0:00:05.640,0:00:06.890 (music) 0:00:07.760,0:00:09.230 Now that's a jump! 0:00:09.230,0:00:11.150 It would make even[br]Michael Jordan proud. 0:00:12.680,0:00:14.070 Look at it again. 0:00:14.070,0:00:15.810 See how the abdomen[br]curls up 0:00:15.810,0:00:17.100 as the mantis leaps? 0:00:17.780,0:00:20.580 That curl[br]is the crutial move 0:00:20.580,0:00:21.760 for a juvenile mantis 0:00:21.760,0:00:23.250 -- which doesn't have[br]any wings yet -- 0:00:23.250,0:00:25.220 when it launches itself[br]towards a target. 0:00:26.150,0:00:27.860 That's what Cambridge[br]University 0:00:27.860,0:00:29.090 researchers found 0:00:29.090,0:00:30.850 when they analyzed[br]the leap 0:00:30.850,0:00:32.700 using high speed video. 0:00:33.490,0:00:35.110 The curled abdomen[br]changes 0:00:35.110,0:00:37.070 the center[br]of the jumpers mass 0:00:37.070,0:00:38.210 and it also generates 0:00:38.210,0:00:40.070 just a little bit[br]of spin. 0:00:40.070,0:00:41.810 It turns out[br]that the mantis needs 0:00:41.810,0:00:43.630 to generate some spin[br]first 0:00:43.630,0:00:45.340 and then correct it[br]on the fly 0:00:45.340,0:00:47.040 in order to make[br]an accurate jump. 0:00:47.640,0:00:48.790 That finding could be 0:00:48.790,0:00:50.680 very useful for engineers 0:00:50.680,0:00:52.200 who are now[br]trying to figure out 0:00:52.200,0:00:53.800 how to make[br]jumping robots 0:00:53.800,0:00:55.620 not spin out of control. 0:00:56.510,0:00:58.680 Look what happens[br]to the mantis 0:00:58.680,0:01:00.780 when glue is used[br]to make the abdomen 0:01:00.780,0:01:03.010 too stiff to curl[br]properly. 0:01:03.010,0:01:04.580 The mantises[br]couldn't do it. 0:01:04.580,0:01:06.720 Sometimes they even[br]crashed head on. 0:01:07.270,0:01:09.510 Of course,[br]even without the glue 0:01:09.510,0:01:11.500 the mantises[br]weren't perfect. 0:01:11.500,0:01:13.690 But then, neither was[br]Michael Jordan. 0:01:21.820,0:01:22.000 (music)