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1 corded over a short period of time using one photomultiplier.
2 odules based on a commercial digital silicon photomultiplier.
3 ultaneously to a sample cell and a reference photomultiplier.
4 a new time-of-flight system based on silicon photomultipliers.
5        Light is collected by 12 x 12 silicon photomultipliers.
6 opment of new PET detectors, such as silicon photomultipliers.
7 24 x 1.4 x 9.5 mm(3)) and 210 low-cost 19-mm photomultipliers.
8 s a 10 x 10 x 1 cm NaI(Tl) crystal with four photomultipliers.
9 tion algorithms and other multimodal silicon photomultiplier and non-silicon photomultiplier PET dete
10                               The detectors, photomultipliers and preamps are housed within a 12 cm x
11 ped green laser, an optical train, a channel photomultiplier, and an inertial mass measurement unit a
12 uch as electron-beam accelerator facilities, photomultipliers, and image intensifiers for night visio
13      Amplified photoelectron pulses from the photomultiplier are grouped into bins of 360-450 micros
14  x 3.2 x 20 mm crystals coupled to a silicon photomultiplier array of 16 x 16 mm, resulting in an axi
15 xyorthosilicate crystals read out by silicon photomultiplier arrays.
16             Biophotons were detected using a photomultiplier as a single photon counter.
17 red with both a semiconductor photodiode and photomultiplier as light sensing elements.
18              The recently introduced silicon-photomultiplier-based (SiPM-based) PET/CT (computed tomo
19 c cytometer (PMC) uses a high-speed scanning photomultiplier-based detector to combine low-pixel-coun
20  Biograph Vision 600, using the same silicon photomultiplier-based detectors with 3.2 x 3.2 x 20 mm l
21 e new digital PET/CT system features silicon photomultiplier-based detectors with 3.2-mm lutetium oxy
22 sed effective sensitivity of digital silicon photomultiplier-based PET/CT systems might increase quan
23 ucleic acid detection with the novel silicon photomultiplier-based reader created an innovative produ
24       The platform comprises a novel silicon photomultiplier-based reader in conjunction with a chemi
25 were read out using a novel, compact silicon photomultiplier-based reader.
26  feature offers the back-illuminated silicon photomultiplier broader application opportunities exempl
27 d compared to a commercial fluorometer using photomultiplier detection for detecting active Stx2 in t
28                                              Photomultiplier detection is employed, and a lock-in amp
29 velength incident light was measured using a photomultiplier detector and correlated to the organopho
30 panning 5 orders of magnitude, comparable to photomultiplier detectors.
31 d by acousto-optic modulators and electronic photomultiplier gating.
32 rystal scintillators and 393 channel silicon photomultipliers has been developed for positronium (Ps)
33                                      Silicon photomultipliers have attracted increasing attention for
34  of toxicants, using a single photodetector (photomultiplier) is presented.
35  detectors, image sensor arrays, and silicon photomultipliers over a broad spectral range.The perform
36 odal silicon photomultiplier and non-silicon photomultiplier PET detector system designs indicated th
37 o-1 and 9-to-1 to arrays of 3 x 3 mm silicon photomultiplier pixels.
38 integrated with a CT camera, is based on the photomultiplier-quadrant-sharing concept and comprises 1
39 logy have enabled the development of silicon photomultiplier sensor arrays capable of sensing individ
40 I equipped with a pixelated stilbene-silicon photomultiplier (SiPM) array module and low sampling-rat
41 d within a handheld casing housing a silicon photomultiplier (SiPM) detection circuit and a microproc
42 MiniPET-3-that uses state-of-the-art silicon photomultiplier (SiPM) photosensors, making possible dua
43 n of biochemiluminescence relying on silicon photomultiplier (SiPM) technology, called LuminoSiPM, wh
44                                      Silicon photomultipliers (SiPM) are inexpensive, low-footprint d
45 te-of-the-art photodetectors such as silicon photomultipliers (SiPM).
46 r elements with light collection via silicon photomultipliers (SiPM).
47 ted microfluidics chips coupled with silicon photomultipliers (SiPMs) for high sensitive real-time AT
48 todetectors can rival the commercial silicon photomultipliers (SiPMs) for photon counting.
49 e imaging system presented here uses silicon photomultipliers (SiPMs) in place of PMTs because SiPMs
50 n counting readout properties of the silicon photomultiplier (SPM) with a thermoelectric cooler and t
51 ce novel detection electronics using silicon photomultipliers that greatly extend dynamic range, enab
52 cted end-on by an optical fiber coupled to a photomultiplier, thus, creating an image of the separati
53        Measurement of UPE was carried out by photomultiplier tube (PMT) in the following steps: at th
54 ites, the ECL of luminol is followed using a photomultiplier tube (PMT) or digital camera and the ima
55 2) at the anodic poles was monitored using a photomultiplier tube (PMT) or digital camera.
56 2O2 at the anodic poles is monitored using a photomultiplier tube (PMT) or smartphone, and the images
57        Saturation is directly related to the photomultiplier tube (PMT) voltage settings and RNA abun
58 ed by measuring fluorescence over a range of photomultiplier tube (PMT) voltages by determining the P
59              This allows the use of a single photomultiplier tube (PMT), often the most expensive com
60               Compared with the conventional photomultiplier tube (PMT), the results revealed that th
61 ch) directly coupled to a position-sensitive photomultiplier tube (PS-PMT).
62 al to be recorded in one pass using a single photomultiplier tube and eliminates the need for a polar
63  The ring-down signals are monitored using a photomultiplier tube and recorded using a digital oscill
64 has a high sensitivity because of the use of photomultiplier tube but also can get multiple-point dat
65 on crystals that are coupled to a 64-channel photomultiplier tube by optical fibers.
66                                     A single photomultiplier tube detects all the modulated emitted l
67 c control, (b) an integrated (and motorized) photomultiplier tube for chemiluminescent detection, and
68            The mass detection limits using a photomultiplier tube for sucrose and glucose are 50 ng,
69  optimization, field of view, resolution and photomultiplier tube performance.
70 parent screen directly on top of a miniature photomultiplier tube provides the basis of an attractive
71 chondrial oxidation was detectable either by photomultiplier tube recordings of flavoprotein fluoresc
72 ions avoiding the need for correction of the photomultiplier tube signal for the gating sequence.
73 n flow through a resin bed interfaced with a photomultiplier tube through a polycarbonate window.
74 s a common disk electrode, spectrometer, and photomultiplier tube to measure the O(ECL).
75 .75 mm each) coupled to a position-sensitive photomultiplier tube via an optical fiber bundle made of
76  complementary metal-oxide semiconductor, or photomultiplier tube).
77 ctors such as single-photon avalanche diode, photomultiplier tube, or arrays of such detectors.
78 t chemiluminescent signal is quantified by a photomultiplier tube, recorded by a miniature onboard co
79 ne in a small reflective cell located atop a photomultiplier tube, resulting in intense CL.
80 nging waveforms from an impedance mismatched photomultiplier tube.
81 d by a highly sensitive, large-dynamic-range photomultiplier tube.
82 e from tumor cells could be detected using a photomultiplier tube.
83  hollow fibers is detected using a miniature photomultiplier tube.
84 ly continuous light guide to an array of 420 photomultiplier tubes (39-mm diameter) in a hexagonal ar
85                                   Similarly, photomultiplier tubes (PMTs) can generate approximately
86 h significant portions of volume occupied by photomultiplier tubes (PMTs).
87 h the same crystal geometry but conventional photomultiplier tubes (PMTs).
88 ses magnetically shielded position-sensitive photomultiplier tubes and a compact 1-T permanent-magnet
89 th 0.5-mm pixels was coupled to multichannel photomultiplier tubes and evaluated for use as high-reso
90       Because classic PET detectors based on photomultiplier tubes cannot be used in high magnetic fi
91 g 488 and 635 nm lasers with two independent photomultiplier tubes for detection of the FITC and Cy5
92 sparent plastic flow cell placed between two photomultiplier tubes for radiometric detection.
93 e (GSO) crystals to 288 (36 x 8 array) 39-mm photomultiplier tubes in a hexagonal arrangement.
94 e crystal arrays are coupled to multichannel photomultiplier tubes via a tapered, pixelated glass lig
95 n light is transmitted to position-sensitive photomultiplier tubes via optical light guides.
96 ons in aqueous media that can be detected by photomultiplier tubes with good sensitivity, without the
97  iodide crystal, a 2 x 2 array of 53 x 53 mm photomultiplier tubes, and a parallel-hole collimator (1
98      Conventional two-photon microscopes use photomultiplier tubes, which enable high sensitivity but
99 tection rate as compared to state-of-the-art photomultiplier tubes.
100 ar polarizations and collected onto separate photomultiplier tubes.
101 the flat-panel multianode position-sensitive photomultiplier tubes.
102                                    Adjusting photomultiplier voltage while measuring fluorescence int
103 intillator directly coupled to a multi-anode photomultiplier was developed as an alternative for SESA
104 PET/CT devices, including the replacement of photomultipliers with avalanche photodiodes and the need
105 ecently introduced PET systems using silicon photomultipliers with digital readout (dPET) have an imp
106 nto next-generation back-illuminated silicon photomultiplier would increase the photon detection effi

 
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