ライフサイエンスコーパス: space flight

1 ercise prescriptions can be optimized during space flight.

2 elp to prevent bone loss on Earth and during space flight.

3 retion from bone demineralization induced by space flight.

4 erved so far will apparently limit long-term space flight.

5 orrection was a good predictor of TEE during space flight.

6 toward safe synthetic torpor in medicine and space flight.

7 ions in total cardiac work, during prolonged space flight.

8 in astronauts during and after long-duration space flight.

9 ISS) offset cardiac atrophy during prolonged space flight.

10 eadout of biologically-effective dose during space flight.

11 surface as candidates for long-duration near-space flight.

12 ght organ, the site of the symbiosis, during space flight.

13 1-2% of their bone minerals per month during space flights.

14 astronauts studied before, during, and after space flights.

15 ew members' energy requirements during short space flights.

16 After 13 days of space flight, 1 masseter (MA) and tibialis anterior (TA)

17 dy was to determine the effects of prolonged space flight (180 days) on the structure and function of

18 quirements and water turnover for short-term space flights (8-14 d).

19 During space flight, a compensatory increase in uropontin excre

20 al cardiac work between 21 and 7 days before space flight and 15 days before the end of the mission.

21 treat circadian misalignment associated with space flight and circadian rhythm sleep disorders such a

22 rmined during both a ground-based period and space flight and compared with the World Health Organiza

23 of touchscreen platforms during training and space flight and given the ability of rodent touchscreen

24 vity conditions that would be experienced in space flight and launch.

25 omen before, during, and after long-duration space flight and to quantify the association of iron sta

26 Exposure to microgravity during space flight and to simulated microgravity on Earth disr

27 onauts was increased during the period after space flight and was maximal at 2 wk after landing.

28 ents, cardiac output increased by 18% during space flight, and stroke volume increased by 46%.

29 Studies of space-flight anemia have uncovered a physiologic process

30 Energy requirements during space flight are poorly defined because they depend on m

31 anisms of immune suppression and recovery in space flight, as well as possible countermeasures to pre

32 Although the precise cause remains unknown, space flight-associated neuro-ocular syndrome (SANS) has

33 ion for the bone loss that plagues long-term space flight, bed rest, or immobilization caused by para

34 stone risk profiles for crew members during space flight by evaluating the excretion of urinary prot

35 irculation model developed at NASA's Goddard Space Flight Center in the framework of the Seasonal-to-

36 eliophysics Science Division of NASA Goddard Space Flight Center, Greenbelt, MD, USA, we attempted to

37 Immune function is suppressed in space flight, demonstrated by reduced mitogen-stimulated

38 gy intake and TEE did not differ, but during space flight energy intake was significantly lower than

39 phenotypic responses of any organism to the space flight environment has never been accomplished bec

40 Various factors associated with the space flight environment have been shown to potentially

41 These results suggest that the space flight environment may alter the cellular interact

42 In addition, space flight has also been shown to give rise to a wide

43 creased risk of renal stone formation during space flight has been linked primarily to increased calc

44 space travelers, and ground-based models of space flight have provided a vast literature to compleme

45 tored iron and dietary intake of iron during space flight have raised concern about the risk of exces

46 The microgravity environment during space flight imposes numerous adverse effects on animal

47 tion (ISS) with 803 samples collected during space flight, including controls.

48 he article "Role of Cerebral Spinal Fluid in Space Flight Induced Ocular Changes and Visual Impairmen

49 Human space flight is a complex undertaking that entails numer

50 lly decrease infectious disease risks during space flight missions and provide novel therapeutic opti

51 Here we report the results of two space flight missions examining the effect of removing g

52 ground-based studies regarding the impact of space flight on eukaryotic and prokaryotic physiology.

53 Moreover, the effects of space flight on microbial pathogenicity and associated i

54 S in astronauts returning from long-duration space flight on the International Space Station.

55 Total cardiac work was lower during space flight (P = 0.008); however, we observed no meanin

56 ry-motor calibration of the body gained from space flight, parabolic flight, and artificial gravity e

57 s not different for the ground-based and the space-flight periods (12.40 +/- 2.83 and 11.70 +/- 1.89

58 Exposure to microgravity (uG) during space flights produces a state of immunosuppression, lea

59 Extending biotechnology into the realm of space flight provides researchers with an opportunity to

60 Space flight samples exhibited enhanced virulence in a m

61 Over the course of 2 separate space flight simulation studies of 105 and 205 days' dur

62 Water turnover was lower during space flight than during the ground-based period (2.7 +/

63 e effects of the microgravity environment of space flight upon the action of antimicrobial agents on

64 ropontin observed in samples obtained during space flight was shown to result from storage at ambient

65 ent in astronauts during and after prolonged space-flight where lack of gravitational stress prevents

66 the loss of calcium and bone mineral during space flight, which alters the endocrine regulation of c