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Task 2 (Open)

How the field flew this task, and which behaviours separated it.

Top 3 winning behaviours

ELLIOTELLIOTWALWACUDGWEELLITPCORRYCORRY
The optimised route — radii, leg distances and start times are on the task page.

Analysis computed

Pilots
53
Thermals
418116 shared by 2+ pilots
Working band
9422525 m
Airtime split
  • searching35%
  • climbing38%
  • gliding27%

What the weather did

From the weather model

Independent of the tracklogs: modelled conditions for the task area.

Fetching the day’s weather — it will appear here in a moment.

From the pilots' tracks

What the field actually flew — wind, climb strength and leg timing measured from every pilot's tracklog.

The day’s wind, hour by hour and leg by leg. What the air did, read from the field itself. We estimate the wind from the circling of every pilot. The first method is the drift of the circle centre, and the second method, used when the first is not available, is the modulation of the ground speed. We then combine the estimates two ways. The table by hour of day shows how the wind increased and changed direction through the day. The table by speed-section leg shows the wind on each part of the course. This metric describes the day, so it has no value for each pilot.

How strong the day’s climbs were, hour by hour. When the day started, reached its peak, and ended. We group the thermal climbs of all pilots by the hour in which each climb started, labelled in the time zone of the competition. The median and the 90th-percentile average climb rate for each hour show how the lift developed. This metric describes the day, so it has no value for each pilot.

Share of the flight spent in air that wasn’t sinking. How much of the flight was in air worth being in. The value is the share of the airborne time of a pilot, on the shared grid, with a 30 s-smoothed vario at or above −0.5 m/s. The time they flew, the line they steered and the way the flight ended all feed this value. It is therefore a reading of the day as much as of the pilot. There is no expected direction, and the sign of the correlation is the finding. The timing table compares the window of the day’s best climbs against the time when the field launched.

All charts share that one time axis. Arrows fly WITH the wind — direction figures are degrees the wind blows from.

The day's thermals

The 10 most-shared of 230 multi-pilot thermals, reconstructed by pooling every pilot's track through the same climb. Everything shown is measured from the tracks — no fitted lift model. Select a thermal to see it in detail.

Thermal at 14:00 AEDT 22 pilots, 44 climbs

  • Wind 13.7 km/h from 85° (E), measured from 71 circle estimates in the pilots' own tracks.
  • Model wind cross-check loading…
  • Leans 16° from vertical toward 120° (ESE), 145° off downwind (265°).
  • Strongest on the NW side of the core at +1.9 m/s against +1.2 m/s on the SE side.
  • Multiple cores in 6 of 9 bands between 1900 and 2600 m — separate feeders (⬧ in the rose) before they merged.
Watch this thermal in the 3D replay (opens in a new tab)
Pilots in this thermal (climb rates)
PilotMinMedianMax
Guy Hubbard-2.0 m/s+3.3 m/s+5.8 m/s
Neale Halsall-1.7 m/s+1.8 m/s+4.0 m/s
Steve Blenkinsop-3.5 m/s+1.5 m/s+3.3 m/s
Gordon Rigg-4.0 m/s+1.5 m/s+3.7 m/s
Rich Reinauer-2.0 m/s+1.3 m/s+2.5 m/s
Cedric Joyce-2.8 m/s+1.3 m/s+5.8 m/s
Jochen Zeischka-3.5 m/s+1.3 m/s+4.8 m/s
Mitch Butler-1.5 m/s+1.0 m/s+4.8 m/s
Pawel Cedro-2.0 m/s+1.0 m/s+4.0 m/s
Scott Barrett-5.0 m/s+1.0 m/s+6.8 m/s
Ward Gunn-1.0 m/s+1.0 m/s+4.3 m/s
Jon Durand-1.5 m/s+1.0 m/s+3.3 m/s
Tony Cross-2.0 m/s+1.0 m/s+4.3 m/s
Paul Bissett-Amess-0.7 m/s+1.0 m/s+2.5 m/s
David Drabble-1.3 m/s+1.0 m/s+3.5 m/s
Mark Jeffree-0.8 m/s+1.0 m/s+3.5 m/s
Trent Brown-1.0 m/s+1.0 m/s+4.5 m/s
Steve Docherty-0.8 m/s+0.8 m/s+2.5 m/s
Steven Crosby-1.0 m/s+0.8 m/s+3.0 m/s
Diego Mendonca-1.5 m/s+0.8 m/s+5.0 m/s
Vic Hare-2.5 m/s+0.8 m/s+4.0 m/s
Andrew Sutton-1.0 m/s+0.3 m/s+2.0 m/s

Each pilot's slowest, typical and best climb over their own vario samples in this thermal — a negative minimum means they touched sink inside it.

Band table (exact numbers)
BandCore offset E/N (m)Working radiusExtentMean climbBest climbSamplesPilotsCores
25002600 m52 / 23187 m316 m+1.1 m/s+5.8 m/s35472
24002500 m78 / 30123 m178 m+1.2 m/s+6.8 m/s6461
23002400 m-105 / 199212 m293 m+1.2 m/s+4.0 m/s15132
22002300 m22 / -26193 m304 m+0.9 m/s+4.3 m/s25242
21002200 m-52 / -14200 m276 m+1.1 m/s+5.0 m/s25593
20002100 m-148 / 53239 m358 m+1.5 m/s+5.0 m/s25562
19002000 m-91 / 83163 m232 m+1.7 m/s+5.8 m/s14452
18001900 m-121 / 264122 m280 m+2.9 m/s+5.3 m/s3821
17001800 m-68 / 349168 m360 m+2.7 m/s+5.8 m/s5221
StartPilotsHeight bandMean climbStrongest side
1511002600 m+2.9 m/sSE
1619002600 m+1.4 m/sNE
218002600 m+1.4 m/sNE
2217002600 m+1.3 m/sNW
2016002600 m+1.3 m/sNE
1710002600 m+2.3 m/sE
1621002600 m+1.0 m/sNE
2214002600 m+2.3 m/sNE
1415002400 m+2.5 m/sW
1515002500 m+1.8 m/sSW

The dashed “forecast” arrow is the weather model’s wind — a model run, not an observation.

Which behaviours went with better ranks

Each row is one behaviour, compared against the published ranks. Select a row to plot it against rank.

Share of race time spent hunting for the next climb

Each dot is a pilot. ρ = 0.80 (clear pattern, n = 51). Less is expected to be better here, and it was: top ranks gather to the left. The curve is a trend fitted through the dots: left to right it runs from about rank 7 to about rank 52. 2 pilots have no value and are not plotted.
  • Speed-section phase shares, field p25/median/p75: climb 34/37/39% · glide 26/32/40% · search 23/28/39%
BehaviourStrengthWhat it meansPilots measured
Share of race time spent hunting for the next climb
clear pattern
Glide speed between climbs
clear pattern
How long after the gate opened the pilot started
clear pattern
Distance covered between climbs
clear pattern
Glide L/D against the field median
clear pattern
Time spent flying with a gaggle
clear pattern
Arriving at ESS with height to spare
clear pattern
Share of the height gain made outside thermals
clear pattern
Share of lift turned in that was kept as a climb
clear pattern
How often leaving the gaggle paid off
some pattern
Gliding wide of the optimal course line
some pattern
Final glide committed to when leaving the last climb
some pattern
Climbs joined on another pilot's marker
some pattern
Climbing faster than the pilots sharing the thermal
some pattern
How round and consistent the circles were
faint pattern
How much of the thermal the pilot climbed before leaving it
could be chance
How low the pilot gets between climbs
could be chance
Share of the flight spent in air that wasn’t sinking
could be chance
Climb rate at thermal exit
could be chance
Low saves dug out from the bottom of the band
could be chance
Time to core thermals
could be chance
Gliding faster when the next climb is stronger
could be chance

Outcome checks

These measure the result, not a behaviour, so they always follow the ranks.

OutcomeStrengthWhat it meansPilots measured
Race time behind the leader at ESS
clear pattern
Race time lost against the fastest pilots, leg by leg
some pattern

The whole field at a glance

1. Olav Opsanger
2. Rory Duncan
3. Jochen Zeischka
4. Mitch Butler
5. Jon Durand
6. Scott Barrett
7. Gordon Rigg
8. Pawel Cedro
9. Steve Docherty
10. Trent Brown
11. Paul Bissett-Amess
12. Rohan Holtkamp
13. Neale Halsall
14. Vic Hare
15. Rich Reinauer
16. Tony Cross
17. Gary Herman
18. Peter Adriaans
19. Neil Hooke
20. Nils Vesk
21. Bruce Atkinson
22. Todd Wisewould
23. Guy Hubbard
24. Dustan Hansen
25. Steve Blenkinsop
26. Stuart Cathcart
27. Steven Crosby
28. David Drabble
29. Ken Millard
30. Peter Burkitt
31. Ian Miller
32. John Harriott
33. Michael Free
34. Ben Torrance
35. Cedric Joyce
36. Grant Tatham
37. Ward Gunn
38. Tushar Pokle
39. Enda Carrigan
40. Troy Horton
41. Andrew Sutton
42. Mark Jeffree
43. Bobby Gillham
44. Gavin Nicholls
45. Jason Lannstrom
46. Adrian Connor
47. Diego Mendonca
48. Neill Hollingsworth
49. Peter Garrone
50. Ryan Brown
51. Brett Davis
52. Marty Hearne
53. Wayne Johnston
The pilots in rank order against every behaviour. A darker cell is a better percentile in this field, and an empty cell is a behaviour that does not apply.

Pilot style clusters

The groups are flying style, and not score. The spread of ranks in each group shows where that style paid and where it did not.

Group ABold leavers

20 pilots · ranks 144 · median 11.5 · middle half 5.818.8

  • HighHow often leaving the gaggle paid off group median P84 in this field (100 percent)
  • LowLow saves dug out from the bottom of the band group median P21 in this field (0.0 count)
  • HighGlide speed between climbs group median P79 in this field (65.4 kilometres per hour) · usually a strength
  • HighTime spent flying with a gaggle group median P76 in this field (50 percent)
  • 1. Olav Opsanger
  • 2. Rory Duncan
  • 3. Jochen Zeischka
  • 4. Mitch Butler
  • 5. Jon Durand
  • 6. Scott Barrett
  • 7. Gordon Rigg
  • 8. Pawel Cedro
  • 9. Steve Docherty (most typical of this group)
  • 11. Paul Bissett-Amess
  • 12. Rohan Holtkamp
  • 13. Neale Halsall
  • 14. Vic Hare
  • 17. Gary Herman
  • 18. Peter Adriaans
  • 21. Bruce Atkinson
  • 22. Todd Wisewould
  • 30. Peter Burkitt
  • 31. Ian Miller
  • 44. Gavin Nicholls

Group BEscape artists

29 pilots · ranks 1049 · median 34 · middle half 2541

  • HighLow saves dug out from the bottom of the band group median P76 in this field (2.0 count)
  • HighShare of the flight spent in air that wasn’t sinking group median P73 in this field (60 percent)
  • LowDistance covered between climbs group median P28 in this field (1.4 kilometres) · usually costly
  • HighGliding wide of the optimal course line group median P70 in this field (26 percent) · usually costly
  • 10. Trent Brown
  • 15. Rich Reinauer
  • 16. Tony Cross
  • 19. Neil Hooke
  • 20. Nils Vesk
  • 23. Guy Hubbard
  • 24. Dustan Hansen
  • 25. Steve Blenkinsop
  • 26. Stuart Cathcart
  • 27. Steven Crosby
  • 28. David Drabble (most typical of this group)
  • 29. Ken Millard
  • 32. John Harriott
  • 33. Michael Free
  • 34. Ben Torrance
  • 35. Cedric Joyce
  • 36. Grant Tatham
  • 37. Ward Gunn
  • 38. Tushar Pokle
  • 39. Enda Carrigan
  • 40. Troy Horton
  • 41. Andrew Sutton
  • 42. Mark Jeffree
  • 43. Bobby Gillham
  • 45. Jason Lannstrom
  • 46. Adrian Connor
  • 47. Diego Mendonca
  • 48. Neill Hollingsworth
  • 49. Peter Garrone

Not clustered: 50. Ryan Brown — only 12 of 22 metrics available (needs ≥ 60%); 51. Brett Davis — only 10 of 22 metrics available (needs ≥ 60%); 52. Marty Hearne — only 3 of 22 metrics available (needs ≥ 60%); 53. Wayne Johnston — only 5 of 22 metrics available (needs ≥ 60%).

49 pilots on 22 behavioural metrics formed 2 groups.

The metrics in detail

best: could be chance (0.18)

best: clear pattern (0.52)

best: clear pattern (0.77)

#PilotGlideSpdGlideL/DSpeedToFlyWide%Dolphin%
1Olav Opsanger72.0 (19 glides, 61 min gliding)1.13 (4 legs compared)-3.1 (18 glide→climb pairs)9 (4 legs completed)5 (301 of 5623 m gained outside thermals)
2Rory Duncan64.7 (18 glides, 65 min gliding)1.14 (4 legs compared)-3.9 (17 glide→climb pairs)6 (4 legs completed)5 (288 of 5248 m gained outside thermals)
3Jochen Zeischka75.2 (16 glides, 69 min gliding)1.03 (4 legs compared)4.8 (15 glide→climb pairs)19 (4 legs completed)6 (381 of 6918 m gained outside thermals)
4Mitch Butler68.8 (21 glides, 71 min gliding)1.14 (4 legs compared)4.2 (20 glide→climb pairs)13 (4 legs completed)8 (455 of 5788 m gained outside thermals)
5Jon Durand68.9 (21 glides, 69 min gliding)1.12 (4 legs compared)2.5 (20 glide→climb pairs)13 (4 legs completed)9 (522 of 5642 m gained outside thermals)
6Scott Barrett70.9 (20 glides, 76 min gliding)1.14 (4 legs compared)1.4 (19 glide→climb pairs)14 (4 legs completed)13 (860 of 6777 m gained outside thermals)
7Gordon Rigg74.0 (18 glides, 67 min gliding)1.03 (4 legs compared)-0.5 (17 glide→climb pairs)17 (4 legs completed)10 (741 of 7076 m gained outside thermals)
8Pawel Cedro70.8 (22 glides, 67 min gliding)1.03 (4 legs compared)-1.0 (21 glide→climb pairs)12 (4 legs completed)8 (520 of 6506 m gained outside thermals)
9Steve Docherty65.8 (23 glides, 79 min gliding)1.07 (4 legs compared)-0.4 (22 glide→climb pairs)14 (4 legs completed)9 (634 of 6899 m gained outside thermals)
10Trent Brown61.9 (24 glides, 81 min gliding)1.01 (4 legs compared)1.7 (23 glide→climb pairs)20 (4 legs completed)10 (770 of 7592 m gained outside thermals)
11Paul Bissett-Amess63.9 (17 glides, 86 min gliding)1.16 (4 legs compared)0.8 (16 glide→climb pairs)17 (4 legs completed)7 (438 of 6081 m gained outside thermals)
12Rohan Holtkamp65.2 (24 glides, 83 min gliding)1.01 (4 legs compared)0.2 (23 glide→climb pairs)22 (4 legs completed)11 (753 of 6595 m gained outside thermals)
13Neale Halsall65.1 (22 glides, 84 min gliding)0.95 (4 legs compared)-1.4 (21 glide→climb pairs)16 (4 legs completed)11 (796 of 7240 m gained outside thermals)
14Vic Hare71.5 (23 glides, 82 min gliding)1.06 (4 legs compared)5.6 (22 glide→climb pairs)24 (4 legs completed)10 (755 of 7376 m gained outside thermals)
15Rich Reinauer64.1 (31 glides, 88 min gliding)1.02 (4 legs compared)5.0 (30 glide→climb pairs)29 (4 legs completed)12 (868 of 7229 m gained outside thermals)
16Tony Cross63.0 (31 glides, 87 min gliding)0.90 (4 legs compared)-2.2 (30 glide→climb pairs)28 (4 legs completed)13 (1013 of 8073 m gained outside thermals)
17Gary Herman62.9 (26 glides, 90 min gliding)0.90 (4 legs compared)4.3 (25 glide→climb pairs)18 (4 legs completed)10 (804 of 8406 m gained outside thermals)
18Peter Adriaans58.6 (22 glides, 96 min gliding)1.04 (4 legs compared)2.9 (21 glide→climb pairs)26 (4 legs completed)8 (585 of 7765 m gained outside thermals)
19Neil Hooke58.9 (22 glides, 97 min gliding)0.95 (4 legs compared)0.4 (21 glide→climb pairs)14 (4 legs completed)14 (1024 of 7402 m gained outside thermals)
20Nils Vesk61.7 (11 glides, 69 min gliding)0.94 (4 legs compared)-9.8 (10 glide→climb pairs)11 (4 legs completed)3 (289 of 8289 m gained outside thermals)
21Bruce Atkinson47.9 (8 glides, 70 min gliding)0.99 (4 legs compared)-10.5 (7 glide→climb pairs)7 (4 legs completed)4 (296 of 7460 m gained outside thermals)
22Todd Wisewould63.8 (31 glides, 103 min gliding)1.03 (4 legs compared)-2.6 (30 glide→climb pairs)24 (4 legs completed)11 (924 of 8131 m gained outside thermals)
23Guy Hubbard64.6 (34 glides, 101 min gliding)0.97 (4 legs compared)4.0 (33 glide→climb pairs)28 (4 legs completed)13 (1070 of 7939 m gained outside thermals)
24Dustan Hansen64.5 (41 glides, 109 min gliding)0.98 (4 legs compared)4.1 (40 glide→climb pairs)32 (4 legs completed)22 (1787 of 8064 m gained outside thermals)
25Steve Blenkinsop60.3 (38 glides, 128 min gliding)1.06 (4 legs compared)3.2 (37 glide→climb pairs)40 (4 legs completed)11 (947 of 8677 m gained outside thermals)
26Stuart Cathcart56.2 (25 glides, 102 min gliding)0.97 (4 legs compared)-1.3 (24 glide→climb pairs)23 (4 legs completed)5 (504 of 9394 m gained outside thermals)
27Steven Crosby64.5 (32 glides, 97 min gliding)1.01 (4 legs compared)0.9 (31 glide→climb pairs)25 (4 legs completed)12 (973 of 7960 m gained outside thermals)
28David Drabble63.1 (41 glides, 124 min gliding)0.94 (4 legs compared)-1.7 (40 glide→climb pairs)45 (4 legs completed)12 (1192 of 9734 m gained outside thermals)
29Ken Millard62.0 (54 glides, 121 min gliding)0.88 (4 legs compared)-3.4 (53 glide→climb pairs)32 (4 legs completed)49 (7815 of 15936 m gained outside thermals)
30Peter Burkitt65.5 (21 glides, 75 min gliding)1.06 (2 legs compared)-0.0 (20 glide→climb pairs)12 (2 legs completed)14 (792 of 5855 m gained outside thermals)
31Ian Miller56.2 (20 glides, 78 min gliding)1.01 (2 legs compared)2.4 (19 glide→climb pairs)14 (2 legs completed)11 (620 of 5672 m gained outside thermals)
32John Harriott55.9 (36 glides, 129 min gliding)1.03 (2 legs compared)2.5 (35 glide→climb pairs)22 (2 legs completed)26 (1873 of 7139 m gained outside thermals)
33Michael Free50.5 (22 glides, 93 min gliding)0.78 (2 legs compared)2.2 (21 glide→climb pairs)24 (2 legs completed)9 (672 of 7423 m gained outside thermals)
34Ben Torrance50.9 (20 glides, 95 min gliding)0.86 (2 legs compared)-1.4 (19 glide→climb pairs)25 (2 legs completed)14 (849 of 6172 m gained outside thermals)
35Cedric Joyce50.8 (26 glides, 91 min gliding)0.76 (2 legs compared)-1.4 (25 glide→climb pairs)39 (2 legs completed)14 (1072 of 7823 m gained outside thermals)
36Grant Tatham52.7 (32 glides, 115 min gliding)0.85 (2 legs compared)-2.2 (31 glide→climb pairs)76 (2 legs completed)12 (1120 of 9377 m gained outside thermals)
37Ward Gunn68.0 (23 glides, 71 min gliding)0.88 (2 legs compared)-0.3 (22 glide→climb pairs)27 (2 legs completed)22 (1170 of 5252 m gained outside thermals)
38Tushar Pokle47.0 (31 glides, 101 min gliding)0.94 (2 legs compared)-2.2 (30 glide→climb pairs)43 (2 legs completed)19 (1118 of 5813 m gained outside thermals)
39Enda Carrigan59.3 (46 glides, 122 min gliding)1.06 (1 leg compared)-1.3 (45 glide→climb pairs)22 (1 leg completed)18 (1597 of 8816 m gained outside thermals)
40Troy Horton55.8 (24 glides, 73 min gliding)0.93 (1 leg compared)4.8 (23 glide→climb pairs)9 (1 leg completed)11 (537 of 4961 m gained outside thermals)
41Andrew Sutton54.8 (18 glides, 68 min gliding)1.03 (1 leg compared)0.1 (17 glide→climb pairs)19 (1 leg completed)16 (635 of 3939 m gained outside thermals)
42Mark Jeffree48.9 (18 glides, 83 min gliding)0.89 (1 leg compared)1.0 (17 glide→climb pairs)24 (1 leg completed)8 (518 of 6262 m gained outside thermals)
43Bobby Gillham56.1 (6 glides, 55 min gliding)0.73 (1 leg compared)-11.9 (5 glide→climb pairs)41 (1 leg completed)3 (167 of 6303 m gained outside thermals)
44Gavin Nicholls62.8 (14 glides, 51 min gliding)0.96 (1 leg compared)0.7 (13 glide→climb pairs)17 (1 leg completed)18 (663 of 3607 m gained outside thermals)
45Jason Lannstrom54.0 (24 glides, 57 min gliding)0.91 (1 leg compared)3.6 (23 glide→climb pairs)44 (1 leg completed)24 (828 of 3513 m gained outside thermals)
46Adrian Connor47.5 (7 glides, 46 min gliding)0.83 (1 leg compared)3.8 (6 glide→climb pairs)12 (1 leg completed)24 (619 of 2546 m gained outside thermals)
47Diego Mendonca57.6 (32 glides, 75 min gliding)0.72 (1 leg compared)9.8 (31 glide→climb pairs)25 (1 leg completed)16 (1070 of 6540 m gained outside thermals)
48Neill Hollingsworth53.7 (17 glides, 34 min gliding)0.77 (1 leg compared)-0.9 (16 glide→climb pairs)33 (1 leg completed)22 (731 of 3344 m gained outside thermals)
49Peter Garrone55.2 (13 glides, 32 min gliding)2.6 (12 glide→climb pairs)28 (419 of 1517 m gained outside thermals)
50Ryan Brown48.0 (3 glides, 11 min gliding)
51Brett Davis
52Marty Hearne
53Wayne Johnston

Glide speed between climbs

Measured in kilometres per hour · higher is better

How fast the pilot moves down the course when they are on a glide. The value is the duration-weighted mean ground speed over every glide after the start, which is the glide distance divided by the glide time. A higher value means more ground covered in each minute between climbs.

Field glide speed: median 62.0 km/h · p90 70.8 km/h (50 pilots)

best: clear pattern (0.80)

#PilotFloor%LowSaveskm/climbSearch%
1Olav Opsanger58 (13 descents, lowest 23% of band)0.03.7 (mean shared-climb pctile 54%)12
2Rory Duncan62 (14 descents, lowest 2% of band)1.0 (deepest save from 4% of band)3.3 (mean shared-climb pctile 53%)19
3Jochen Zeischka54 (11 descents, lowest 4% of band)0.03.7 (mean shared-climb pctile 57%)17
4Mitch Butler63 (12 descents, lowest -11% of band)0.02.9 (mean shared-climb pctile 50%)23
5Jon Durand45 (13 descents, lowest -9% of band)0.02.6 (mean shared-climb pctile 57%)14
6Scott Barrett39 (12 descents, lowest -27% of band)1.0 (deepest save from -15% of band)3.4 (mean shared-climb pctile 47%)23
7Gordon Rigg44 (14 descents, lowest -9% of band)1.0 (deepest save from 4% of band)2.6 (mean shared-climb pctile 55%)23
8Pawel Cedro55 (14 descents, lowest 16% of band)0.02.4 (mean shared-climb pctile 45%)20
9Steve Docherty56 (14 descents, lowest -10% of band)1.0 (deepest save from 4% of band)2.8 (mean shared-climb pctile 58%)24
10Trent Brown13 (15 descents, lowest -30% of band)3.0 (deepest save from 11% of band)1.9 (mean shared-climb pctile 49%)19
11Paul Bissett-Amess60 (10 descents, lowest -6% of band)1.0 (deepest save from -6% of band)3.0 (mean shared-climb pctile 41%)25
12Rohan Holtkamp26 (12 descents, lowest 4% of band)1.0 (deepest save from 15% of band)2.2 (mean shared-climb pctile 62%)22
13Neale Halsall41 (13 descents, lowest 5% of band)0.02.4 (mean shared-climb pctile 51%)27
14Vic Hare23 (10 descents, lowest 3% of band)0.02.3 (mean shared-climb pctile 49%)28
15Rich Reinauer30 (16 descents, lowest -8% of band)1.0 (deepest save from -8% of band)1.7 (mean shared-climb pctile 53%)27
16Tony Cross19 (18 descents, lowest -31% of band)4.0 (deepest save from -7% of band)1.6 (mean shared-climb pctile 52%)21
17Gary Herman28 (12 descents, lowest -25% of band)2.0 (deepest save from -16% of band)2.4 (mean shared-climb pctile 62%)20
18Peter Adriaans49 (16 descents, lowest -21% of band)1.0 (deepest save from 15% of band)2.4 (mean shared-climb pctile 56%)22
19Neil Hooke13 (10 descents, lowest -28% of band)2.0 (deepest save from -9% of band)1.9 (mean shared-climb pctile 47%)30
20Nils Vesk19 (12 descents, lowest -17% of band)5.0 (deepest save from -15% of band)5.5 (mean shared-climb pctile 35%)17
21Bruce Atkinson65 (10 descents, lowest 0% of band)1.0 (deepest save from 0% of band)4.7 (mean shared-climb pctile 22%)9
22Todd Wisewould52 (18 descents, lowest -19% of band)0.01.9 (mean shared-climb pctile 54%)33
23Guy Hubbard30 (14 descents, lowest -11% of band)1.0 (deepest save from 1% of band)1.6 (mean shared-climb pctile 53%)28
24Dustan Hansen34 (13 descents, lowest -7% of band)1.0 (deepest save from -1% of band)1.2 (mean shared-climb pctile 52%)36
25Steve Blenkinsop25 (16 descents, lowest -23% of band)0.01.3 (mean shared-climb pctile 39%)33
26Stuart Cathcart25 (15 descents, lowest -23% of band)5.0 (deepest save from -23% of band)2.1 (mean shared-climb pctile 41%)25
27Steven Crosby39 (14 descents, lowest -15% of band)2.0 (deepest save from -9% of band)1.4 (mean shared-climb pctile 46%)33
28David Drabble40 (21 descents, lowest -21% of band)3.0 (deepest save from -21% of band)1.4 (mean shared-climb pctile 51%)33
29Ken Millard38 (35 descents, lowest -12% of band)1.0 (deepest save from 8% of band)1.0 (mean shared-climb pctile 64%)44
30Peter Burkitt41 (10 descents, lowest 5% of band)0.02.2 (mean shared-climb pctile 44%)28
31Ian Miller50 (12 descents, lowest -26% of band)0.02.4 (mean shared-climb pctile 55%)23
32John Harriott51 (16 descents, lowest -10% of band)2.0 (deepest save from -2% of band)1.2 (mean shared-climb pctile 48%)51
33Michael Free17 (11 descents, lowest -27% of band)4.0 (deepest save from -27% of band)2.1 (mean shared-climb pctile 43%)27
34Ben Torrance63 (11 descents, lowest -7% of band)2.0 (deepest save from 2% of band)1.7 (mean shared-climb pctile 54%)39
35Cedric Joyce40 (13 descents, lowest -1% of band)2.0 (deepest save from 10% of band)1.2 (mean shared-climb pctile 47%)32
36Grant Tatham25 (13 descents, lowest -33% of band)3.0 (deepest save from -32% of band)1.1 (mean shared-climb pctile 54%)30
37Ward Gunn31 (7 descents, lowest -28% of band)0.01.3 (mean shared-climb pctile 48%)46
38Tushar Pokle78 (11 descents, lowest 12% of band)0.01.1 (mean shared-climb pctile 54%)43
39Enda Carrigan46 (16 descents, lowest -21% of band)0.00.7 (mean shared-climb pctile 43%)41
40Troy Horton40 (12 descents, lowest -28% of band)1.0 (deepest save from -26% of band)1.4 (mean shared-climb pctile 47%)43
41Andrew Sutton55 (10 descents, lowest -19% of band)0.01.4 (mean shared-climb pctile 43%)45
42Mark Jeffree32 (8 descents, lowest -32% of band)3.0 (deepest save from -28% of band)1.6 (mean shared-climb pctile 42%)32
43Bobby Gillham16 (6 descents, lowest -16% of band)3.0 (deepest save from -16% of band)4.7 (mean shared-climb pctile 65%)24
44Gavin Nicholls42 (8 descents, lowest 14% of band)0.01.5 (mean shared-climb pctile 54%)36
45Jason Lannstrom58 (8 descents, lowest 22% of band)0.00.9 (mean shared-climb pctile 54%)43
46Adrian Connor33 (2 descents, lowest 8% of band)0.02.1 (mean shared-climb pctile 50%)36
47Diego Mendonca5 (12 descents, lowest -33% of band)2.0 (deepest save from -17% of band)0.7 (mean shared-climb pctile 53%)48
48Neill Hollingsworth35 (9 descents, lowest -33% of band)0.01.2 (mean shared-climb pctile 50%)39
49Peter Garrone27 (4 descents, lowest -19% of band)0.01.4 (mean shared-climb pctile 41%)42
50Ryan Brown0.078
51Brett Davis0.0100
52Marty Hearne
53Wayne Johnston

Share of race time spent hunting for the next climb

Measured in percent · lower is better

Time that goes into neither a climb nor progress down the course. This is the time spent to find lift, to stay up, and to decide what to do next. The value is the share of the speed-section time, from the start to ESS or to the landing, in which the pilot neither climbed in a thermal nor glided with real net speed. A lower value means less time lost between climbs.

Speed-section phase shares, field p25/median/p75: climb 34/37/39% · glide 26/32/40% · search 23/28/39%

best: clear pattern (0.61)

best: clear pattern (0.69)

#PilotStartDlyTimeLostBehindSpare mFinalGl
1Olav Opsanger4800.0-423.38 (left last climb 4.8 km out at 1723 m)
2Rory Duncan38154.0-1289.68 (left last climb 7.2 km out at 1039 m)
3Jochen Zeischka144812.4-813.59 (left last climb 8.1 km out at 2537 m)
4Mitch Butler2720615.5-98.59 (left last climb 6.8 km out at 1084 m)
5Jon Durand2773117.6-1019.18 (left last climb 4.5 km out at 778 m)
6Scott Barrett4386918.2-1052.31 (left last climb 3.8 km out at 1944 m)
7Gordon Rigg2953419.1-18910.37 (left last climb 7.6 km out at 1025 m)
8Pawel Cedro30247924.21385.31 (left last climb 6.7 km out at 1551 m)
9Steve Docherty158109128.6-371.58 (left last climb 3.4 km out at 2443 m)
10Trent Brown34123036.6483.55 (left last climb 4.7 km out at 1621 m)
11Paul Bissett-Amess166115637.51043.23 (left last climb 5.6 km out at 2030 m)
12Rohan Holtkamp303122340.3-67.14 (left last climb 7.6 km out at 1358 m)
13Neale Halsall126148541.1826.24 (left last climb 7.3 km out at 1460 m)
14Vic Hare177160842.4-572.90 (left last climb 3.9 km out at 1630 m)
15Rich Reinauer83215152.0-1116.95 (left last climb 6.9 km out at 1281 m)
16Tony Cross127253059.2-336.03 (left last climb 7.0 km out at 1452 m)
17Gary Herman738185659.7945.87 (left last climb 7.5 km out at 1568 m)
18Peter Adriaans87259761.2-496.99 (left last climb 2.4 km out at 633 m)
19Neil Hooke118281665.2660.71 (left last climb 1.3 km out at 2091 m)
20Nils Vesk271266465.4-136.61 (left last climb 7.1 km out at 1370 m)
21Bruce Atkinson707243868.9941.33 (left last climb 2.7 km out at 2350 m)
22Todd Wisewould67328672.3296.53 (left last climb 2.5 km out at 669 m)
23Guy Hubbard176334174.2-616.30 (left last climb 6.9 km out at 1385 m)
24Dustan Hansen103357777.42525.05 (left last climb 6.4 km out at 1551 m)
25Steve Blenkinsop3726761135.03805.60 (left last climb 6.4 km out at 1440 m)
26Stuart Cathcart1825313107.31027.03 (left last climb 6.0 km out at 1146 m)
27Steven Crosby153389583.161.08 (left last climb 1.9 km out at 2033 m)
28David Drabble2785718115.63884.92 (left last climb 6.5 km out at 1609 m)
29Ken Millard87379880.53654.48 (left last climb 6.9 km out at 1831 m)
30Peter Burkitt52961.85 (left last climb 2.5 km out at 1662 m)
31Ian Miller189713650.66 (left last climb 0.3 km out at 712 m)
32John Harriott29738863.02 (left last climb 1.9 km out at 935 m)
33Michael Free11524176
34Ben Torrance424075
35Cedric Joyce9754739
36Grant Tatham3427802
37Ward Gunn10282694
38Tushar Pokle3335037
39Enda Carrigan31411981.86 (left last climb 0.7 km out at 642 m)
40Troy Horton101416
41Andrew Sutton3381422
42Mark Jeffree10042799
43Bobby Gillham5322628
44Gavin Nicholls536963
45Jason Lannstrom16302088
46Adrian Connor1121340
47Diego Mendonca5651098
48Neill Hollingsworth13261412
49Peter Garrone623
50Ryan Brown1647
51Brett Davis1243
52Marty Hearne
53Wayne Johnston

How long after the gate opened the pilot started

Measured in seconds · lower is better

Every second between the opening of the gate and the crossing of the start line is a second lost for nothing. The value is the seconds from the start gate taken to the scored SSS crossing. On an elapsed-time task, the pilot’s own crossing is the reference, so the delay is 0 by definition. The start table adds the crossing altitude, and the distance behind the leading pilot who had already started.

Start execution

PilotDelayAlt mBand %Behind km
Olav Opsanger0:4820497017.3
Rory Duncan0:3824839727.5
Jochen Zeischka0:0121977917.1
Mitch Butler0:27254510127.3
Jon Durand0:2721477617.2
Scott Barrett0:4320356917.3
Gordon Rigg0:2920386917.2
Pawel Cedro5:0220096712.8
Steve Docherty2:381979669.7
Trent Brown0:3419536417.3
Paul Bissett-Amess2:461988669.8
Rohan Holtkamp5:0321087426.9
Neale Halsall2:0617044817.5
Vic Hare2:5720206810.0
Rich Reinauer1:2320426917.6
Tony Cross2:0721637717.6
Gary Herman12:1817064827.5
Peter Adriaans1:2718795917.4
Neil Hooke1:5817935417.6
Nils Vesk4:3112782118.5
Bruce Atkinson11:4719256216.3
Todd Wisewould1:0720977317.5
Guy Hubbard2:5619486410.0
Dustan Hansen1:4322488327.0
Steve Blenkinsop6:122210803.8
Stuart Cathcart3:0219236210.1
Steven Crosby2:331944639.7
David Drabble4:3820286912.2
Ken Millard1:271839570.0
Peter Burkitt0:5217925417.3
Ian Miller31:3720877225.0
John Harriott4:5719196218.7
Michael Free19:1216254317.1
Ben Torrance0:4223478927.6
Cedric Joyce16:151741506.3
Grant Tatham5:421985663.4
Ward Gunn17:081920626.8
Tushar Pokle5:3319136127.3
Enda Carrigan5:141893603.5
Troy Horton1:4117945417.5
Andrew Sutton5:3817935413.5
Mark Jeffree16:441632446.5
Bobby Gillham8:5221027320.7
Gavin Nicholls8:5619316215.5
Jason Lannstrom27:1020477026.2
Adrian Connor1:521722490.5
Diego Mendonca9:2517395015.9
Neill Hollingsworth22:0618605826.6
Peter Garrone10:2320066726.8
Ryan Brown27:2715724027.9
Brett Davis20:43661-1828.6

Delay = gate taken → SSS crossing. Behind km = extra distance to the next turnpoint vs the furthest-along already-started pilot at the moment of this start (time grid).

Race time lost against the fastest pilots, leg by leg

Measured in seconds · lower is better

For each completed speed-section leg, we compare the leg time of the pilot with the mean of the top 10 pilots by rank who completed that leg. Only the losses count, and we add them together. The sum of the leg times is the race time, and the rank defines the reference, so this metric follows the result by construction. Read the waterfall table, which shows every leg against the task winner, for the diagnosis. Do not read the correlation as a finding.

-1:58SSS→WALWA+3:17WALWA→CUDGWE+2:20CUDGWE→ELLITP+0:31ELLITP→ESS
Rory Duncan, over 4 compared legs: +4:10 overall. — marks a leg the pilot or the winner did not complete; the table below has every pilot.

Leg waterfall — leg time vs the task winner

PilotSSS→WALWAWALWA→CUDGWECUDGWE→ELLITPELLITP→ESSTotal
Olav Opsanger+0:00+0:00+0:00+0:00+0:00
Rory Duncan-1:58+3:17+2:20+0:31+4:10
Jochen Zeischka+0:46+13:48-0:02-1:23+13:09
Mitch Butler+1:44+9:46+4:40-0:18+15:52
Jon Durand+0:12+18:10-1:03+0:37+17:57
Scott Barrett-1:17-2:24+22:01-0:05+18:16
Gordon Rigg-1:14+11:17+5:08+4:12+19:24
Pawel Cedro+11:05+5:20+4:02-0:29+19:58
Steve Docherty+16:56-2:14+11:53+0:13+26:48
Trent Brown+4:49+6:18+26:20-0:39+36:48
Paul Bissett-Amess+16:45+10:11+9:17-0:43+35:30
Rohan Holtkamp+1:44+9:09+25:06+0:03+36:02
Neale Halsall+2:04+22:43+15:54-0:50+39:50
Vic Hare+15:18+20:44+3:46+0:29+40:17
Rich Reinauer+1:54+24:14+25:28-0:14+51:23
Tony Cross+1:33+29:16+16:42+10:20+57:51
Gary Herman+18:25+12:20+14:20+3:06+48:11
Peter Adriaans+9:55+20:46+19:30+10:21+60:31
Neil Hooke+10:58+27:23+25:33+0:11+64:05
Nils Vesk+22:25+12:19+26:28+0:25+61:38
Bruce Atkinson+20:45+22:18+11:09+3:40+57:53
Todd Wisewould+10:00+13:57+38:27+9:36+72:00
Guy Hubbard+17:32+32:12+22:54-0:38+72:01
Dustan Hansen+3:37+60:43+12:15-0:08+76:27
Steve Blenkinsop+26:20+71:30+31:50-0:04+129:36
Stuart Cathcart+16:06+66:39+22:46-0:24+105:07
Steven Crosby+39:16+16:47+25:50-0:33+81:20
David Drabble+16:26+24:40+71:10-0:32+111:44
Ken Millard+20:43+39:07+20:26-0:28+79:48
Peter Burkitt+4:43+5:09+9:52
Ian Miller+7:34+24:37+32:12
John Harriott+28:22+45:50+74:12
Michael Free+40:11+38:52+79:02
Ben Torrance+27:35+49:47+77:21
Cedric Joyce+27:21+61:04+88:25
Grant Tatham+22:12+117:16+139:28
Ward Gunn+28:07+26:13+54:20
Tushar Pokle+62:45+30:38+93:23
Enda Carrigan+23:04+23:04
Troy Horton+10:03+10:03
Andrew Sutton+26:48+26:48
Mark Jeffree+49:46+49:46
Bobby Gillham+46:54+46:54
Gavin Nicholls+19:09+19:09
Jason Lannstrom+37:54+37:54
Adrian Connor+25:27+25:27
Diego Mendonca+21:24+21:24
Neill Hollingsworth+26:39+26:39

Each cell is the leg time of this pilot minus the leg time of the winner. A + value is slower than the winner, and a − value is faster. A — means that the pilot or the winner did not complete the leg.

The scalar metric instead adds the losses against the mean of the top 10 pilots who completed each leg. A leg flown faster than that reference contributes 0.

Race time behind the leader at ESS

Measured in minutes · lower is better

At each speed-section turnpoint, we compare the elapsed race time of the pilot, which is the reaching time minus their own start, with the fastest pilot to that turnpoint. The value is the minutes behind at ESS. It follows the final rank almost exactly, because this metric is the sanity check of the evaluation.

A line that stops early is a pilot who landed. The top 5 are coloured; the table below has every pilot.

Horserace — minutes behind the leader at each turnpoint

PilotELLIOTWALWACUDGWEELLITPCORRYCORRY
Olav Opsanger0.82.13.80.00.00.0
Rory Duncan0.60.04.93.54.04.0
Jochen Zeischka0.02.117.513.712.412.4
Mitch Butler0.43.514.915.815.515.5
Jon Durand0.42.021.817.017.617.6
Scott Barrett0.70.80.018.318.218.2
Gordon Rigg0.50.613.514.919.119.1
Pawel Cedro5.017.524.424.724.224.2
Steve Docherty2.620.920.328.428.628.6
Trent Brown0.66.714.637.236.636.6
Paul Bissett-Amess2.720.932.738.237.537.5
Rohan Holtkamp5.08.118.940.240.340.3
Neale Halsall2.15.529.842.041.141.1
Vic Hare2.919.641.941.942.442.4
Rich Reinauer1.44.630.552.252.052.0
Tony Cross2.15.035.948.859.259.2
Gary Herman12.332.046.056.659.759.7
Peter Adriaans1.412.735.150.861.261.2
Neil Hooke1.914.343.365.165.265.2
Nils Vesk4.528.342.264.965.465.4
Bruce Atkinson11.833.957.865.268.968.9
Todd Wisewould1.112.528.062.772.372.3
Guy Hubbard2.921.855.674.874.274.2
Dustan Hansen1.76.769.077.577.477.4
Steve Blenkinsop6.233.9107.0135.1135.0135.0
Stuart Cathcart3.020.588.8107.8107.3107.3
Steven Crosby2.543.261.683.683.183.1
David Drabble4.622.448.7116.1115.6115.6
Ken Millard1.423.564.280.980.580.5
Peter Burkitt0.86.913.7
Ian Miller31.640.566.8
John Harriott4.934.782.1
Michael Free19.260.7101.2
Ben Torrance0.729.681.0
Cedric Joyce16.244.9107.6
Grant Tatham5.729.2148.1
Ward Gunn17.146.674.4
Tushar Pokle5.569.6101.9
Enda Carrigan5.229.6
Troy Horton1.713.1
Andrew Sutton5.633.8
Mark Jeffree16.767.8
Bobby Gillham8.857.1
Gavin Nicholls8.929.4
Jason Lannstrom27.166.4
Adrian Connor1.928.6
Diego Mendonca9.432.1
Neill Hollingsworth22.150.1
Peter Garrone10.4
Ryan Brown27.4
Brett Davis20.7

The elapsed race time, from the pilot’s own start, minus the fastest elapsed time to that turnpoint. A — means that the pilot did not reach the turnpoint.

Arriving at ESS with height to spare

Measured in metres · lower is better

Height still available at ESS that the pilot no longer needed. That altitude was available for more speed, and the pilot did not use it. The value is the altitude at ESS minus the altitude needed to glide to goal at the standard glide ratio of the sport, which is 5.0 for HG and 4.0 for PG (S7F §13.4.6). A large positive margin means the pilot arrived too high. A margin near zero means they flew the final glide with little height to spare.

ESS altitude margin over final glide: top-10 median -62 m (n=10) vs rest median 66 m (n=19).

Footnotes

How the field is compared

Everything that compares pilots to each other uses one shared clock. That includes gaggles, shared thermals, and the position of each pilot at the same moment. GlideComp resamples every track onto a common 10-second grid. Two pilots are therefore always compared at the same instant, whatever rate their instruments logged at.

Metric glossary

How GlideComp measures every metric on this page. On screen, the ⓘ beside a metric opens the same description in place. On paper, this section is the reference for all of them.

Day profile & wind

The day’s wind, hour by hour and leg by leg(“Wind” in tables)
Measured in kilometres per hour · no expected direction

What the air did, read from the field itself. We estimate the wind from the circling of every pilot. The first method is the drift of the circle centre, and the second method, used when the first is not available, is the modulation of the ground speed. We then combine the estimates two ways. The table by hour of day shows how the wind increased and changed direction through the day. The table by speed-section leg shows the wind on each part of the course. This metric describes the day, so it has no value for each pilot.

How strong the day’s climbs were, hour by hour(“Climb/hr” in tables)
Measured in metres per second · no expected direction

When the day started, reached its peak, and ended. We group the thermal climbs of all pilots by the hour in which each climb started, labelled in the time zone of the competition. The median and the 90th-percentile average climb rate for each hour show how the lift developed. This metric describes the day, so it has no value for each pilot.

Share of the flight spent in air that wasn’t sinking(“NonSink%” in tables)
Measured in percent · no expected direction

How much of the flight was in air worth being in. The value is the share of the airborne time of a pilot, on the shared grid, with a 30 s-smoothed vario at or above −0.5 m/s. The time they flew, the line they steered and the way the flight ended all feed this value. It is therefore a reading of the day as much as of the pilot. There is no expected direction, and the sign of the correlation is the finding. The timing table compares the window of the day’s best climbs against the time when the field launched.

Climbing

Climbing faster than the pilots sharing the thermal(“Out-climb” in tables)
Measured in percent · higher is better

When this pilot and other pilots were in the SAME thermal, who climbed faster? In every thermal that two pilots or more used, we rank each use by its average climb rate. The percentile of a use is the share of uses that were strictly slower. The value is the duration-weighted mean percentile over the shared climbs of the pilot. 50% is exactly average. 80% means they climbed faster than four in five of the pilots they shared lift with. The shared thermal is what separates centring skill from thermal selection: a pilot who only found better air gets no higher value here.

Time to core thermals(“Core s” in tables)
Measured in seconds · lower is better

How long the pilot takes to get into the best lift after they arrive in a thermal. For each thermal of 60 s or more, we measure the seconds from the entry until the 30 s rolling climb rate first reaches 90% of its peak in that thermal. The value is the median across the thermals of the pilot. Every second here is a second spent climbing slower than the thermal can carry them.

Climb rate at thermal exit(“LeaveRate” in tables)
Measured in metres per second · no expected direction

The median climb rate that the pilot left thermals at. For each thermal of 90 s or more, we take the climb rate over its final 30 s. A high value means they leave lift that still works. A low value means they stay in a climb until nothing is left. This is an absolute rate, so read it against the day: compare it with the median climb in "How strong the day’s climbs were". A pilot who leaves at 1.5 m/s leaves a good climb on a 1 m/s day, and takes the worst lift available on a 4 m/s day. There is no expected direction. The sign of the correlation says which behaviour paid on this task.

Share of lift turned in that was kept as a climb(“Kept%” in tables)
Measured in percent · no expected direction

How selective the pilot is about the lift they stop for. Each period of circling of 30 s or more after the start counts as lift that the pilot sampled. If the period overlaps a detected thermal, the pilot kept that lift. If it does not, they turned a few circles and left it. The value is the percentage kept. A low value means they are selective. A high value means they keep almost every climb they turn in. There is no expected direction: selection wins on a strong day and wastes time on a weak one.

How much of the thermal the pilot climbed before leaving it(“TopOut%” in tables)
Measured in percent · no expected direction

Does the pilot climb to the top of every thermal, or leave with lift still above them? We take the altitude where they left each thermal after the start, as a percentage of the day’s working band. 0% is the floor of the field and 100% is its ceiling. The value is the median. There is no expected direction: a climb to the top buys height in reserve, and an early departure buys time.

How round and consistent the circles were(“Round” in tables)
Measured in ratio · lower is better

Whether the pilot flies clean, repeatable circles, or moves around the thermal. We fit each detected circle by least squares. The RMS fit error divided by the fitted radius measures how round the turn was. The value is the median over all of the circles of the pilot. A lower value means smoother and more consistent turns.

Gliding

Glide speed between climbs(“GlideSpd” in tables)
Measured in kilometres per hour · higher is better

How fast the pilot moves down the course when they are on a glide. The value is the duration-weighted mean ground speed over every glide after the start, which is the glide distance divided by the glide time. A higher value means more ground covered in each minute between climbs.

Glide L/D against the field median(“GlideL/D” in tables)
Measured in ratio · higher is better

Whether the pilot found better air on glide than the other pilots on the same leg. For each completed speed-section leg, we take the pilot's glide-phase L/D. That is the path distance divided by the net altitude lost during the glides, and we skip a leg that loses less than 100 m. We divide it by the median L/D of the field on that same leg, and then average over the legs. 1.10 means the pilot glided 10% further for each metre lost than the usual pilot on those legs.

Gliding faster when the next climb is stronger(“SpeedToFly” in tables)
Measured in kilometres per hour · higher is better

Speed to fly: the pilot flies faster when a good climb is in front of them, and slower when it is not. We pair each glide after the start with the climb rate of the next thermal that starts within 5 minutes. The value is the mean glide speed before climbs stronger than the median, minus the mean glide speed before weaker climbs. +8 km/h means the pilot flew 8 km/h faster into the good climbs. This is a PROXY, and not true speed to fly, because there is no glider polar data.

Gliding wide of the optimal course line(“Wide%” in tables)
Measured in percent · lower is better

How much further the pilot flew on glide than the optimised course line needed. 0% is a flight exactly along the line, and 12% is a glide 12% further than necessary. On each completed speed-section leg, we compare the pilot's route with the optimised distance of the leg, weighted by that optimised distance. Only the glides are measured at their full path length. Circling and searching contribute their entry-to-exit displacement instead. A climb or a search for lift therefore never reads as a wide line, because a pilot chooses a line only on glide. 0% is a real value that a pilot can reach: a pilot who flies the line of the optimiser scores exactly zero.

Share of the height gain made outside thermals(“Dolphin%” in tables)
Measured in percent · no expected direction

Dolphin flying: how much of the height that the pilot gained came outside of circling. The value is the share of the altitude gain after the start, smoothed over 10 s, that the pilot made outside a detected thermal. There is no expected direction. The sign of the correlation shows whether dolphin flying paid on this day.

Decision-making

How low the pilot gets between climbs(“Floor%” in tables)
Measured in percent · no expected direction

How low the pilot goes before the next climb. A high value is a race with height in reserve, and a low value is a flight that goes down near the ground. We take each pair of climbs that the pilot made after the start, and we find the lowest point between them. We keep only the gaps that go down 100 m or more, because a top-up between two climbs is not a descent. We do not count a sled run or the glide to goal, because the pilot made no climb after them. The value is the median of those low points, as a percentage of the day's working band. 0% is where the lowest tenth of the field's climbs started, and 100% is where the highest tenth stopped. Thus a negative value shows that the pilot went lower than almost all of the field. The pilot must have two or more of these descents. There is no expected direction. The sign of the correlation says whether height in reserve pays.

Low saves dug out from the bottom of the band(“LowSaves” in tables)
Measured in count · no expected direction

How many times the pilot got low and climbed out again. We count the climbs after the start that the pilot entered below 15% of the working band, and that then gained 300 m or more. Those are true low saves. Zero is a real value, and not a missing one: it means the pilot never got that low. There is no expected direction. The sign of the correlation says whether a climb-out or a flight that stays high pays.

Distance covered between climbs(“km/climb” in tables)
Measured in kilometres · higher is better

How far the pilot gets down the course before they must stop and circle again. This is the direct reading of how often they stop. The value is the scored flown distance divided by the number of thermals taken after the start, so 3 km means three kilometres of course for each climb. The pilot must fly 20 km or more. The note of each pilot adds their mean climb percentile inside shared thermals, so you can read the number of stops together with the climb strength. Long legs between weak climbs is a different day from long legs between strong ones.

Share of race time spent hunting for the next climb(“Search%” in tables)
Measured in percent · lower is better

Time that goes into neither a climb nor progress down the course. This is the time spent to find lift, to stay up, and to decide what to do next. The value is the share of the speed-section time, from the start to ESS or to the landing, in which the pilot neither climbed in a thermal nor glided with real net speed. A lower value means less time lost between climbs.

Gaggle

Time spent flying with a gaggle(“InGaggle%” in tables)
Measured in percent · no expected direction

Whether the pilot raced with other pilots or alone. The value is the share of their flying time after the start inside a detected gaggle, that is, clustered with one other racing pilot or more on the shared time grid. There is no expected direction. A gaggle increases the power to search for lift, but it also holds a pilot to its own speed. The sign of the correlation says which of the two occurred here.

Climbs joined on another pilot's marker(“Marked%” in tables)
Measured in percent · no expected direction

How much of the lift of the pilot another pilot found first. The value is the share of their climbs after the start where another pilot was already established in the same thermal when they arrived. Established means 30 s or more into the climb, and still climbing. A high value means they mostly climb on the markers of other pilots. A low value means they find their own air. There is no expected direction. A marker is free information, but it puts a pilot where the last climb was, and not where the next one is.

How often leaving the gaggle paid off(“LeaveWin%” in tables)
Measured in percent · no expected direction

When a pilot leaves a gaggle that continues to fly, did the departure pay off? We compare the arrival of the pilot who left at the next turnpoint against the median arrival of the pilots who stayed. A win rate of more than 50% means their departures beat the gaggle. A pilot counts as a pilot who stayed only if they were still in the gaggle after the split, and reached that turnpoint after it.

Race craft

How long after the gate opened the pilot started(“StartDly” in tables)
Measured in seconds · lower is better

Every second between the opening of the gate and the crossing of the start line is a second lost for nothing. The value is the seconds from the start gate taken to the scored SSS crossing. On an elapsed-time task, the pilot’s own crossing is the reference, so the delay is 0 by definition. The start table adds the crossing altitude, and the distance behind the leading pilot who had already started.

Race time lost against the fastest pilots, leg by leg(“TimeLost” in tables)
Measured in seconds · lower is better

For each completed speed-section leg, we compare the leg time of the pilot with the mean of the top 10 pilots by rank who completed that leg. Only the losses count, and we add them together. The sum of the leg times is the race time, and the rank defines the reference, so this metric follows the result by construction. Read the waterfall table, which shows every leg against the task winner, for the diagnosis. Do not read the correlation as a finding.

Race time behind the leader at ESS(“Behind” in tables)
Measured in minutes · lower is better

At each speed-section turnpoint, we compare the elapsed race time of the pilot, which is the reaching time minus their own start, with the fastest pilot to that turnpoint. The value is the minutes behind at ESS. It follows the final rank almost exactly, because this metric is the sanity check of the evaluation.

Arriving at ESS with height to spare(“Spare m” in tables)
Measured in metres · lower is better

Height still available at ESS that the pilot no longer needed. That altitude was available for more speed, and the pilot did not use it. The value is the altitude at ESS minus the altitude needed to glide to goal at the standard glide ratio of the sport, which is 5.0 for HG and 4.0 for PG (S7F §13.4.6). A large positive margin means the pilot arrived too high. A margin near zero means they flew the final glide with little height to spare.

Final glide committed to when leaving the last climb(“FinalGl” in tables)
Measured in ratio · no expected direction

How optimistic the pilot was about their final glide. A pilot wins or loses a task by the height at which they leave the last climb. At the last climb of the pilot before ESS, or before the landing, we divide the distance to goal by their height above goal. That is the glide ratio they committed to. 8 means they left and needed 8:1 to make goal. The value counts only when that climb ended within 1.5 times the length of the last course leg longer than 1 km from goal — when ESS and goal share a waypoint, the zero-length hop between them is not that leg. There is no expected direction: a marginal glide wins if it connects, and loses if it does not.