration. Safety assurances are covered in depth in the Systems slide deck.

CAR 901.74 Extended VLOS

901.74(1) No pilot shall operate a remotely piloted aircraft system under this Division to conduct an extended VLOS operation unless:

(a) the pilot and control station are located at the site set aside for take-off, launch, landing or recovery at the time of those activities;

(b) the remotely piloted aircraft is at a distance of not more than two nautical miles from the pilot, the control station and the visual observer at any time during the flight; and

(c) the operation is conducted at a distance of at least 100 feet (30 m), measured horizontally and at any altitude, from any person not involved in the operation.

901.74(2) Visual Observer Requirement:

No pilot shall operate a remotely piloted aircraft system under this Division to conduct an extended VLOS operation unless a visual observer maintains unaided visual contact with the airspace in which the remotely piloted aircraft is operating in a manner sufficient to detect conflicting air traffic and other hazards and take action to avoid them.

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Extended VLOS is NOT BVLOS - Critical Differences:

Extended VLOS allows you to fly the drone beyond your visual line of sight, but NOT beyond the visual observer's line of sight of the AIRSPACE. The VO is not watching the drone - they're scanning the airspace for conflicting traffic (helicopters, planes, other drones).

The 2 NM Triangle Rule: The drone must remain within 2 NM of three points simultaneously: (1) the pilot, (2) the control station, and (3) the visual observer. This means if you're doing a remote operation where the pilot is in a different location from the control station, extended VLOS won't work - you need full BVLOS.

Real-world application - Pipeline Inspection: You're inspecting a 10 km pipeline in a remote area. You set up at the midpoint with your pilot, ground control station, and visual observer all co-located. Your drone can fly 2 NM (3.7 km) in each direction along the pipeline. The VO stands on elevated terrain with binoculars, scanning the sky for incoming aircraft while you focus on flying the inspection. This is extended VLOS.

Why not use it in populated areas? The 100 ft (30 m) horizontal distance requirement from ANY person not involved in the operation is hard to maintain in public spaces. If someone walks into the area, you must ensure your drone stays 30 m away. BVLOS operations under Standard 923 have more flexibility for public areas.

Common mistake: Thinking the VO watches the drone. No - the VO scans the AIRSPACE for threats. The pilot flies the drone using FPV or instruments. The VO's job is to yell "MANNED AIRCRAFT, 2 O'CLOCK!" so the pilot can take evasive action.

CAR 901.74 Sheltered Operations

901.74(1) No pilot shall operate a remotely piloted aircraft system under this Division to conduct a sheltered operation unless:

(a) the pilot and control station are located at the site set aside for take-off, launch, landing or recovery at the time of those activities;

(b) the remotely piloted aircraft is at a distance of not more than two nautical miles from the pilot and the control station at any time during the flight; and

(c) the operation is conducted at a distance of at least 100 feet (30 m), measured horizontally and at any altitude, from any person not involved in the operation.

901.74(3) Sheltered Operation Definition:

No pilot shall operate a remotely piloted aircraft system under this Division to conduct a sheltered operation unless:

(a) the remotely piloted aircraft remains within 200 feet, measured horizontally, of a building or structure; and

(b) the remotely piloted aircraft does not fly more than 100 feet above the building or structure.

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Sheltered Operations - The "Building Hug" Technique:

A sheltered operation is a specific type of BVLOS operation designed for infrastructure inspection. The concept is simple: if your drone stays very close to a building or structure (within 200 ft horizontally and 100 ft above), you're "sheltered" from conflicting air traffic because manned aircraft won't be flying that close to obstacles.

Perfect use cases:

1. Roof inspections - Fly around a commercial building at 50 ft above the roof to inspect HVAC systems, looking for damage

2. Bridge inspections - Inspect the underside of a bridge, staying within 200 ft of the bridge structure

3. Cell tower inspections - Fly up the tower inspecting antennas, staying within 100 ft of the tower vertically

4. Building facade inspections - Inspect windows, cladding, or structural elements on tall buildings

Key advantage: NO visual observer required. Unlike Extended VLOS which requires a VO scanning the airspace, sheltered operations don't need one because the structure itself provides protection from conflicting traffic. A helicopter won't be flying 50 ft from a building.

The 200/100 rule visualized: Imagine a building is 300 ft tall. You can fly up to 400 ft AGL (100 ft above the roof). Horizontally, you can move 200 ft away from any face of the building. If you go 201 ft away, you're no longer sheltered - you're in BVLOS and need different procedures.

Common question: "What counts as a structure?" Buildings, bridges, towers, industrial equipment - solid, substantial structures. A fence or a small shed wouldn't provide meaningful shelter from air traffic, so use judgment. The intent is structures that manned aircraft would actively avoid.

Part IX – Division VI: L1C Operations

⭐ CRITICAL SECTION - L1C Operations

This is the core of the L1C certification. Pay close attention to all requirements.

CAR 901.87 Applicability

Subject to subsection (2), this Division applies to BVLOS operations of a small remotely piloted aircraft if

(a) the operation is conducted

(i) in an uncontrolled airspace or a Class F airspace,

(ii) in an air risk class A, B or C airspace, as determined in accordance with AC 903-001, Joint Process for Airspace Risk Assessment for Remotely Piloted Aircraft (RPA) Systems (RPAS) Operations,

(iii) over a sparsely populated area and not over a populated area, and

(iv) at any time during the operation, at an altitude that is less than or equal to the lesser of 400 feet AGL and 500 feet above the pilot-in-command or visual observer; and

(b) the remotely piloted aircraft is operated in accordance with an RPAS operations manual.

Subsection (2) - Pre-Validated Declarations:

This Division does not apply to a BVLOS operation unless the remotely piloted aircraft meets the conditions set out in a declaration under Standard 922 or, if applicable, a pre-validated declaration.

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When CAR 901.87 (Division VI - L1C) Applies:

This regulation defines the conditions under which you can conduct L1C BVLOS operations WITHOUT an SFOC. All conditions must be met simultaneously:

  • 1. Airspace Requirements (three conditions):
    • ✓ Uncontrolled airspace (Class G) OR Class F
    • ✓ Air Risk Class A, B, or C (NOT Class D - requires SFOC)
    • ✓ Over sparsely populated area (NOT populated area)
  • 2. Altitude Limit: ≤ 400 ft AGL AND ≤ 500 ft above PIC or VO (whichever is lower)
  • 3. RPAS Operations Manual: Must have approved ROM
  • 4. Aircraft Declaration: Drone must have Standard 922 declaration OR pre-validated declaration

Using NRCAN DSST-2 Tool:

The Drone Site Selection Tool (DSST-2) combines all these requirements into one visual map:

  • Unshaded (white/clear): All CAR 901.87 conditions met → L1C operations permitted
  • Shaded (red/yellow): One or more conditions NOT met → SFOC required

Access: natural-resources.canada.ca/drones → DSST-2

Population Density Definitions (from Part IX Division I):

  • Populated Area: 1 or more persons per 5,000 m² (≥ 200 per km²)
  • Sparsely Populated Area: Less than 1 person per 5,000 m² (< 200 per km²)
  • Data Source: Statistics Canada most recent Census data

Common Scenarios:

  • Agricultural farmland: Usually sparsely populated → L1C applicable if other conditions met
  • Near small town: Check DSST-2 - boundary between populated/sparsely is data-driven
  • Class D airspace: Even if sparsely populated → SFOC required (Air Risk Class D)
  • Over 400 ft AGL: Even in perfect location → SFOC required (altitude exceeds limit)

Bottom Line: CAR 901.87 is the "gatekeeper" for L1C operations. If all conditions are met, you can operate under Division VI (901.87-901.95). If ANY condition is not met, you need an SFOC under Subpart 3.

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Practice Question:

What is the definition of an unpopulated area and a sparsely populated area?

Answer: There is no "unpopulated area" definition in L1C regulations. The terms are populated area (≥ 1 person per 5,000 m²) and sparsely populated area (< 1 person per 5,000 m²). Data comes from Statistics Canada Census.

Practice Question:

Whose data set is used to determine these populated areas?

Answer: Statistics Canada most recent Census data, as referenced in the definitions in Part IX Division I.

3P Approach to L1C Operations

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PILOT

Level 1 Complex Certificate (901.89)

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PROCEDURE

RPAS Operator Certificate (901.88)

✈️

PLATFORM

Declaration (901.95)

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There is a 3P approach to L1C operations: Pilot, Platform, Procedures. When setting up an organization, it's important for the operator to ask if they have all three Ps.

  • The pilot refers to the L1C pilot certificate
  • The platform refers to the safety assurances that must be in place
  • The procedures refer to the RPAS Operator Certificate, operations manual, procedures, checklists, deconfliction, etc.
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3P Approach: Pass or Fail? Test Your Understanding

For each scenario below, identify which of the 3 Ps is missing or non-compliant:

❌ SCENARIO 1: Age Requirement

Situation: A 17-year-old pilot holds a valid L1C certificate, has completed recency requirements, and will operate under an RPAS Operator Certificate with a compliant platform.

Result: FAIL - Missing PILOT requirement (must be 18+ years old per CAR 901.89)

❌ SCENARIO 2: Platform Modification

Situation: An 18-year-old L1C pilot with current recency, operating under an RPAS Operator Certificate, using a DJI M350 with modified propeller guards (not manufacturer-approved modifications) without demonstrating Standard 922 compliance.

Result: FAIL - Missing PLATFORM requirement (modifications require manufacturer instructions OR Standard 922 demonstration per CAR 901.95)

❌ SCENARIO 3: No ROM

Situation: An 18-year-old L1C pilot with current recency wants to conduct BVLOS operations using a compliant platform, but hasn't applied for or received an RPAS Operator Certificate.

Result: FAIL - Missing PROCEDURE requirement (must have RPAS Operator Certificate with ROM per CAR 901.88)

❌ SCENARIO 4: Expired Recency

Situation: A 25-year-old pilot holds an L1C certificate obtained 30 months ago, hasn't completed recency requirements, operates under an RPAS Operator Certificate with a compliant platform.

Result: FAIL - Missing PILOT requirement (recency must be demonstrated within 24 months per CAR 901.89)

❌ SCENARIO 5: Incomplete ROM

Situation: An 18-year-old L1C pilot with current recency, using a compliant platform, has an RPAS Operator Certificate but the ROM doesn't include emergency procedures or a site survey process.

Result: FAIL - Missing PROCEDURE requirement (ROM must include all required elements per CAR 901.217)

✅ SCENARIO 6: All Requirements Met

Situation: A 22-year-old pilot holds a valid L1C certificate with recency completed 6 months ago, operates under an RPAS Operator Certificate (DMP-issued) with a complete ROM including all required sections, using a DJI M300 RTK with manufacturer's declaration for BVLOS operations (no modifications).

Result: PASS - All 3 Ps met! ✓ Pilot (18+, L1C cert, current recency) ✓ Procedure (RPAS Operator Certificate with compliant ROM) ✓ Platform (manufacturer declaration, no unauthorized mods)

Remember: ALL THREE Ps must be in place before conducting BVLOS operations. Missing even one element means you cannot legally operate!

CAR 901.89 L1C Pilot Requirements

901.89(1) Certificate Requirement:

No person shall operate a remotely piloted aircraft system under this Division unless the person holds a pilot certificate — remotely piloted aircraft — level 1 complex operations issued under section 901.90.

901.89(2) Training Exception:

Subsection (1) does not apply if the operation of the remotely piloted aircraft system is for the purpose of training and is conducted under the direct supervision of a person who is 18 years of age or older and who is permitted to operate a remotely piloted aircraft system under this Division.

901.89(3) Age Requirement:

No person shall operate a remotely piloted aircraft system under this Division unless the person is 18 years of age or older.

901.89(4) Certificate Accessibility:

The pilot-in-command of a remotely piloted aircraft operated under this Division shall keep the pilot certificate and evidence of compliance with the applicable recency requirements set out in section 901.91 readily available for inspection during the flight.

Recency Requirements (from 901.91):

No holder of a pilot certificate — remotely piloted aircraft — level 1 complex operations shall operate a remotely piloted aircraft system under this Division unless the holder has, within the 24 months preceding the flight, been issued a pilot certificate or completed the recurrent training requirements.

Note: There is no requirement for a medical certificate

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The Four Pillars of L1C Pilot Qualification:

1. Age 18+: Unlike basic operations (14+) or advanced (16+), L1C requires you to be an adult. No exceptions, even with parental consent. Why? L1C operations involve BVLOS in complex environments with significant liability exposure.

2. Hold L1C Certificate: You must pass the L1C knowledge exam and complete a flight review with an L1C flight reviewer. The Advanced certificate is NOT sufficient for L1C operations, even if you have years of experience.

3. 24-Month Recency: You must demonstrate recency within 24 months by either (a) obtaining a new certificate, or (b) completing recurrent training. Many operators fail this - they got their L1C in 2023, haven't done recurrency training, and are now illegal to fly in 2026.

4. Readily Available: Your certificate and recency proof must be "readily available" during flight. This means on your person, in your flight bag, or on your phone. Leaving it at the office 50 km away doesn't count. Transport Canada inspectors can request to see it at any time during operations.

Training Exception Explained: Subsection (2) allows student pilots without L1C certificates to fly under supervision for training purposes. The supervisor must be 18+ and L1C-qualified. This is how you get your required flight experience before the flight review.

Real-world failure scenario: A pilot holds an L1C certificate issued in January 2023. They haven't completed recurrent training. In March 2025 (25 months later), they conduct a BVLOS flight. This is illegal under 901.89 - their recency expired in January 2025 (24 months). The penalty? Potential certificate suspension and fines up to $5,000 for individuals or $25,000 for corporations.

Recency Reminder: People often forget the recency requirement - Transport Canada needs to know operators are up-to-date on the regulations. This L1C course requalifies participants for recurrence. The easiest way to get requalified is the self-paced study from Transport Canada that comes with a study guide. When you complete the questionnaire and keep it with you, you're considered current.

2️⃣ L1C Procedures - RPAS Operator Certificate (901.88)

RPAS Operator Certificate issued to individual or organization through the DMP

Operator requires an RPAS Operations Manual (901.217) that includes:

  • • Roles and responsibilities of crew members
  • • Roles and responsibilities of maintenance personnel
  • • Safety processes (901.218)
  • • Normal and emergency procedures (901.23)
  • • Training syllabus
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An individual or a corporation can hold the RPAS Operator Certificate. To hold an RPAS Operator Certificate they need to:

  • Be a Canadian or a Canadian organization
  • Have an RPAS Operations Manual in place that includes a safety policy, procedures, training, etc.

Operators must administer yearly recurrent training to all crew members before they fly under the L1C operator certificate.

CAR 901.95 Declarations (L1C Platform Requirements)

901.95 Declaration Requirement:

No pilot shall operate a remotely piloted aircraft system under this Division unless a declaration to the Minister has been made in accordance with section 901.194 in respect of that model of system and in respect of each of the technical requirements set out in Standard 922 that is applicable to the operation.

901.96 Modifications:

No pilot shall operate a remotely piloted aircraft system under this Division if the system has been modified in any way unless

(a) the pilot is able to demonstrate to the Minister that, despite the modification, the system continues to meet the technical requirements set out in Standard 922 that are applicable to the operation; and

(b) if applicable, the modification was performed according to the instructions of the manufacturer of the part or equipment used to modify the system.

901.97 Maintenance:

The remotely piloted aircraft system must have been maintained, and all mandatory actions must have been completed, in accordance with the instructions of the manufacturer or of the person who has made a declaration in respect of that model of system.

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Platform Declarations - The Manufacturer's Promise:

After November 4th, 2025, Transport Canada implemented a new declaration system where manufacturers declare their RPAS models meet Standard 922 requirements for BVLOS operations. This shifts some of the compliance burden from operators to manufacturers.

What's in a declaration? The manufacturer is declaring to Transport Canada that their drone meets specific safety standards (Standard 922), including: reliability, environmental envelope, communication systems, detect and avoid capability (or procedures), emergency procedures, and operational limitations.

Two operational pathways:

Standard L1C (901.87a): Operations using drones with standard manufacturer declarations in sparsely populated areas, uncontrolled airspace, Air Risk Class A/B/C, below 400 ft AGL

Pre-Validated Declarations (901.87b): More complex operations that may involve different airspace or operational conditions - requires additional manufacturer validation

The Modification Problem - CAR 901.96: This is where many operators get into trouble. You buy a DJI M300 with a valid BVLOS declaration. Then you add a third-party LiDAR sensor, change the propellers, or modify the landing gear. STOP. Your declaration is now potentially void unless:

1. The modification follows manufacturer instructions (e.g., DJI says "you can use this third-party payload"), OR

2. You demonstrate to Transport Canada that the modified system still meets Standard 922

Real failure case: An operator had a valid DJI M350 declaration. They swapped out the stock propellers for "quieter" third-party props not approved by DJI. During an inspection, Transport Canada asked about the props. The operator couldn't demonstrate Standard 922 compliance with the modified props. Result: Grounded until they either (a) reinstalled OEM props, or (b) hired an engineering firm to demonstrate Standard 922 compliance (expensive).

Check the public list: Transport Canada maintains a public list of manufacturer declarations at tc.canada.ca. Before you buy a drone for L1C operations, verify it's on the list. Popular models include DJI M300/M350, M30 series, and Matrice 30T with manufacturer declarations for BVLOS.

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Reference the official Transport Canada declaration list: https://tc.canada.ca/en/aviation/drone-safety/learn-rules-you-fly-your-drone/choosing-right-drone-advanced-operations

Modification of RPAS

If you modify your drone, you will not be able to exercise these privileges unless you:

  • • Demonstrate Standard 922 is met
  • • Perform in accordance with manufacturer instructions
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If modifications are performed in accordance with manufacturer instructions, operators do not need to demonstrate to Transport Canada that Standard 922 is met.

If the manufacturer does not provide instructions on how to modify their drone, the operator must prove to Transport Canada they still meet Standard 922. It is recommended not to modify drones unless the manufacturer provides instructions on how to do so.

Standard 923 - Vision-Based Detect and Avoid

If RPAS does not have onboard capability for DAA: Use Standard 923 (human) Vision-Based Detect and Avoid

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There are six new standards a manufacturer can make a declaration against. The standard against DAA assumes the manufacturer is going to build an onboard DAA system, which is not always going to be the case.

If the manufacturer does not have a DAA system, it's acceptable to do BVLOS integrations using human-based DAA. This is covered in Standard 923, VO DAA.

Standard 923 Requirements:

Position:

  • • Drone can be flown up to 4 NM away from pilot and GCS
  • • Drone must be within 2 NM of the VO

Weather:

  • Visibility = 3 SM+
  • Ceiling = 1,000 ft AGL+

Sun Position:

Outside the quadrant, greater than 45 degrees above horizon, or below the horizon

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VO DAA looks a lot like the standard scenario for low-risk BVLOS operations. The conditions of Standard 923 ensure the visual observer can effectively scan the airspace and detect conflicting traffic.

How to Judge Visibility and Ceilings:

Judging Visibility:

  • • Nearest METAR
  • • Measure section lines of farms (¼ section = ½ SM)
  • • Tower in the distance

Judging Ceilings:

  • • Nearest METAR
  • • Towers (usually 200-300 ft)
  • • Mountains/clouds hitting hills

Judging Visual Obstructions:

Outstretched arm with 4 horizontal fingers stacked on the horizon

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Standard 923 Decision-Making: Can You Fly?

Practice applying Standard 923 requirements to real-world scenarios. For each situation, determine if the operation is compliant:

❌ SCENARIO 1: Poor Visibility

Conditions:

  • • Visibility: 2.5 statute miles
  • • Ceiling: 1,200 ft AGL
  • • Sun: 25° above horizon (outside quadrant)
  • • Drone position: 3 NM from pilot, 1.5 NM from VO

Decision: NO FLY - Visibility must be at least 3 SM. Even though all other conditions are met, failing one requirement means the operation cannot proceed under Standard 923.

❌ SCENARIO 2: Low Ceiling

Conditions:

  • • Visibility: 5 statute miles
  • • Ceiling: 800 ft AGL (overcast layer)
  • • Sun: 5° above horizon
  • • Drone position: 2 NM from pilot, 1 NM from VO

Decision: NO FLY - Two failures: (1) Ceiling must be at least 1,000 ft AGL, (2) Sun must be at least 6° above horizon or below horizon. Even if ceiling was compliant, the sun position alone would prevent the operation.

❌ SCENARIO 3: Distance Violation

Conditions:

  • • Visibility: 10 statute miles
  • • Ceiling: 2,500 ft AGL
  • • Sun: Below horizon (night operations not allowed, but sun position OK)
  • • Drone position: 4.5 NM from pilot, 2.5 NM from VO

Decision: NO FLY - Two distance violations: (1) Drone must be within 4 NM of pilot/GCS (currently 4.5 NM), (2) Drone must be within 2 NM of VO (currently 2.5 NM). Both limits exceeded.

⚠️ SCENARIO 4: Deteriorating Conditions

Conditions at mission start:

  • • Visibility: 4 statute miles
  • • Ceiling: 1,500 ft AGL
  • • Sun: 50° above horizon
  • • Drone position: 3 NM from pilot, 1.5 NM from VO

15 minutes into mission: TAF forecast shows thunderstorm approaching, visibility expected to drop to 1 SM within 30 minutes, ceiling dropping to 500 ft.

Decision: ABORT MISSION - While current conditions are compliant, you must continuously monitor weather. If conditions will deteriorate below minimums before mission completion, abort and return to base. Pre-flight planning must include weather monitoring and escape routes.

✅ SCENARIO 5: Compliant Operation

Conditions:

  • • Visibility: 5 statute miles (verified by METAR and visual confirmation)
  • • Ceiling: 3,000 ft AGL (scattered clouds, plenty of clearance)
  • • Sun: 60° above horizon, behind the VO (outside critical quadrant)
  • • Drone position: 3.5 NM from pilot/GCS, 1.8 NM from VO
  • • VO has clear line of sight, scanning airspace continuously
  • • Radio communication established between pilot and VO

Decision: GO FOR FLIGHT - All Standard 923 requirements met: ✓ Visibility (5 SM > 3 SM min) ✓ Ceiling (3,000 ft > 1,000 ft min) ✓ Sun position (60° > 45° and outside quadrant) ✓ Distance (3.5 NM < 4 NM from pilot, 1.8 NM < 2 NM from VO)

✅ SCENARIO 6: Marginal but Legal

Conditions:

  • • Visibility: Exactly 3 statute miles (measured using section lines)
  • • Ceiling: Exactly 1,000 ft AGL (broken layer at 1,000 ft)
  • • Sun: Exactly 45° above horizon and directly in VO's scan area
  • • Drone position: 4.0 NM from pilot, 2.0 NM from VO

Decision: TECHNICALLY LEGAL but NOT RECOMMENDED - All minimums are exactly met, which is technically compliant. However, any slight deterioration puts you out of compliance. Professional practice: Add personal minimums above regulatory minimums (e.g., 3.5 SM visibility, 1,200 ft ceiling) to account for uncertainty and provide safety margins.

⚠️ Best Practice: Your ROM should specify personal minimums higher than regulatory minimums to account for measurement uncertainty and safety margins!

Key Takeaways:

  • • ALL Standard 923 requirements must be met simultaneously - failing one means no-go
  • • Continuously monitor conditions throughout the flight
  • • Have abort criteria and procedures in your ROM
  • • Professional operators set personal minimums above regulatory minimums
  • • When in doubt, don't fly - get an SFOC or wait for better conditions

Part IX – Division X: Training & Flight Review

Standard 921 – Remotely Pilot Aircraft Training

This standard covers:

  • • Basic pilot certificate
  • • Advanced pilot certificate
  • L1C pilot certificate
  • • Flight reviewer rating
  • • Recency requirements
  • • Declared training provider requirements (TP15530, TP15263)
ℹ️

While this is not a critical slide, it is useful to show participants that there are defined standards for training organizations to follow. This standard covers training for all RPAS pilot certificates and tells you what it takes to be a declared training provider.

CAR 901.176 Flight Reviewer Requirements

The Minister shall endorse the applicant's pilot certificate with a flight reviewer rating if the applicant demonstrates to the Minister that the applicant meets the following requirements:

Experience:

Must have a minimum of 6 months advanced or complex level 1 RPA pilot experience

Examination:

Must have successfully completed the Remotely Piloted Aircraft System – Flight Reviewer (RPASFR) exam in accordance with the document entitled Knowledge Requirements for Pilots of Remotely Piloted Aircraft Systems, 250 g up to and including 150 kg, Basic and Advanced Operations, TP 15263

Training:

Must be trained to TP 15263E for conduct of Advanced flight reviews, and TP 15530E for conduct of Level 1 Complex flight reviews

Affiliation:

Must be directly affiliated with a TP 15263E Self-Declared RPAS Training provider for conduct of Advanced flight reviews, or a TP 15530E Self-Declared RPAS Training provider for conduct of Level 1 Complex flight reviews

Recency:

Every 2 years, to maintain the flight reviewer role, must complete recency requirements as per CAR 901.65 or CAR 901.91

Clean Record:

The candidate must have no enforcement action against them, past or pending

Family Member Restriction:

Flight reviewer – RPAS shall not conduct flight reviews for immediate family members, including parents, spouses, children, grandchildren or stepchildren, unless a Transport Canada Inspector monitors the flight review or written authorization has been granted by Transport Canada

💡

Becoming an L1C Flight Reviewer - The Gatekeeper Role:

Flight reviewers are the practical gatekeepers for L1C certification. While the knowledge exam tests theory, the flight reviewer ensures candidates can actually fly safely in BVLOS scenarios.

Why 6 months experience? Transport Canada wants reviewers to have real-world operational experience before they evaluate others. Someone who just passed their L1C exam last month shouldn't be evaluating other pilots. You need time to encounter real situations, make mistakes, and learn.

The Training Provider Requirement: You can't be an independent flight reviewer. You must be affiliated with a declared training organization. This ensures oversight, standardization, and accountability. If a reviewer is signing off unqualified pilots, Transport Canada can address it through the training provider.

Two-year recency for reviewers: Even flight reviewers must maintain currency. If you haven't conducted a flight within 24 months or completed recurrency training, you can't review others. This prevents outdated reviewers from perpetuating old practices.

Family member restriction - why? Conflict of interest. It's hard to objectively fail your own child or spouse on a flight review. The regulation allows it only with TC inspector oversight or written authorization to prevent bias.

Real-world scenario: You want to become a flight reviewer. Steps: (1) Obtain L1C certificate, (2) Fly for 6 months gaining experience, (3) Pass the RPASFR exam, (4) Complete reviewer training per TP 15530E, (5) Affiliate with a declared training provider, (6) Apply to Transport Canada for flight reviewer endorsement. Now you can conduct flight reviews, but you must maintain your own recency every 24 months.

CAR 901.178 Retaking of Exam

901.178:

No person who fails an examination referred to in paragraph 901.176(d) shall retake the examination for a period of 24 hours after the examination.

💡

The 24-Hour Cooling-Off Period:

This regulation applies specifically to the flight reviewer exam (RPASFR), not the L1C pilot knowledge exam. If you fail the flight reviewer exam, you must wait 24 hours before attempting it again.

Why the waiting period? Transport Canada wants candidates to review material, identify knowledge gaps, and study properly rather than immediately re-attempting through trial and error. The flight reviewer role is critical - these individuals will be certifying other pilots, so they need to truly understand the material.

Practical impact: If you fail the RPASFR exam on Monday at 10 AM, you cannot retake it until Tuesday at 10 AM (24 hours later). Use this time to review the areas where you struggled and ensure you're properly prepared for the second attempt.

Flight Reviewer's Guide TP 15395

ℹ️

There are standards flight reviewers must follow. If there are students in the classroom who will become L1C flight reviewers, this document should be downloaded and possibly discussed.

💡

This is the guiding document for flight reviews.

Part IX – Division XI: RPAS Declarations

Responsibilities of the Declarant (Manufacturer)

  • • 'Declaration' to the Minister assuring target levels of safety for the required standards
  • • Maintenance program
  • • Mandatory actions for continued compliance/airworthiness
  • • RPAS Operations Manual (pilot's handbook)
  • • Record keeping substantiating declaration
  • • Service difficulty reports (PVD)
  • • Annual reporting to the Minister (PVD)
💡

These are the new declarations in place. Safety and Reliability and Environmental Envelope are going to be very costly standards for a manufacturer to achieve. Every country is going to have a different safety assurance.

When operators purchase a drone with a safety assurance, they know that the manufacturer has met all the conditions (maintenance program, mandatory actions, etc.).

Service Difficulty Report: If an operator has a problem with the drone that is a manufacturing or design fault, the manufacturer must keep that on record.

ℹ️

This will be covered again in the Systems slide deck.

Declarations vs. Pre-Validated Declarations

Declarations

Required for lower ground risk:

  • • sRPAS over/near people
  • • BVLOS greater than 1 km from populated areas

Pre-validated Declarations (PVD)

Required for higher ground risk:

  • • mRPAS over/near people
  • • sRPAS over sparsely populated areas
  • • Less than 1 km from populated areas
💡

Operators only need to worry about declarations. Manufacturers worry about PVD, which is a higher level of declaration.

If a drone has a safety assurance from a manufacturer that is referred to as a PVD, operators will have a few more privileges. This means that the manufacturer has done a lot more work with Transport Canada to obtain that PVD.

The first question operators should ask when a salesman is trying to sell a drone is: What are you doing for the safety assurance?

Part IX – Division XII: RPAS Operator Certificate

The 3Ps: This is the third P - Procedures

CAR 901.213 Eligibility to Hold RPAS Operator Certificate

A person is eligible to hold an RPAS operator certificate if:

(a) with respect to a person who proposes to provide a commercial air service, the person is Canadian; or

(b) in any other case, the person is:

(i) a Canadian citizen or a permanent resident of Canada,

(ii) a government in Canada or an agent or mandatary of such a government, or

(iii) a corporation or entity that is incorporated or formed under the laws of Canada or a province.

Definition - Canadian:

For commercial air service: means a Canadian citizen or permanent resident, a government or agent/mandatary of government, or a corporation/entity where Canadians beneficially own and control at least 51% voting interests

💡

Who Can Hold an RPAS Operator Certificate? The Canadian Control Requirement:

This regulation has two different pathways depending on whether you're providing commercial air service (flying for hire) or not (internal operations, research, etc.).

Path (b) - Non-Commercial Air Service (Most L1C Operators):

If you're NOT providing commercial air service (e.g., a mining company flying drones for their own site surveys, a university research project, a government mapping project), you can be:

• A Canadian citizen or permanent resident (individuals)

• A Canadian government or government agency

• ANY corporation formed under Canadian law (no ownership restrictions)

Path (a) - Commercial Air Service (Drone Service Providers):

If you're selling drone services to clients (commercial air service), you must be "Canadian" which means 51%+ Canadian ownership and control. A foreign company cannot obtain an RPAS operator certificate to provide commercial drone services in Canada.

Examples:

PASSES: ABC Mining Ltd. (incorporated in Ontario, owned by Australian parent company) wants L1C operations for their own mining surveys. This is NOT commercial air service - they're flying for themselves. They qualify under path (b)(iii).

FAILS: SkyDrone Services Inc. (incorporated in Delaware, USA) wants to provide commercial drone inspection services to Canadian clients. This IS commercial air service. They fail under path (a) because they're not "Canadian" (not 51%+ Canadian-owned).

PASSES: John Smith (permanent resident, not citizen) wants to start a commercial drone photography business. He qualifies as "Canadian" under the definition because permanent residents are included.

How to apply: You apply through the Drone Management Portal (DMP) at tc.canada.ca. The application requires you to declare your organizational structure, ROM, training program, and maintenance procedures. As of 2025, the typical processing time is 4-8 weeks. Plan ahead - you cannot legally conduct L1C operations without an approved RPAS Operator Certificate.

ℹ️

If the organization to which the students belong already has an RPAS Operator Certificate, the instructor can show the operating certificate to the students as a reference example.

CAR 901.216 General Conditions

901.216 The general conditions of an RPAS operator certificate are the following:

(a) the RPAS operator shall maintain an adequate organizational structure;

(b) the RPAS operator shall establish and maintain a training program and shall ensure that all persons involved in the operation and maintenance of a remotely piloted aircraft system receive the training necessary to perform their duties;

(c) the RPAS operator shall use only remotely piloted aircraft systems that are suitable for the type of operation;

(d) the RPAS operator shall ensure that remotely piloted aircraft systems are maintained in accordance with the instructions of the manufacturer or of the person who has made a declaration in respect of that model of system; and

(e) the RPAS operator shall notify the Minister of any change in the organizational structure referred to in paragraph (a).

💡

The Five Pillars of RPAS Operator Certificate Compliance:

These conditions are ongoing obligations that continue for the entire time you hold the certificate. It's not a one-time application - you must maintain these conditions or risk certificate suspension or revocation.

(a) Organizational Structure:

You must have a defined org chart with named positions: Accountable Executive (must be named), Person Responsible for Maintenance (must be named), pilots, visual observers, and other crew. The "adequate" test means: Can your organization safely conduct the operations you're approved for? A one-person operation flying occasionally may be adequate. A 24/7 national operation needs more structure.

(b) Training Program:

This is where operators commonly fail. You need a documented training program for ALL personnel - pilots, VOs, maintenance crew, and operations staff. This includes initial training AND annual recurrent training. Transport Canada can audit your training records at any time. Many operators train their pilots well but forget to train visual observers or maintenance personnel, then fail an inspection.

(c) Suitable RPAS:

"Suitable" means appropriate for the job. You can't use a toy drone for industrial inspections. You can't use a racing drone for precision mapping. The RPAS must have the appropriate declaration (Standard 922) for your operation type. If you're doing BVLOS, the drone must have a BVLOS declaration.

(d) Manufacturer Maintenance:

Follow the manufacturer's maintenance instructions exactly. DJI says inspect props every 50 hours? You must do it and document it. Keep maintenance logs for every aircraft. Include pre-flight inspections, post-flight inspections, scheduled maintenance, and any repairs. This is your proof of compliance.

(e) Notify Changes:

If your Accountable Executive leaves and is replaced, you must notify Transport Canada. If you change your organizational structure (merge departments, create new roles), notify TC. This ensures they have current contact information and understand your current structure.

Enforcement reality: Transport Canada conducts periodic surveillance of RPAS operators. They may request your training records, maintenance logs, organizational chart, and ROM at any time. Operators who cannot produce these documents face enforcement action ranging from warnings to certificate suspension. One operator lost their certificate because they couldn't demonstrate they had trained their visual observers in the past 24 months - violating condition (b).

CAR 901.217 RPAS Operations Manual

901.217(1) Contents of RPAS Operations Manual:

Every RPAS operator shall establish and maintain an RPAS operations manual that consists of

(a) a description of the roles and responsibilities of crew members before, during and after a flight;

(b) a description of the roles and responsibilities of other required persons, including the accountable executive and the person responsible for the maintenance of remotely piloted aircraft systems;

(c) instructions and methods necessary to enable operations personnel, including pilots and visual observers, to perform their duties;

(d) a safety program that includes procedures for risk management and for maintaining safety standards;

(e) the normal and emergency procedures to be followed by crew members;

(f) the emergency response plan required by section 901.23;

(g) a description of the training program referred to in paragraph 901.216(b), including a description of the qualifications required for each type of person involved in the operation and maintenance of remotely piloted aircraft systems;

(h) the process for conducting the site survey required by section 901.27; and

(i) the risk mitigation measures for persons on the surface, including risk assessment procedures and mitigation measures applicable to different types of operations.

901.217(2) Availability:

The RPAS operator shall provide a copy of its RPAS operations manual to the Minister on request.

901.217(3) Amendments:

If there is a change in any aspect of an RPAS operator's operations, the RPAS operator shall amend its operations manual.

901.217(4) Distribution:

The operations manual must be distributed to all operations personnel.

💡

The RPAS Operations Manual (ROM) - Your Organization's Operating Instructions:

The ROM is the single most important document for L1C operations. It's essentially your company's rulebook for how you safely conduct drone operations. Without an approved ROM, you cannot obtain or maintain an RPAS Operator Certificate.

What makes a good ROM? It must be specific to YOUR operations, not a generic template. Transport Canada can spot copy-pasted ROMs. Your ROM should reflect your actual aircraft, your actual operational areas, your actual crew structure, and your actual procedures.

The 9 Mandatory Components Explained:

(a) Crew Roles: Before flight (briefing, planning), during flight (pilot flies, VO scans, who has authority to abort), after flight (debriefing, incident reporting)

(b) Organizational Roles: Who is the Accountable Executive? Who is responsible for maintenance? Include names and contact information

(c) Instructions & Methods: HOW do pilots perform their duties? Step-by-step procedures. HOW do VOs scan for traffic? Sector scanning techniques?

(d) Safety Program: You don't need a full SMS (Safety Management System), but you need a safety program. How do you identify hazards? How do you assess risk? How do you track safety performance?

(e) Normal & Emergency Procedures: Checklists for startup, pre-flight, flight, post-flight. Emergency procedures for loss of link, flyaway, injury, crash, airspace incursion

(f) Emergency Response Plan: Who do you call if something goes wrong? Local emergency services numbers, Transport Canada contacts, internal escalation procedures

(g) Training Program: What training does each role require? Initial training curriculum, recurrent training schedule (annual minimum), record-keeping procedures

(h) Site Survey Process: How do you conduct site surveys? What tools do you use? What information do you collect? How long are surveys valid?

(i) Risk Mitigation for Persons on Surface: How do you protect people on the ground? Different procedures for sparsely populated vs populated areas, emergency landing site selection

Living Document Requirement: Subsection (3) is critical - if ANYTHING changes (new aircraft, new procedures, new personnel, different operation types), you must update the ROM. Many operators create a ROM for their initial application and never update it. Three years later, half the named personnel are gone, they're flying different drones, and their procedures have evolved. This is a violation.

Distribution Requirement: All operations personnel must have access to the ROM. This doesn't mean everyone memorizes it, but everyone must know where to find it and how to reference it. Many operators use a shared drive or cloud storage with version control.

Common failure scenario: An operator applies for their RPAS Operator Certificate with a minimal ROM - just enough to get approved. They start operations. Six months later, Transport Canada conducts an inspection and asks to see their current ROM. The operator hands over the original version from the application. TC asks about their new procedure for night operations (which they've started conducting). It's not in the ROM. TC asks about the training records for three new pilots hired in the past 4 months. The training program in the ROM doesn't match what they actually did. Result: Enforcement action and potential certificate suspension. The ROM must reflect current reality, not initial intentions.

Organizational Hierarchy

Accountable Executive

(Must be named)

Person Responsible for Maintenance

(Must be named)

Pilots

Visual Observers

Other Crew

💡

It is very important to have a named Accountable Executive, so Transport Canada knows who holds the ultimate responsibility. The only other role that must have a person named is the Person Responsible for Maintenance.

🎯

Discussion:

If your organization has an RPAS Operator Certificate, can you draft the organizational structure? OR If your organization does not have an RPAS Operator Certificate, can you draft a possible organizational structure?

ROM Guidance

💡

Operators must have the following in their RPAS Operations Manual: Safety program, CRM, Training program, Record keeping details, Normal and emergency procedures (e.g., fly-aways). NASA has compiled 30 years of research on how to develop checklists, etc.

ℹ️

RPAS Operations Manual - Structure & Content Examples

Your ROM doesn't need to be 500 pages, but it MUST be specific, practical, and actually usable by your crew. Here are examples of what each required section should contain:

1. ROLES AND RESPONSIBILITIES

Example Content:

Accountable Executive: [Name]

  • • Ultimate responsibility for safety and regulatory compliance
  • • Authority to allocate resources for safety initiatives
  • • Reviews and approves ROM annually or when changes required
  • • Ensures all personnel are adequately trained and qualified

Person Responsible for Maintenance: [Name]

  • • Develops and maintains maintenance schedule for all RPAS
  • • Ensures maintenance records are current and accessible
  • • Approves RPAS for flight after maintenance actions
  • • Investigates maintenance-related incidents

Pilot-in-Command:

  • • Holds valid L1C certificate with current recency
  • • Conducts pre-flight planning including weather, NOTAMs, site survey
  • • Final authority for go/no-go decision
  • • Maintains communication with VO and crew
  • • Completes post-flight documentation

Visual Observer:

  • • Trained per company training program (Section 5)
  • • Maintains visual contact with operational airspace
  • • Scans for conflicting traffic and hazards
  • • Immediately reports conflicts or concerns to PIC
  • • Does NOT operate controls unless also qualified pilot

2. SAFETY PROGRAM / PROCESSES (CAR 901.218)

Example Content:

Safety Policy Statement:

"[Company Name] is committed to conducting all RPAS operations in the safest manner possible. Safety is our top priority, and all personnel are empowered to stop operations if unsafe conditions are identified. We will continuously improve our safety processes through incident reporting, analysis, and corrective action."

Signed: [Accountable Executive], Date: [Date]

Risk Assessment Process:

  • • All missions require completion of pre-flight risk assessment form
  • • Risk factors assessed: weather, airspace, population, aircraft performance, crew experience
  • • Risk scoring: Low (1-3), Medium (4-6), High (7-9)
  • • Medium risk requires supervisor approval; High risk requires Accountable Executive approval
  • • Mitigation measures must be identified and implemented before flight

Incident/Accident Reporting:

  • • All incidents (injury, property damage, near-miss) reported within 24 hours
  • • Incident report form submitted to Person Responsible for Operations
  • • Investigation conducted within 7 days
  • • Corrective actions identified and implemented
  • • Serious incidents reported to Transport Canada per CAR 901.85

Safety Meetings:

  • • Quarterly safety meetings with all operational personnel
  • • Review incidents, regulatory changes, lessons learned
  • • Minutes documented and distributed

3. NORMAL PROCEDURES

Example: Pre-Flight Checklist (DJI M300 RTK)

Mission Planning Complete

☐ Weather minimums met (vis ≥3 SM, ceiling ≥1,000 ft)

☐ NOTAMs reviewed, no TFRs or restrictions

☐ Site survey current (within 12 months)

☐ Flight geography defined and documented

☐ Ground risk buffer calculated and clear

☐ ATC coordination complete (if required)

Aircraft Inspection

☐ Airframe: No cracks, damage, or loose components

☐ Propellers: No chips, cracks, secure attachment

☐ Motors: Spin freely, no grinding or resistance

☐ Landing gear: Extended, locked, no damage

☐ Cameras/payload: Secure, clean, functional

☐ Battery: Charge ≥50%, no swelling, connectors clean

Systems Check

☐ Firmware: Current version, no pending updates

☐ GPS: ≥10 satellites, good signal strength

☐ Compass: Calibrated, no interference warnings

☐ Return-to-Home: Altitude set (min 100 ft above obstacles)

☐ Geofence: Configured to flight geography + contingency

☐ Low battery warning: Set to 30% (abort and RTH)

☐ Communication: Radio check with VO - clear comms

Documentation

☐ Pilot certificate and recency proof accessible

☐ RPAS Operator Certificate copy on-site

☐ Insurance certificate current

☐ Flight log ready for completion

Pilot Signature: _____________ Date/Time: _______

4. EMERGENCY PROCEDURES

Loss of GPS (DJI M300 RTK Example):

Indications: "GPS Signal Lost" warning, aircraft switches to ATTI mode

Immediate Actions:

  1. 1. Announce "GPS LOST" to crew
  2. 2. Cease mission activities immediately
  3. 3. Maintain visual contact with aircraft
  4. 4. Reduce altitude if safe to do so (improves VO visual contact)
  5. 5. Manually navigate to clear area away from obstacles
  6. 6. Attempt to regain GPS (move away from interference sources)
  7. 7. If GPS not regained within 30 seconds, execute manual landing
  8. 8. Do NOT attempt RTH without GPS lock

Post-Event: Report incident, investigate cause, update risk assessment

Fly-Away (Uncontrolled Departure):

Indications: Aircraft not responding to controls, departing operational volume

Immediate Actions:

  1. 1. Announce "FLY-AWAY" to crew and any nearby aircraft
  2. 2. Attempt emergency stop (if equipped)
  3. 3. Attempt RTH activation
  4. 4. Notify ATC immediately if in/near controlled airspace
  5. 5. Maintain visual contact as long as possible
  6. 6. Note last known position, altitude, heading, time
  7. 7. Monitor battery endurance - estimate crash location
  8. 8. If over populated area, notify local authorities
  9. 9. Do NOT attempt to retrieve until aircraft confirmed landed
  10. 10. Report to Transport Canada within 24 hours (CAR 901.85)

Post-Event: Secure aircraft, preserve evidence, conduct full investigation

Manned Aircraft Conflict:

Indications: VO reports aircraft in operational airspace

Immediate Actions:

  1. 1. VO announces "TRAFFIC, [direction], [distance]"
  2. 2. PIC immediately descends RPAS and moves away from traffic
  3. 3. Land if conflict imminent or safe to do so
  4. 4. Do NOT resume operations until traffic clear and deconflicted
  5. 5. If equipped, activate aircraft lights/strobes for visibility
  6. 6. Report near-miss if aircraft within 500 ft horizontal or 100 ft vertical

Manned Aircraft ALWAYS Has Right of Way

5. TRAINING PROGRAM

Example Training Requirements:

Pilot Training:

  • • Prerequisites: Valid L1C certificate, current recency
  • • Company-specific training: ROM procedures, aircraft systems, site-specific operations (min 4 hours ground, 2 hours flight)
  • • Type rating: Each new RPAS platform requires checkout (min 5 supervised flights)
  • • Recurrent training: Annual (min 2 hours) - regulatory updates, incident reviews, emergency procedures
  • • Proficiency check: Annual flight evaluation by qualified check pilot

Visual Observer Training:

  • • Initial training: 4 hours - scanning techniques, communication procedures, aircraft recognition, emergency procedures
  • • Supervised operations: Minimum 3 missions with experienced VO before independent duty
  • • Recurrent training: Annual - regulatory changes, lessons learned

Training Records:

  • • All training documented in personnel files
  • • Retained for minimum 3 years after employee separation
  • • Include: Date, subject, duration, instructor, trainee signature

6. MAINTENANCE PROGRAM

Example: DJI M300 RTK Maintenance Schedule

Pre-Flight (Every Flight):

  • • Visual inspection per checklist
  • • Battery voltage check (≥3.7V per cell)
  • • Propeller security check

Every 10 Flight Hours:

  • • Clean airframe and sensors
  • • Check motor screws (torque to spec)
  • • Inspect prop condition (replace if damaged)
  • • Test RTH function

Every 50 Flight Hours or 6 Months:

  • • Complete airframe inspection
  • • Gimbal calibration
  • • Battery health analysis (replace if capacity <80%)
  • • Firmware update check
  • • Compass calibration
  • • IMU calibration

Annual:

  • • Full system functional check
  • • Replace wear items (props, landing gear pads)
  • • Professional inspection by manufacturer or certified technician

Maintenance Records: All maintenance logged with date, work performed, parts replaced, technician signature. Retained for life of aircraft + 2 years.

ROM Document Control:

  • Version Control: Each ROM revision numbered and dated
  • Distribution: All operational personnel receive current ROM copy
  • Review Cycle: Annual review by Accountable Executive, or when regulations/procedures change
  • Amendment Process: Proposed changes submitted to Accountable Executive, approved changes distributed within 7 days
  • Availability: ROM accessible at all operating sites (electronic or hardcopy)

Remember:

  • ✓ Your ROM must be USABLE - if it's too complex, nobody will follow it
  • ✓ Your ROM must be COMPLETE - Transport Canada will review it during audits
  • ✓ Your ROM must be CURRENT - update when regulations or procedures change
  • ✓ Your ROM is a LIVING DOCUMENT - continuously improve based on operations and incidents
  • ✓ Your ROM is your BEST DEFENSE - in an incident, TC will ask "Did you follow your ROM?"

Part IX – Subpart III: Special Flight Operations

💡

There will still be times operators need to get an SFOC (e.g., flying in the shaded areas of DSST-2).

When SFOC is Required

Key changes in SFOCs:

  • • If operators are flying a sub 250 g drone at an advertised event, they need an SFOC
  • • Now, operators do not have to get an SFOC for a lot of low-risk BVLOS operations, due to the L1C
  • • SFOCs are now categorized into low, medium, and high complexity
  • • A foreign operator used to need an SFOC, but they can now operate as an agent under an operator's RPAS Operator Certificate
  • • Operators can only have a drone registered in one country at a time

SOR/2025-70 Service Fees (Canada Gazette)

Previous and current fees for the following services are available on the Canada Gazette website:

  • • Drone registration
  • • L1C operations exam
  • • L1C operations pilot certificate
  • • Pre-validated declarations
  • • RPAS Operator Certificate
  • • SFOC – Very low, medium, and high complexity
  • • Amendment to an existing SFOC
💡

Operators now need to pay for an SFOC. High-complexity SFOCs are very expensive ($2000).

ℹ️

A breakdown of previous and current fees for the listed services can be found on the Canada Gazette website: https://gazette.gc.ca/rp-pr/p2/2025/2025-03-26/html/sor-dors70-eng.html

ROM Guidance Document

Guidance on Manual Development for Remotely Piloted Aircraft System Operator Certificate (RPOC)

Professional Compliance & Writing Services available from Scriptorium can help Operators build an RPAS Operations Manual.

References

Official Resources:

  • • AirMarket. (n.d.) Fly Safe: Enterprise Drone Management Platform
  • • Canada Gazette. (2025, March 5). Regulations Amending the Canadian Aviation Regulations (RPAS – Beyond Visual Line-of-Sight and Other Operations): SOR/2025-70
  • • NAV CANADA. (2025, June 12). Designated Airspace Handbook
  • • NAV Drone Viewer. (n.d.) NAV CANADA
  • • National Research Council Canada. (2025, April 11). Drone site selection tool 2 (DSST-2)
  • • Transport Canada. (2021, November). Canadian Aviation Regulations (CARs): Quick Reference Guide
  • • Transport Canada. (2025, March). Flight Reviewer's Guide for Pilots of Remotely Piloted Aircraft Systems
  • • Transport Canada. (2025, April 1). Standard 921 - Remotely Piloted Aircraft - Canadian Aviation Regulations (CARs)
  • • Transport Canada. (2025, April 1). Canadian Aviation Regulations (SOR/96-433)
  • • Transport Canada. (2025, April 7). Advisory Circular (AC) No. 901-002
  • • Transport Canada. (2025, July 30). Apply for an RPAS Operator Certificate

Tools & Software:

  • • FltPlan.com (Garmin Company)
  • • Flight Plan. (n.d.) Sky Vector: Aeronautical Charts
  • • ForeFlight: A Boeing Company
💡

These resources were used to create the course content. They are also sources of further information.

✅ L1C01 Air Law - Complete

You have completed all 86 slides of the Air Law module. This comprehensive module covered:

  • ✓ Aviation Regulations & CARs Structure
  • ✓ Part I - General Provisions
  • ✓ Part VI - Flight Rules & Airspace
  • ✓ Part IX Division I - Definitions
  • ✓ Part IX Division II & III - Basic Operations
  • ✓ Part IX Division V - Advanced Operations
  • ✓ Part IX Division VI - L1C Operations
  • ✓ Part IX Division X - Training
  • ✓ Part IX Division XI - RPAS Declarations
  • ✓ Part IX Division XII - RPAS Operator Certificate
  • ✓ Subpart III - Special Flight Operations
  • ✓ Standard 923 - Vision-Based DAA