ライフサイエンスコーパス: servo

1 with Pao2 (52.0+/-11.1 torr) compared to the Servo (106.0+/-25.6 torr; p=.002).

2 in Pao2 (141.8+/-169.3 torr) compared to the Servo (158.3+/-167.7 torr).

3 taneous in vivo recordings of VT(E) from the Servo 300 and CO2SMO Plus were compared before (displaye

4 or gas compression, effective VT(E) from the Servo 300 underestimated the true VT(E) by up to 64% in

5 were clinically stable and ventilated with a Servo 300 ventilator.

6 The displayed Servo 300 VT(E) overestimated the true VT(E) by between

7 ivered decreased slightly in helium with the Servo 300.

8 vered Fio(2) was less than set Fio(2) on the Servo 900C and VIP ventilators.

9 m with the Bird and, to a lesser degree, the Servo 900C ventilators.

10 en exchanged for a full-function ventilator (Servo 900C; Siemens-Elema, Solna, Sweden).

11 roblem by making use of a closed loop visual servo algorithm.

12 l theories emphasizing movement geometry and servo control.

13 eter by a pump system that maximized flow by servo-control of inlet pressure, was cooled, and was ret

14 To prevent laryngeal obstructions, a servo-control system was used to briefly interrupt TTI d

15 tile pressure and flow generated by a custom servo-control system.

16 maging technique to reconstruct 3D motion of servo-controlled actuation of syringeal muscle insertion

17 ue bath equipped with a force transducer and servo-controlled arm.

18 intraocular pressure (IOP) measurements with servo-controlled Bioresonator Applanation Resonance Tono

19 Using a servo-controlled body weight support system for bipedal

20 ntrolled normothermia (CN) by placement in a servo-controlled incubator set to maintain rectal temper

21 rmined 24 h baseline for 3 days by automated servo-controlled inflation of the occluder cuff (n = 8).

22 Automated servo-controlled inflation of the occluder cuff, program

23 r to treat central sleep apnea by delivering servo-controlled inspiratory pressure support on top of

24 A skin contactor probe coupled to a servo-controlled linear motor delivered punctate ipsilat

25 Thus, the application of servo-controlled mechanosensory inputs effectively index

26 teric lymphatics (90-220 microm, i.d.) using servo-controlled wire- and pressure-myograph systems to

27 nteric arteries were connected to a pressure servo controller in a video-monitored perfusion system,

28 The skeleton is an efficient 'servo' (feedback-controlled/steady-state) system that co

29 8 m s(-1)) while stimulating the dura with a servo force-controlled stimulator or von Frey monofilame

30 ts were recorded and then replayed through a servo mechanism to reproduce the muscle length changes p

31 ven in the presence of a functionally active servo-mechanism to down-regulate HREN expression.

32 liquid in and out of the lens chamber using servo motor actuated diaphragm pumps.

33 was controlled by a sensitive joystick via a servo motor and accurate visual feedback was provided on

34 platform comprised of a feedback-controlled servo-motor coupled to a biological muscle-tendon.

35 ut (A3AR-/-) and A3AR+/+ control mice by the servo-null approach.

36 Servo-null electrophysiology was used to measure IOP in

37 An electrophysiologic approach-the servo-null micropipette system (SNMS)-for measuring hydr

38 The electrophysiologic approach (the servo-null micropipette system, SNMS) that had been adap

39 on pressure was measured concurrently with a servo-null micropipette.

40 In separate experiments, servo-null micropressure measurements of iliac arterial

41 he IFP was measured with micropipettes and a servo-null system.

42 erial pressure/flow waveforms generated by a servo-pump.

43 ility was set at 40 or 100 mm Hg by computer servo-pump.

44 illing controlled by an intracavitary volume servo-pump.

45 solation, and chamber volume controlled by a servo-pump.

46 is often explained in terms of engineering 'servo' theory.

47 ne-anesthetized, vagotomized, paralyzed, and servo-ventilated adult Sprague Dawley rats.

48 d, vagotomized, glomectomized, paralysed and servo-ventilated cats.

49 ted whether minute ventilation (MV) adaptive servo-ventilation (ASV) improved cardiovascular outcomes

50 i-level positive airway pressure or adaptive servo-ventilation can be used for patients who are intol

51 following release of the SERVE-HF (Adaptive Servo-Ventilation for Central Sleep Apnea in Systolic He

52 ot differ significantly between the adaptive servo-ventilation group and the control group (54.1% and

53 ty were significantly higher in the adaptive servo-ventilation group than in the control group (hazar

54 In the adaptive servo-ventilation group, the mean AHI at 12 months was 6

55 Adaptive servo-ventilation had no significant effect on the prima

56 We investigated the effects of adaptive servo-ventilation in patients who had heart failure with

57 Adaptive servo-ventilation is a therapy that uses a noninvasive v

58 deline-based medical treatment with adaptive servo-ventilation or guideline-based medical treatment a

59 L and 18% (6%) in 16 subjects with displayed Servo VT(E) of >/=160 mL.

60 was 32% (20%) in 40 children with displayed Servo VT(E) of <160 mL and 18% (6%) in 16 subjects with

61 CO2SMO Plus were compared before (displayed Servo VT(E)) and after (effective Servo VT(E)) compensat

62 (displayed Servo VT(E)) and after (effective Servo VT(E)) compensating for ventilator circuit complia