Part 107 exam
BVLOS & Part 108
Compliant hardware
Exam structure & study plan
60 questions, 120 minutes, 70% to pass (~42/60). Five domains, weighted unevenly. Your hobby experience means you can skip a lot of the flight-mechanics reading — the hard part is airspace and weather.
Domain weights (what the exam actually tests)
35–45% Operations
Emergency procedures, crew management, preflight planning, aeronautical decision-making, risk management. This is the biggest chunk — and the most applicable to surveying.
15–25% Regulations
Part 107 rule text, accident reporting thresholds, waiver process, Remote ID requirements, registration, waivers available under §107.205.
15–25% Airspace
Class A/B/C/D/E/G definitions, sectional chart reading, TFRs, MOAs, prohibited/restricted areas, UAS Facility Maps. Most hobby pilots find this the hardest section — it's worth 80% of your study time early on.
11–16% Weather
Reading METARs and TAFs, understanding surface analysis charts, density altitude effects, wind patterns, micrometeorology. Surprisingly heavy for only ~6 questions.
7–11% Loading & Performance
Weight/balance, battery effects on performance, payload impact on endurance. As a builder, you already understand most of this intuitively.
2-week study plan
Assumes 1–1.5 hrs/day. With hobby experience, you'll likely pass comfortably with 10–14 days of focused prep.
Week 1 — Foundation (hardest material first)
Days 1–2: Airspace deep dive
Read the FAA Remote Pilot Study Guide (free PDF) sections on airspace. Watch sectional chart videos on YouTube — UAV Coach has a good free series. Learn to identify Class B/C/D/E/G on a sectional, locate VORs, identify airport traffic patterns, and read the legend. Practice locating your town on an actual sectional. Understand controlled vs. uncontrolled airspace and what authorization you need for each (LAANC vs. waiver). The UAS Facility Map (faa.gov/uas/programs_partnerships/data_exchange) tells you exactly where you can fly up to what altitude without authorization.
Days 3–4: Weather & METARs
Learn to decode a METAR line by line — sky condition abbreviations (FEW, SCT, BKN, OVC), visibility, wind direction/speed, temperature/dewpoint. Then TAFs (terminal aerodrome forecasts). Practice at aviationweather.gov with real METARs for your local airport. Understand density altitude: hot + high + humid = degraded performance. Know the difference between a stable and unstable atmosphere for operational decisions. The FAA PHAK (Pilot's Handbook of Aeronautical Knowledge) Chapter 12 covers weather sufficiently.
Days 5–7: Regulations (Part 107 rule text)
Read 14 CFR Part 107 in full — it's shorter than you think (~30 pages). Memorize the key limits: 400 ft AGL max (or within 400 ft of a structure), 100 mph max, daylight/civil twilight only (with anti-collision light), visual line of sight, 55 lb max. Know the accident reporting triggers: serious injury OR property damage over $500 requires report within 10 days. Know the waivable vs. non-waivable rules. Remote ID: all registered drones (>0.55 lbs) must broadcast Standard Remote ID unless in a FRIA. Review §107.205 — the list of what can be waived.
Week 2 — Operations, practice tests, polish
Days 8–10: Operations & decision-making
Study crew resource management, preflight inspection checklists, emergency procedures (fly-away, loss of signal, battery failure), aeronautical decision-making (ADM), the IMSAFE checklist (Illness, Medication, Stress, Alcohol, Fatigue, Emotion — self-assessment before each flight). Study risk management models. For your surveying use case: know the rules around flying over people (Category 1–4 system), flying near airports, and flying in moving vehicles. Know that construction sites often have complex airspace considerations (nearby airports, TFRs around events or disasters).
Days 11–14: Practice tests + weak area review
Take a full 60-question timed practice exam daily. Aim for 85%+ consistently before you schedule the real test — the 70% minimum gives you only 18 wrong answers, and airspace questions trip people up under pressure. Two free practice sources: FAA's own sample questions (72 published), Drone U's free 70-question test at thedroneu.com. For missed questions, go back to source material rather than just memorizing answers. The test center provides the FAA Airman Knowledge Testing Supplement (paper charts) — get familiar with the legend before exam day.
Free official resources (no excuse not to use these)
BVLOS: current waiver path + Part 108
For construction/industrial surveying, BVLOS is eventually a major capability unlock — large sites, corridor mapping, repeat autonomous flights. Here's where the rules stand right now and what to study.
Part 108 was proposed August 7, 2025. The comment period closed October 2025. A Presidential Executive Order directed a final rule within 240 days of June 6, 2025 — that deadline was February 2026. The rule is still being finalized as of March 2026. For now, the current Part 107 waiver path is still the only legal route.
Current path: Part 107 BVLOS waiver (§107.205)
BVLOS waivers exist today but are rare, site-specific, and take 60–90 days to get. Each waiver is for a specific location, operational procedure, and aircraft. You must demonstrate that your operation is at least as safe as standard VLOS operations without the waiver.

What a waiver application must address:
— How you maintain awareness of your drone's position without visual contact
— How you detect and avoid other aircraft (detect-and-avoid system, visual observers, ADSB tracking)
— What airspace you're operating in and why the risk is acceptable
— Your communication and command-link reliability plan
— Emergency procedures for lost link, fly-away, or battery failure
— Population density and ground risk analysis for your specific site

For construction sites specifically: Access-controlled sites are favorable for waiver approval because you can keep uninvolved people out of the operational area, reducing ground risk. This is one of the industry's main objections to the Part 108 draft — it doesn't fully credit these on-site mitigations.
What changes under Part 108 (when finalized)
Part 108 shifts from per-mission waivers to an operator certification model. Instead of justifying each flight, you certify your organization's capability to run BVLOS programs.

Key differences from Part 107:
Operator certificate (not pilot certificate) — your organization gets certified, not just you
— Two tiers: Operating Permit (smaller, simpler ops) and Operator Certificate (larger-scale, higher risk)
— Drones must have a Declaration of Compliance for BVLOS-specific airworthiness requirements
— New roles defined: Operations Supervisor and Flight Coordinator — training provided by your org, no new FAA certificate
— Part 107 Remote Pilot Certificate is NOT required by the rule (though still useful)
— Automated Data Service Providers (ADSPs) required for larger ops — essentially a UTM traffic management system
— Site-by-site FAA approval still required in the current NPRM draft (industry pushed back hard on this)

Good news for construction/industrial: "Shielded operations" (flying near structures) are explicitly addressed in Part 108 — though the initial 50-ft definition is narrower than current waivers allow. Operations at access-controlled sites may get credit for ground risk mitigation in the final rule.
What to study now to be Part 108 ready
You don't need separate BVLOS study materials to take the Part 107 exam — BVLOS waiver knowledge is not tested. But here's what to learn alongside your Part 107 prep to stay ahead:

Airspace integration concepts: ADS-B (Automatic Dependent Surveillance–Broadcast) — how manned aircraft broadcast position, and how UAS can use ADS-B receivers to detect traffic. Remote ID as a baseline. UTM (UAS Traffic Management) concepts.

Detect and Avoid (DAA): The core technical requirement for BVLOS. Understand the difference between strategic deconfliction (pre-flight planning) and tactical separation (in-flight collision avoidance). Ping transponders, radar-based DAA, visual observer networks.

Risk models: SORA (Specific Operations Risk Assessment) — the international standard for UAS risk evaluation. FAA has been influenced by this framework in drafting Part 108. Understand ground risk class (population density × lethality) and air risk class (airspace type × traffic density).

Operational design: How to structure a repeatable BVLOS program — standard operating procedures, contingency management, crew roles, communication plans. This is what Part 108 operator certification will evaluate.
BVLOS resources to bookmark
Compliant hardware for construction & industrial surveying
Your target use case — construction site progress tracking, industrial equipment inspection, topographic mapping — rewards global shutter cameras, RTK/PPK GPS, long flight time, and rugged design. Here's where to explore.
You don't need NDAA compliance for purely private commercial work (non-federal, non-federally-funded). But as more GCs and site owners proactively adopt compliance standards, and since federal project work is lucrative, it's worth orienting your platform choices toward NDAA-compliant hardware from the start.
Platform comparison — surveying / inspection focus
PlatformBest forNDAA/Blue UASRTK?Approx. price
Freefly Astro MaxPrecision mapping, LiDAR, photogrammetry Blue UAS$10K–$18K
Inspired Flight IF800 TomcatIndustrial inspection, payload versatility Blue UAS$8K–$14K
Skydio X10Autonomous inspection, AI obstacle avoidance Blue UAS$12K–$20K
Parrot ANAFI USACompact, portable, quick-deploy inspection Blue UAS$3K–$7K
ACSL SOTENNDAA-compliant compact mapping NDAA$6K–$10K
WingtraOne GEN IILarge-area fixed-wing mapping, long enduranceAllied-nation PPK$15K–$25K
Key specs to understand for your use case
Global shutter vs. rolling shutter: For photogrammetry (building 3D models from photos), a global shutter captures the entire frame at once — no motion distortion. Rolling shutter cameras (like most phone cameras) capture line by line, which causes "jello" in point cloud reconstructions. Freefly Astro has a global shutter by default. Skydio X10 uses rolling shutter, which limits some high-precision mapping use cases but is acceptable for progress monitoring and inspection.

RTK vs. PPK GPS: RTK (Real-Time Kinematic) gives centimeter-accurate positioning in real time using a base station or NTRIP network. PPK (Post-Processed Kinematic) applies corrections after the flight. Both eliminate the need for ground control points (GCPs) in most workflows. For construction sites, RTK lets you fly without placing survey markers — huge time saver.

LiDAR vs. photogrammetry: LiDAR shoots laser pulses and records point returns — sees through vegetation and gives true surface elevation. Photogrammetry builds 3D models from overlapping photos — cheaper, higher color resolution, but struggles with dense vegetation. For site monitoring and equipment inspection, photogrammetry is usually sufficient. For topographic surveys with vegetation, LiDAR wins.
Manufacturer & product pages to bookmark
Software ecosystem — equally important as hardware