ライフサイエンスコーパス: power supply

1 gh-voltage (8 kV) and high-frequency (6 kHz) power supply.

2 e energy storage devices to realize a stable power supply.

3 emitters, photodetectors and a photovoltaic power supply.

4 ternal pumping systems, valves, and electric power supply.

5 s requires bulky instrumentation and intense power supply.

6 cells and wireless coils provide options for power supply.

7 ith just two driving electrodes and a simple power supply.

8 (PDMS) fabricated microchip and a common dc power supply.

9 mittently gates the output of a conventional power supply.

10 erated with a home-built high-voltage pulsed power supply.

11 , which is resistively heated by a precision power supply.

12 y harvester is highly desired as a potential power supply.

13 two-chambered microbial fuel cell (MFC) as a power supply.

14 energy density capacitors in modern electric power supplies.

15 umbersome, expensive optics nor high voltage power supplies.

16 al optoelectronic components, computers, and power supplies.

17 anic LEDs, wireless-control electronics, and power supplies.

18 p, microchip holder, two 0-8-kV high-voltage power supplies, a high-voltage switch, a solid-state dio

19 With miniaturization of the power supplies and controllers, such mechanical circulat

20 om extreme heat (for example through back-up power supplies and/or passive cooling) and using databas

21 A digital power supply and a 6 1/2 digit voltmeter were used.

22 ulator is heated by current pulses from a dc power supply and cooled by a conventional two-stage refr

23 re programmably controlled by a high-voltage power supply and monitored by an epifluorescence microsc

24 operating system has been developed for the power supplying and data reception from the tag.

25 egration of diverse electronic devices, both power-supplying and power-consuming, on flexible substra

26 plications such as self-powered logic gates, power supplies, and sensors.

27 ual components such as a waveguide, antenna, power supply, and an oscillator.

28 for various energy storage requirements and power supply, and the energy conversion efficiency of th

29 benefit from reduced dependency on external power supplies as well as from further miniaturization a

30 ystem, data acquisition components, and lens power supplies, as well as a custom-software application

31 ation detectors, data acquisition cards, and power supplies, as well as computer control and user int

32 For metabolically demanding behaviours, power supply (ATP resynthesis per unit time) is an impor

33 miniature 400 W solid-state constant current power supply controls the temperature of the coil.

34 Miniaturized, battery-powered, high-voltage power supply, electrochemical (EC) detection, and interf

35 nning on hydrogen are attractive alternative power supplies for a range of applications, with in situ

36 d powering the PCR reactor, and high-voltage power supplies for conducting CE separations.

37 t as a promising alternative to conventional power supplies for IMDs.

38 both active and passive mode, obtaining the power supply from the electromagnetic waves of the RFID

39 an open up exciting opportunities for mobile power supply in diverse applications.

40 at in the case where R(s) is negligible (the power supply is connected directly to a conducting needl

41 pump stream can be achieved (e.g., where the power supply is not constrained by field conditions).

42 This MGD can be driven by a portable power supply (less than two pounds), which can be powere

43 ed ohmically using electrical current from a power supply monitored and regulated with a precision of

44 odes can be controlled with just a single DC power supply or even a battery.

45 activate, and without the need for external power supply or signal generation, the all-optical simpl

46 le MOA instrument integrates high voltage CE power supplies, pneumatic controls, and fluorescence det

47 The CE power supply power is connected to the microchip through

48 Programmable high-voltage power supplies provide bidirectional currents up to 100

49 The dual source CE power supply provides +/- 1 kVDC at 380 microA and can o

50 simplified electrical circuitry, and reduced power supply requirements.

51 ure control rather than complex high voltage power supplies, sieving matrices, and wall coatings.

52 ent circuit, a triboelectric-generator-based power-supplying system can provide a constant direct-cur

53 Finally, a portable power-supplying system, which provides enough d.c. power

54 ent coupled with clean energy production and power supply systems for isolated low-power sensor devic

55 skin, modern sensors, circuits, radios, and power supply systems have the potential to provide clini

56 together with integrated sensors, actuators, power supply systems, and wireless control strategies.

57 for packaging, circuit design, and on-board power supplies that are benign, nontoxic, and even biode

58 e electronics, a persistent difficulty is in power supplies that have similar mechanical properties,

59 sable devices, a syringe pump and a low-cost power supply that provides a constant voltage.

60 It is a series circuit which consists of the power supply, the electrochemical contact to the solutio

61 The power supplied to the geodynamo, measured by the heat fl

62 At least 84% of the electrical power supplied to the nanotube is dissipated directly in

63 ic focusing but uses additional high-voltage power supplies to provide control over the shape of the

64 lear water and in field conditions where the power supply to a water pump is limited, e.g., from batt

65 of approximately 50%, making it a sufficient power supply to regular electronics, such as light bulbs

66 nd attaining a voltage gain above 60 dB at a power supply voltage below 8 V.

67 amplifiers operating at a battery-compatible power supply voltage of 5 V with power dissipation of 11

68 Subtracting the iRs voltage from Vapp (power supply voltage) yields the current-voltage curve f

69 n any architecture) to achieve this at a low power-supply voltage of 0.1 volts.

70 The performance of the microfluidic MFC as a power supply was characterized based on polarization beh

71 vel of 60% for the future additional Jiangsu power supply, wind resources distributed along the offsh

72 rometry are usually driven by direct current power supplies with no user control over the total charg

73 ght (22 g), and low cost ( approximately $2) power supply with only 1.5 VDC input.