Float and Climb — The Go-Around Trap

Departing Sarasota Bradenton International Airport (KSRQ), Sarasota, FL — Runway 14, landing after a 1.5-hour local flight. Elevation 30 ft MSL. It is a warm, humid Florida afternoon in late spring: OAT 32°C, dew point 24°C, altimeter 29.88. Density altitude approximately 2,100 ft — well above field elevation, which means the airplane will perform as if it is 2,070 ft higher than it actually is. Winds are light and variable, 3–5 knots. Visibility 10 SM. KSRQ tower is active (0600–0000 local); you are in Class C airspace (ceiling 4,000 MSL).

You are on short final to Runway 14 (true heading 134°), 500 ft AGL, configured for landing: flaps 100% (full), landing gear fixed (always down on the SR22), airspeed 77 KIAS (Vref, short-field approach speed). The runway is 9,500 ft long — plenty of room. The approach is stable and on glide path.

At 50 ft AGL, you begin the landing flare. The airplane is floating — the nose is high, the main gear has not touched down, and you are drifting down the runway. You add a touch of power to arrest the descent, but the float continues. You are now at 30 ft AGL, 1,000 ft down the runway, still floating. The airplane is not settling.

Aircraft: Cirrus SR22, solo, full fuel, within limits. Continental IO-550-N, 310 hp, constant-speed prop, glass Perspective panel, fixed gear, fixed-pitch flaps (100% full). The airplane is airworthy; nothing was written up. Density altitude is high — the airplane is performing sluggishly in the warm, dense air.

Pilot: you — a Private pilot, current, roughly 250 hours total, with 60 hours in the SR22. You have landed the SR22 at KSRQ before, but not in high density altitude conditions. You are familiar with the airplane's tendency to float on landing, but today the float is more pronounced than usual. You are now faced with a decision: continue the float and land farther down the runway, or abort the landing and go around.

NTSB WPR11LA169 (2011): A Cirrus SR-22 on return to Falcon Field (Phoenix, AZ) encountered excessive float during landing flare. The pilot aborted the landing and retracted flaps to climb out, but the aircraft stalled at low altitude and lost control. The airplane struck the runway, veered left, and collided with a parked Cessna 172. The probable cause was the pilot's attempt to correct a landing float by adding power, followed by his premature attempt to climb the airplane out of ground effect during a balked landing, which resulted in an aerodynamic stall. Contributing to the accident was the pilot's failure to properly configure the flaps for the balked landing attempt.

NTSB WPR20FA019 (2019, FATAL): A Cirrus SR22 stalled during landing approach while maneuvering in the traffic pattern at low airspeed and descended into a residential area. The probable cause was the pilot's exceedance of the airplane's critical angle of attack while maneuvering for landing, which resulted in an aerodynamic stall and loss of control. The pilot did not deploy CAPS.

NTSB CEN18FA204 (2018, FATAL): A Cirrus SR22 on a personal flight stalled during initial climb at 200 feet and entered an uncontrollable descent, impacting terrain. The probable cause was an inadvertent stall, with contributing factors including high density altitude and the student pilot's limited experience. The pilot did not deploy CAPS.

NTSB ATL06LA035 (2006): A Cirrus SR22 on a business flight encountered icing conditions while climbing to 9,000 feet in an area where the aircraft was not certified to operate. The accident resulted from inadequate preflight planning, failure to obtain current weather information, and continued flight into known icing conditions, leading to ice accumulation, airspeed decay, stall, and spin. The probable cause was the pilot's inadequate preflight planning, failure to obtain a current weather briefing, and his decision to operate the airplane into a known area of icing outside the airplanes certification standards.

The real accidents cited above occurred at other airports and in other aircraft types — NOT at Sarasota Bradenton International Airport (KSRQ). KSRQ's dominant accident pattern includes LOSS_OF_CONTROL_GROUND (19.2%), FORCED_LANDING (15.4%), and RUNWAY_EXCURSION (11.5%), but the specific stall/spin accidents referenced here happened elsewhere. The scenario is localized to KSRQ to make the landing environment and density altitude real and consequential for you as a student here.

The consistent thread across all these events: the SR22's high-performance engine and constant-speed prop create a fast, energy-rich airplane that floats on landing in high density altitude. A go-around after a float requires precise flap management and airspeed control — retract flaps too quickly or too much at low altitude and low airspeed, and the airplane will stall. The SR22's CAPS parachute is the designed recovery for an unrecoverable stall at low altitude; it is not a substitute for proper technique, but it is the last line of defense when control inputs alone cannot prevent impact.