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the same side. The collapse will normally open by itself but if that does 
not happen, pull completely on the brake line on the side, which has 
collapsed (100%). do this with a firm movement. You may have to repeat 
this operation to provoke the re-opening. Take care not to over-brake on 
the side that is still flying (turn control) and when the collapse has been 
solved; remember to let the wing recover its flying speed.

symmetric collapse
In normal flying conditions the design of the ICepeaK 8 ensures that a 
symmetric collapse is quite improbable. The profile of the wing has been 
designed to widely tolerate extreme changes in the angle of incidence. a 
symmetric collapse may occur in heavy turbulent conditions, on entry or 
exit of strong thermals or lack of adapting the use of the accelerator to the 
prevailing air conditions. symmetrical collapses usually re-inflate without 
the glider turning but you can symmetrically apply the brake lines with 
a quick deep pump to quicken the re-inflation. release the brake lines 
immediately to recover optimum flight speed.

Negative spin
This configuration is out of the normal flight behaviour of the ICepeaK 
8. Certain circumstances however, may provoke this configuration such 
as trying to turn when the wing is flying at very low speed (while heavily 
braking). It is not easy to give any recommendations about this situation 
since it varies depending on the circumstances. remember that you 
should restore the relative air speed over the wing. To achieve this, 
progressively reduce the pressure on the brake lines and let the wing gain 
speed. The normal reaction would be a lateral surge with a turn tendency 
no greater than 360º before restoring to normal flight conditions.

parachutal stall
If it does happen, the feeling would be that the wing would not be 
advancing; you would feel a kind of instability and a lack of pressure 
on the brake lines, although the canopy would appear to be correctly 
inflated. The correct reaction would be to release the pressure on the 
brake lines and push the a lines forward or rather lean your body to any 

side WITHoUT pUllING oN THe BraKe lINes.

deep stall
The possibility of the ICepeaK 8 falling into this configuration during 
normal flight is very unlikely. This could happen if you are flying at a 
very low speed, whilst over steering in a number of manoeuvres and in 
turbulent conditions. To provoke a deep stall you have to take the wing to 
minimum flight speed by symmetrically pulling the brake lines, when you 
reach this point, continue pulling until you reach 100% and then hold. The 
glider will first fall behind you and then situate itself above you, rocking 
slightly, depending on how the manoeuvre was carried out. When you 
start to provoke a stall, be positive and do not doubt an instant. do not 
release the brake lines when half way through the manoeuvre. This would 
cause the glider to surge violently forward with great energy and may 
result in the wing below the pilot. It is very important that the pressure 
on the brake lines is maintained until the wing is well established vertical 
above.

To regain normal flight conditions, progressively and symmetrically 
release the brake lines, letting the speed be re-established. When the 
wing reaches the maximum advanced position ensure that the brakes 
are fully released. The wing will now surge forward, this is necessary so 
that air speed is completely restored over the wing. do not over brake 
at this point because the wing needs to recover speed to quit the stall 
configuration. If you have to control a possible symmetrical front stall, 
briefly and symmetrically pull on the brake lines and let go even when the 
wing is still ahead of you.

Wing tangle
a wing tangle may happen after an asymmetric collapse, the end of the 
wing is trapped between the lines (Cravat). This situation could rapidly 
cause the wing to turn, although it depends on the nature of the tangle. 

The correction manoeuvres are the same as those applied in the case 
of an asymmetrical collapse, control the turn tendency by applying the 

Summary of Contents for ICEPEAK 8

Page 1: ...USER S MANUAL ICEPEAK 8...

Page 2: ...at you will soon understand the meaning of our slogan The importance of small details This is the user s manual that we recommend you to read in detail The NIVIUK Gliders Team USER S MANUAL NIVIUK Gli...

Page 3: ...FLYING WITHOUT BRAKE LINES 10 4 5 KNOTS IN FLIGHT 10 5 LOSING HEIGHT 11 5 1 EARS 11 5 2 4C3 TECHNIQUE 11 5 3 B LINE STALL 12 5 4 SPIRAL DIVE 12 5 5 SLOW DESCENT TECHNIQUE 12 6 SPECIAL METHODS 13 6 1...

Page 4: ...sted It is important to take into account that each size can have a different reaction on the same manoeuvre Furthermore the same size on maximum load or minimum load can experiment a different behavi...

Page 5: ...An automatic process controlled by a laser cutting program cuts each of the sections that compose the different parts of the wing This program not only cuts the pieces of fabric but it also paints the...

Page 6: ...ere to inflate it Check the condition of the fabric and the lines making sure there are no abnormalities Check the maillons which attach the lines to the risers are properly closed Identify and if nec...

Page 7: ...ICEPEAK 8 will sit over your head 2 7 ADJUSTING THE BRAKES The length of the main brake lines is adjusted at the factory to the length established during certification However the length can be chang...

Page 8: ...BULENCE The ICEPEAK 8 has an excellent profile to withstand the very different aero logical conditions so allowing the best possible piloting and stability It reacts admirably in passive flight thus o...

Page 9: ...r to be correctly inflated The correct reaction would be to release the pressure on the brake lines and push the A lines forward or rather lean your body to any side WITHOUT PULLING ON THE BRAKE LINES...

Page 10: ...the accelerator and pull slightly on the brake lines to increase the angle of incidence Remember that you have to re establish the flight speed after correcting the incidence It is NOT recommended to...

Page 11: ...e to apply brake pressure without realising it The same happens whilst pulling down the 4a3 line to make the ears This can obviously lead to a significant speed decrease The ICEPEAK 8 has a new high a...

Page 12: ...an cause a loss of orientation and consciousness blac kouts These are the reasons why it is best to carry out this manoeuvre gradually so your capacity to resist the G forces increases and you will le...

Page 13: ...ribs on the trailing edge and when complete the cell structures along the entire chord of the wing should lay parallel and neatly alongside each other The wing should then be folded into three sectio...

Page 14: ...load cause a different impact over the wing That s why the calibration would be set taking in consideration these factors Only qualified professionals should realize it Do not modify the wing conside...

Page 15: ...ETY AND RESPONSIBILITY It is well known that paragliding is considered a high risk sport where safety depends on the person who is practising it Wrong use of this equipment may cause severe injuries t...

Page 16: ...8 1 83 lINes ToTal MeTers M 220 227 235 HeIGHT M 8 8 26 8 52 NUMBer 230 230 230 MaIN 6 BraKe 2 1 3 B 2 1 3 B 2 1 3 B rIsers NUMBer 3 a B B a B B a B B TrIMs No No No aCCeleraTor M M 120 120 130 ToTal...

Page 17: ...60 70 145 115 200 405 280 MAXIMUM 48 84 74 153 122 215 430 320 STRENGTH AFTER 5 000 BENDING TEST EN 33 74 31 77 5 60 9 112 1 237 5 138 6 CYCLES ELONGATION AT 5 daN en 0 75 0 2 0 2 0 2 0 35 0 2 10 daN...

Page 18: ...8 d7 d8 c13 c14 c15 c16 c17 c18 c19 c20 C1 C2 c21 c22 a14 a13 a12 a11 a10 a9 4c3 St ab A 10 A9 3 a 3 a8 b8 a7 b7 A 8 A 7 A5 A 6 2a3 2a4 3a2 4c2 b5 a5 b6 a6 b4 b3 a3 a4 b2 a2 A 4 A 3 b1 a1 A 2 A 1 2a2...

Page 19: ...C 60 wht 574 c13 DC 40 wht 219 a14 DC 60 wht 562 c14 DC 40 wht 204 c15 DC 40 wht 178 c16 DC 40 wht 211 c17 DC 40 wht 678 c18 DC 40 wht 571 c19 DC 40 wht 552 c20 DC 40 wht 592 c21 DC 40 wht 576 c22 DC...

Page 20: ...DC 60 wht 593 c13 DC 40 wht 226 a14 DC 60 wht 581 c14 DC 40 wht 211 c15 DC 40 wht 184 c16 DC 40 wht 218 c17 DC 40 wht 700 c18 DC 40 wht 589 c19 DC 40 wht 570 c20 DC 40 wht 611 c21 DC 40 wht 595 c22 DC...

Page 21: ...0 wht 612 c13 DC 40 wht 233 a14 DC 60 wht 598 c14 DC 40 wht 217 c15 DC 40 wht 189 c16 DC 40 wht 225 c17 DC 40 wht 721 c18 DC 40 wht 607 c19 DC 40 wht 588 c20 DC 40 wht 630 c21 DC 40 wht 613 c22 DC 40...

Page 22: ...22 11 8 FOLDING LINES PLAN...

Page 23: ...3 TNL 80 Red 2F5 1132 TNL 80 Red 2F6 700 TNL 80 Red 3FI 4701 TNL 80 Red 3FII 4812 TNL 80 Red 3FIII 5333 TNL 80 Red NAME Length Material Colour f1 1603 TNL 80 Red f2 1473 TNL 80 Red f3 1504 TNL 80 Red...

Page 24: ...0 Red f9 648 TNL 80 Red f10 532 TNL 80 Red f11 897 TNL 80 Red f12 855 TNL 80 Red f13 951 TNL 80 Red 2F1 1500 TNL 80 Red 2F2 1422 TNL 80 Red 2F3 1289 TNL 80 Red 2F4 1250 TNL 80 Red 2F5 1205 TNL 80 Red...

Page 25: ...0 12 7 341 7 712 7 873 13 7 237 7 675 14 7 224 7 660 15 7 698 16 7 731 17 7 494 18 7 387 19 7 339 20 7 379 21 7 244 22 7 252 LINES HEIGHT riser maillonm m A B C D br handle 1 8 321 8 309 8 360 8 366 8...

Page 26: ...3 8 399 4 8 442 8 428 8 422 8 555 8 506 5 8 369 8 354 8 393 8 383 8 345 6 8 240 8 224 8 377 8 275 8 131 7 8 178 8 163 8 439 8 217 8 045 8 8 184 8 172 8 486 8 283 8 140 9 8 012 8 383 8 041 10 7 893 8 3...

Page 27: ...461 522 aCCeleraTed 120 60 0 TraVel ICEPEAK 8 24 rIsers leNGHT MaIlloN m m a a B 521 520 523 sTaNdard 401 460 523 aCCeleraTed 120 60 0 TraVel ICEPEAK 8 26 rIsers leNGHT MaIlloN m m a a B 525 525 525...

Page 28: ...28 11 11 ATTACHMENT POINTS POSITION...

Page 29: ...29 11 12 TENSION BANDS...

Page 30: ...30 11 13 MINIRIBS...

Page 31: ...31 11 14 DIAGONALS...

Page 32: ...32 11 15 INLET SHAPE...

Page 33: ...33 12 CERTIFICATION SPECIMEN TEST ICEPEAK 8 22 ICEPEAK 8 24...

Page 34: ...34 ICEPEAK 8 26...

Page 35: ...The importance of small details niviuk com...

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