Swoop Academy › Module: Understanding canopy performance
Canopy Intelligence · Education

Understanding Canopy Performance

Every parachute follows the same six-phase flight cycle. What changes between models is how the wing responds in each phase — not the sequence itself.

At a given wing loading, you cannot transfer the same inputs, timing, or sight picture between models. When changing canopies, treat opening behaviour, brake range, harness response, recovery arc, and flare timing as characteristics to learn again.

Canopy flight-cycle framework — SkyLara / Canopy Intelligence
1

The Flight Cycle

Every canopy, regardless of model or manufacturer, moves through the same six phases on every jump. Understanding these phases is the foundation of canopy performance awareness.

The comparison below uses three representative models at similar wing loadings to illustrate how the same flight cycle produces different wing responses depending on design.

Phase 1
Deploy
Phase 2
Full Flight
Phase 3
Braked
Phase 4
Turn & Dive
Phase 5
Recovery
Phase 6
Flare
ⓘ
These comparisons describe general wing characteristics observed at similar wing loadings. Actual performance varies with jumper weight, altitude, weather, toggle setting, and individual technique. This is educational context, not a substitute for coaching.
1b

What Is Different Inside These Canopies?

Before comparing flight behaviour, it helps to understand why these canopies perform differently. The answer is in their internal construction. Each design makes different structural trade-offs that affect rigidity, pressure, and responsiveness.

Educational schematic • not to scale • not manufacturer CAD PD Sabre 3 9-cell • non-crossbraced Nose → Tail Full-height rib walls No crossbraces inside the wing Short tail ribs at trailing edge Refine trailing-edge shape JYRO Crossfire 3 9-cell • non-crossbraced Nose → Tail Shaped leading edge (nose) Controls leading-edge geometry Drooped wing tips Elliptical planform shape JYRO JFX 2 Crossbraced • mini-ribs • loaded ribs Nose → Tail Diagonal crossbraces Reduce structural distortion in flight Sail-fabric loaded ribs Fabric tensioned into rib walls Short mini-ribs at trailing edge Tail / mini-ribs: refine trailing-edge shape Nose shaping: controls leading-edge geometry Crossbraces + loaded ribs: reduce structural distortion How Construction Affects Flight Simple Construction Predictable inflation, forgiving pressure response, wider tolerances Shaped Geometry Improved glide and responsiveness, narrower margin for error Advanced Structure Higher internal pressure, sharper response, demands precise inputs Construction alone does not predict harness response, recovery altitude, or suitability at a given wing loading. Conceptual technical illustration — not an exact replica or flight-performance simulation
Educational schematic — not manufacturer CAD or engineering drawings
2

Phase 1: Deployment & Inflation

The moment from pilot-chute throw to a fully inflated, flying canopy. How long this takes, how much altitude it uses, and what heading changes occur all vary by model.

Sabre 3
Performance Designs
  • Soft, staged inflation over several seconds
  • Minimal off-heading tendency
  • Predictable slider descent
  • Forgiving of body position at deployment
Crossfire 3
Icarus / NZ Aerosports
  • Brisk snatch force — quicker than Sabre 3
  • Elliptical nose may introduce mild off-heading
  • Slider clears faster; ready to fly sooner
  • More sensitive to body position during inflation
JFX 2
NZ Aerosports
  • Sharp opening surge — noticeably more aggressive
  • Off-heading risk increases with poor body position
  • End cells may hesitate; may need toggle pump
  • Dive tendency on opening if not symmetric

Opening Characteristics Relative Comparison

Snatch force
Off-heading risk
Time to fly
Sabre 3 Crossfire 3 JFX 2
Conceptual comparison — not calibrated measurements

Ram-Air Inflation Sequence Three-Stage Process

How a Ram-Air Canopy Inflates From pilot-chute drag to fully pressurised flight — three distinct stages STAGE 1 Centre Cell Pressurisation Air Slider (packed) Pilot • Centre cells catch air first • Outboard cells still collapsed • Slider bunched at canopy STAGE 2 Outboard Cell Expansion Slider descending Pilot • All cells pressurising outward • Canopy span expanding • Slider begins to slide down STAGE 3 Full Canopy Flight Slider down Pilot • Full span pressurised • Slider at connector links • Canopy flying & steerable How Inflation Differs by Model S3 Soft, staged — several seconds — predictable heading CF Brisk snatch — quicker slider — mild off-heading JFX Sharp surge — end-cell hesitation risk ← Faster inflation More gradual →
General ram-air inflation sequence — conceptual illustration, not calibrated timing data
3

Phase 2: Full Flight / Normal Glide

Hands-up, neutral trim. The canopy flies at its designed glide ratio and forward speed. This is where you assess wind, plan your pattern, and observe ground track.

Sabre 3
  • Moderate forward speed
  • Flat glide angle — good distance coverage
  • Quiet and stable in turbulence
  • Gentle roll response to harness input
Crossfire 3
  • Slightly faster cruise than Sabre 3
  • More responsive to weight shift
  • Feels "alive" — less dampened
  • Glide ratio similar but steeper feel
JFX 2
  • Noticeably faster forward speed
  • Higher internal pressure — stiffer feel
  • Responsive to micro-inputs
  • More altitude loss per unit time at trim
3b

Wing Loading & Its Effects

Exit weight ÷ canopy area. The single biggest determinant of speed — the diagram shows what rises, what falls, and what stays the same as it increases.

What Changes When Wing Loading Increases Based on John LeBlanc / Performance Designs seminar on wing loading effects Wing Loading = Exit Weight ÷ Canopy Area Example: 190 lbs ÷ 95 sq ft = 2.0 lbs/sq ft ▲ INCREASES WITH HIGHER WING LOADING ⚡ Forward Speed Faster cruise, faster approach, faster everything ↓ Descent Rate Most of the “extra speed” comes from going down faster ⊘ Stall Speed Stall happens faster, with less warning, more abruptly ↻ Altitude Loss in Turns Turns eat altitude much faster; 180° can consume 500+ ft ▸ Landing speed, flare precision required, consequence of error ▼ DECREASES WITH HIGHER WING LOADING 📐 Glide Ratio Your body becomes more of the total drag — steeper path ⏱ Time Aloft Less hang time — less time to plan, collapse slider, play 🛡 Forgiveness Small errors in technique become big problems 🧠 Decision Time Everything happens faster — your brain doesn't speed up ▸ Ability to fly slowly into tight areas 💡 Key Insight (LeBlanc): “Different canopy models of the same size may perform differently, but they will fly approximately the same speed. Wing loading is the biggest determinant of speed.” Other differences — turn rate, glide, responsiveness — come from design. ⚠ Frame of Reference: What one pilot calls “slow and docile” may be the fastest canopy another pilot has ever jumped. Do not project your frame of reference onto someone with different experience. A 1.2 WL feels different to everyone. Glide Ratio Explained Forward distance ÷ descent distance. A 3:1 ratio means 3 ft forward for every 1 ft down. ~3:1 typical ~4:1 high AR ~2.5:1 high WL Alt Distance →
Based on “Wing Loading and its Effects” seminar by John LeBlanc, Performance Designs, Inc. — conceptual summary, not calibrated data
3c

Control Inputs: What Each One Does to the Wing

🎮
Module 3 · Advanced

Four controls. One wing. Three very different answers.

Toggles, front risers, rear risers and harness each change the wing’s shape or loading in a specific way. The input is identical on every canopy — the response is not.

Where Each Control Acts Anatomy

NOSE TAIL Chord (nose → tail) FRONT REAR TGL HARNESS FRONT RISERS Pull A/B lines → nose pulled down Angle of attack ↓ Speed ↑ Descent ↑ “Accelerator” REAR RISERS Pull C/D lines → whole rear section down Angle of attack ↑ Glide flattens, low drag “Trim lever” TOGGLES / BRAKES Pull tail edge only → camber & drag added Lift ↑ briefly, Speed ↓ “Brake & flare” HARNESS Weight shift → one side loaded more Roll & turn, no drag “Silent steering”
Simplified line geometry — actual cascades and attachment points vary by model

Toggles / Brakes Cause → Effect

▲ Angle of attack▲ Drag▲ Lift (short burst)▼ Airspeed▼ Descent rate (until stall)
Toggle Travel vs Wing Response — the brake range is a curve, not a switch Toggle travel: full flight → deep brakes → stall Lift gained Responsive Diminishing return Stall region S3 CF JFX Shorter lines + higher WL = peak lift with LESS toggle travel, and stall arrives SOONER Sabre 3 Long, progressive range. Pressure builds steadily. Deep brakes stay flyable for a long travel. Stall gives clear warning (mushy, rocking). Crossfire 3 Sharper initial response, shorter useful range. Lighter toggle pressure than S3 at same size. Stall warning shorter; recovery dives harder. JFX 2 Very quick response; small inputs do a lot. Rigid X-braced wing holds shape under load. Narrow margin between deep brakes and stall. Why it matters The toggle position that felt “half brakes” on one canopy may be near stall on the next one.
Qualitative curves — shapes illustrate relative behaviour, not measured lift data

Front Risers Cause → Effect

▼ Angle of attack▲ Airspeed▲ Descent rate▲ Riser pressure (grows with speed)→ Longer recovery arc
Front Riser Input — the nose comes down, the wing accelerates, the pressure fights back Pitch change Trim (full flight) Front riser applied: nose down, dive begins Gravity does the accelerating — the input only tilts the wing Riser pressure vs airspeed Airspeed building during dive → Force needed to hold S3 CF JFX Pressure rises with speed on every wing — the slope differs by design Sabre 3 Pressure builds fast and heavy; dive self-limits early Crossfire 3 Lighter pressure, steeper dive, speed persists longer JFX 2 Holds shape under load; deep, long dive; speed carries far
Pressure trends from manufacturer descriptions and LeBlanc — relative, not measured forces

Rear Risers Cause → Effect

▲ Angle of attack▼ Descent rate≈ Airspeed kept (low drag)▲ Glide / distance▲ Stall risk with small input
Rear Risers vs Toggles — same direction, very different wing shape Toggles: only the tail bends Camber added at the tail → lift AND lots of drag Speed bleeds off quickly. Forgiving, but short-lived. Rear risers: the whole rear half tilts Angle of attack rises with little extra drag → flatter glide, speed kept Powerful, efficient — and far less forgiving near stall. Input travel available before stall (conceptual) Toggles Rear risers long short & abrupt Sabre 3 Modest rear-riser effect; useful for glide adjustment, less for plane-out power Crossfire 3 Clear, usable rear-riser response; glide extends noticeably; stall point closer JFX 2 Strong rear-riser power (rigid wing + speed); tiny input = big change; stall arrives abruptly
Rear-riser stall behaviour is widely taught in canopy courses — conceptual bars, not measured travel

Harness Input Cause → Effect

▲ Load on one side→ Wing rolls, then turns▼ Drag added (almost none)▲ Effect with higher WL & elliptical planform
Weight shift — steering without touching a control Sabre 3 Gentle roll, slow turn; good for fine heading tweaks Crossfire 3 Responsive roll; elliptical planform amplifies the shift JFX 2 Immediate, large roll; a primary steering tool at speed Same shift of the hips in every picture — only the wing changes
Harness sensitivity scales with wing loading and planform taper — conceptual front views

Rear Risers + Toggles Together Why pilots hold both

You will often see a pilot flying the final approach on rear risers with the toggles still in hand. This is not two inputs fighting each other — it is a hand-off. Rears do the efficient part; toggles do the forgiving part.

The Hand-Off: speed → distance → soft stop 1 · FRONT RISERS (or turn) Build speed. The wing dives and stores energy as airspeed. Recovery arc begins when the fronts are released. 2 · REAR RISERS Level off with minimal drag. Speed converts to distance, not wasted as drag. Toggles still in hand. Small movements. Stall is near. 3 · TOGGLES FINISH As speed decays, rears lose power. Hands drop to the toggles: drag now helps — it bleeds the last speed. Forgiving stall, wide window. speed building rears: flat & fast toggles: slow & soft Sequence shown conceptually — heights, timings and whether to use any of this are coach decisions for your canopy and experience
Same hand-off, three wingsSabre 3Crossfire 3JFX 2
Speed available to convert
Rear-riser plane-out power
Distance gained on rears
Margin before rear-riser stall
Forgiveness of a mistimed hand-off
Relative ratings synthesised from manufacturer descriptions, LeBlanc and BPA CP manual — not measured
Coach debrief · Illustrative story

“Same hands, different wing” — three pilots, one sunset load

Three friends land on the same final approach, same wind, same intention: fly straight in, level off on rear risers, finish on toggles. Each applies what feels like the same amount of rear riser. Here is what a coach watching from the ground would describe.

🔵 Maya · Sabre 3
Her rear-riser input flattens the glide a little. The canopy answers slowly; she drifts further than usual, then hands drop to toggles and the familiar long flare does the rest. Result: an ordinary, forgiving landing — the rears barely mattered.
🟠 Dan · Crossfire 3
Same input, clearly bigger answer. The wing planes out crisply and carries him noticeably past his usual spot. He feels the risers go “light” as speed decays and switches to toggles. Result: a longer, faster landing than he planned, but inside his window.
🔴 Leo · JFX 2
The same hand movement is now a large input. The rigid wing pitches hard, surges, and in a blink is near its rear-riser stall point with little warning. He releases to toggles early. Result: an abrupt, unsettling landing — the exact input that was “nothing” on the Sabre 3 was “too much” here.

The lesson the coach writes down: the pilot’s hands did the same thing three times. The wing loading, line length and rigidity of each canopy turned one input into three different results. Inputs do not transfer between canopies — calibration has to be rebuilt, with a coach, every time.

⚠
This module explains what the controls do to the wing — not when or how much to use them. Rear-riser and front-riser landings carry a narrow margin that varies by canopy, size and pilot. Heights, timings and whether a technique is appropriate for you are decisions for a qualified canopy coach who knows your canopy and experience.
4

Phase 3: Braked Flight / “Search”

Toggles slow the canopy to manage spacing and altitude in the pattern. What differs by model: how much brake range exists, and what the wing does near the bottom of it.

Sabre 3
  • Deep brake range before stall
  • Progressive feel through the toggle stroke
  • Recovers predictably from deep brakes
  • Good margin — hard to accidentally stall
Crossfire 3
  • Shorter brake range than Sabre 3
  • Toggle pressure builds faster
  • Tail riser geometry changes feel in deep brakes
  • Less forgiveness near the bottom of the range
JFX 2
  • Shortest brake range of the three
  • Aggressive pressure build near stall point
  • Risk of uneven stall if toggles are asymmetric
  • Recovery from deep brakes demands smooth release
⚠
Coming out of brakes is a transition. Releasing toggles suddenly on a higher-performance canopy causes a dive that uses altitude. The more aggressively trimmed the wing, the more pronounced this surge. Smooth, progressive release matters.
5

Phase 4: Turn & Dive

A turn trades altitude for speed. How fast, how steep, and how much speed — all set by the wing’s design. This is where a wrong decision compounds fastest.

Sabre 3
  • Moderate turn rate on toggles
  • Front-riser turns possible but require effort
  • Dive angle builds gradually
  • Speed gain is manageable
Crossfire 3
  • Faster turn initiation
  • Front-riser turns feel lighter and quicker
  • Steeper dive angle than Sabre 3
  • More speed generated per degree of turn
JFX 2
  • Rapid turn response — noticeably sharper
  • Front risers are light; speed builds fast
  • Steep dive angle with significant speed gain
  • Recovery from a turn uses more altitude

Altitude Loss in Turns Why Turns Eat Height

How a Turn Consumes Altitude Bank angle → spiral dive → descent rate multiplied — the effect grows with wing loading Descent Rate in a Spiral Turn High Low Altitude Time in turn → S3 CF JFX Turn starts Bank Angle ≠ Turn Rate At constant bank, a slower canopy actually completes 360° faster in a tighter radius. But the faster canopy spirals at a far higher descent rate. Line Length Matters Smaller canopies have shorter lines. To reach the same bank angle, the pilot moves a shorter distance — so input feels quicker and more agile. Spiral Dive Multiplier A large student canopy may double its descent rate in a hard spiral. A high-WL canopy may quadruple it — LeBlanc cites a 180° using ~500 ft. Your “Normal” Does Not Transfer Your “normal” pattern turn height is calibrated to your current canopy. On a smaller or more aggressive wing, the same turn height may be inside the corner — an unintended low hook turn on your first jump. 💡 “Enter your downwind leg much higher and fly a larger pattern with larger radius turns.” — John LeBlanc, Performance Designs
Turn dynamics adapted from LeBlanc “Wing Loading and High Performance” — conceptual, not altitude data
⚠
The rotation ending, the dive ending, and the excess speed disappearing are three separate events. A pilot who expects them to happen together — based on experience with a different canopy — may misjudge altitude requirements during a transition between models.
6

Phase 5: Recovery

From diving back to level: the altitude and time this takes is one of the most critical differences between models.

Sabre 3
  • Shorter recovery arc
  • Returns to level flight relatively quickly
  • Less altitude consumed in recovery
  • Excess speed bleeds off sooner
Crossfire 3
  • Longer recovery arc than Sabre 3
  • Speed carries further before dissipating
  • More altitude needed for full recovery
  • Requires planning set-up height accordingly
JFX 2
  • Longest recovery arc of the three
  • Speed takes significantly longer to dissipate
  • Substantial altitude consumed before level flight
  • Set-up height must account for extended recovery
Recovery Arc: Distance and Time Are Different Concept diagrams — not measured canopy trajectories S3 Sabre 3 Shorter arc, quicker pitch recovery CF Crossfire 3 Medium arc, moderate pitch recovery JFX JFX 2 Longest arc, slowest pitch recovery LONG vs SHORT extent of the flight path Relative altitude ↓ Relative horizontal travel → Turn complete Sabre 3 Crossfire 3 JFX 2 Δ altitude QUICK vs SLOW rate of pitch recovery Pitch deviation from glide ↓ Relative time → Peak Sabre 3 ← normal glide JFX 2 CF3 0 Heading can finish changing while the canopy is still diving. Rotation ending, dive ending, and excess speed disappearing are SEPARATE events. NOT VALIDATED 750 ft AGL • 270° • harness Wing loading 2.0 Example scenario — not an endorsed turn height NOT VALIDATED 400 ft AGL • 90° • harness Wing loading 2.0 Example scenario — not an endorsed turn height A shorter or quicker recovery does not establish a turn height for any pilot. Recovery characteristics are ONE input — wind, density altitude, pilot currency, and canopy condition all matter. Conceptual diagrams — not measured canopy trajectories or calibrated recovery curves
Two independent dimensions of recovery — distance consumed and rate of pitch return
Recovery arc concept adapted from BPA Canopy Piloting Manual (2005)
7

Phase 6: Flare & Touchdown

The final conversion of forward speed into lift to slow descent rate for landing. The flare window — when to initiate, how much input to use, and how long it lasts — is specific to each canopy model.

Sabre 3
  • Wide flare window — forgiving of timing
  • Progressive toggle response
  • Good lift generation even at moderate speeds
  • Predictable stall point
Crossfire 3
  • Narrower flare window — timing matters more
  • Sharper toggle response on flare
  • Higher speed at flare initiation
  • Two-stage flare technique often preferred
JFX 2
  • Narrowest flare window of the three
  • High approach speed demands precise timing
  • Powerful flare when timed correctly
  • Misjudged timing has greater consequences

Flare Energy Conversion How Speed Becomes Lift

The Flare: Converting Forward Speed into Lift Ground Approach Descending at glide ratio FLARE Initiation Level-off & deceleration Touchdown Height Forward Speed (KE) Toggle Input Lift (Reduced Descent) Sabre 3 Flare • Wide flare window — forgiving timing • Progressive toggle response • Moderate speed at initiation • Longer lines → more toggle travel needed ✓ Good lift even at moderate speeds Crossfire 3 Flare • Narrower window — timing matters • Sharper toggle response • Higher speed at flare start • Two-stage technique often preferred △ Needs more precise speed management JFX 2 Flare • Narrowest window of the three • High approach speed is critical • Powerful when timed correctly • Shorter lines → less travel for same angle ✗ Misjudged timing → serious consequences
Flare mechanics adapted from LeBlanc seminar notes — conceptual, not calibrated
⚠
Flare timing learned on one canopy does not transfer directly to another. A pilot switching from a Sabre 3 to a JFX 2 who flares at the same height and with the same input will get a different result. The flare window, required speed, and toggle travel all change.
8

The Corner

The Corner: the flight path is aimed at or below the ground, and there is no longer enough altitude to finish the recovery. Inside it, no input prevents ground contact at speed.

Recovery Possible Sufficient altitude to complete the arc THE CORNER Flight path aimed at ground — insufficient altitude Decision boundary Level flight restored Ground contact
The Corner concept — adapted from John LeBlanc / Performance Designs, as referenced in the BPA Canopy Piloting Manual

Longer recovery arc ⇒ the corner starts higher. A turn comfortably above the corner on a Sabre 3 may already be inside it on a JFX 2.

⚠
The corner boundary changes with every canopy model, wing loading, and turn type. Altitude references learned on one wing do not transfer. This is why transitioning between canopy models requires recalibrating all altitude awareness.
Concept: John LeBlanc / Performance Designs — BPA Canopy Piloting Manual (May 2005)
9

Transitioning Between Models

When changing canopy models, the flight cycle stays the same — but the timing, feel, and required inputs change in every phase. The table below highlights what a pilot should expect to relearn.

Characteristic What Changes
Opening behaviour Snatch force, heading tendency, time to full inflation, sensitivity to body position at deployment
Brake range Total toggle travel before stall, pressure curve through the range, how deep brakes feel, recovery from near-stall
Harness response How much the canopy reacts to weight shift, roll sensitivity, how quickly directional input takes effect
Turn characteristics Entry speed, dive angle, speed generated, how much altitude is consumed per degree of turn
Recovery arc Time and altitude needed to return to level flight, how long excess speed persists, the set-up height required
Flare timing Initiation height, toggle travel required, speed at flare point, width of the flare window, consequence of mis-timing

Canopy Progression Ladder What Changes at Each Step

Every Step Changes Everything Each rung adds speed, reduces margins, and demands new calibration — AI-guided, coach-verified STUDENT Large 7-cell / 9-cell • WL ~0.7–0.9 • Slow, forgiving, wide flare window • Focus: heading control & flare timing Wide margins INTERMEDIATE Mid-range 9-cell (e.g. Sabre 3 at low WL) • WL ~1.0–1.3 • Faster response, shorter recovery, narrower flare window Moderate margins ADVANCED Semi-elliptical / elliptical (e.g. Crossfire 3) • WL ~1.3–1.6 • Longer dives, greater speed, flare timing critical Narrow margins EXPERT Cross-braced / high-perf (e.g. JFX 2) • WL ~1.6–2.2 • Extreme speed, very long recovery arc, minimal error tolerance Razor thin COMPETITION Purpose-built comp canopy (e.g. Valkyrie) • WL 2.0+ • Extreme AR, hybrid ribs, professional coaching essential Zero margin 💡 “Never project your frame of reference onto another jumper.” — John LeBlanc Your experience level, body position, and current canopy together define what “normal” feels like — it resets at every transition. EVERYTHING RESETS ↑ Wing-loading ranges are approximate — exact progression is individual and coach-determined Sources: LeBlanc (PD), BPA Canopy Piloting Manual, manufacturer category guidelines
Progression framework — conceptual, not prescriptive. Coach guidance required at every transition.
ⓘ
When changing between these models, treat opening behaviour, brake range, harness response, recovery, and flare timing as characteristics to learn again — with coach guidance appropriate to your experience level.
10

Key Takeaways

1

Same cycle, different responses

Every canopy goes through the same six phases. What changes is how aggressively the wing responds at each stage.

2

Timing does not transfer

Flare height, recovery altitude, and brake feel learned on one model do not apply to another. Each model requires its own calibration.

3

Recovery is three events

The rotation stopping, the dive ending, and the speed disappearing happen separately. More performance means more separation between them.

4

The corner moves

The altitude at which recovery becomes impossible changes with every canopy model, wing loading, and turn type. References must be recalibrated.

5

Seek coaching

Understanding characteristics is educational. Developing the skills and judgment to manage them requires qualified coaching and progressive experience.

6

Know when to say no

Conditions, fatigue, unfamiliar canopy, or doubt are all reasons to fly a conservative pattern. A flat landing that you walk away from is always the right call.

ⓘ
Educational context only. The comparisons on this page describe general wing characteristics observed at similar wing loadings. They are not manufacturer specifications, calibrated measurements, or flight-test data. Actual performance depends on jumper weight, canopy size, altitude, weather, rigging, and individual technique.

This content does not replace professional coaching. Consult a qualified canopy coach before transitioning between canopy models.
Flight-cycle concepts adapted from canopy education literature including the BPA Canopy Piloting Manual (May 2005) and general industry knowledge.
Safety notice: This tool is for data review only. It does not replace canopy coaching, DZ rules, traffic awareness, S&TA guidance, or manufacturer guidance. Everything here is information for learning — not advice or a recommendation about any canopy, wing loading, turn or decision. Your decisions are your own. See the Terms of Service.