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1 tes (for example, 30 kelvin with 200 oersted per second).
2 h them at supersonic velocities (~400 meters per second).
3 minutes of MS data collection (~3.5 proteins per second).
4 ems in rapid streams of pseudofonts (6 items per second).
5 asurement of elongation speed (5 amino acids per second).
6 y ( less, similar10 (12) square centimenters per second).
7 yottaNOPS values (1024 Nucleotide Operations Per Second).
8 to 10 mL/min and frame rates of 4 fps (frame per second).
9 corneal irradiances (7-14 log photons/cm(2) per second).
10 ain rate (-105.9+/-6.1% versus -109.0+/-3.8% per second).
11 rahigh-speed imaging (more than 10(5) frames per second).
12 cies at velocities over 10 mm/s (13 droplets per second).
13 ch can emit thousands of oral fluid droplets per second.
14 decision making pathways up to several times per second.
15 p to 60 kelvin at a sweep rate of 22 oersted per second.
16 e detection thresholds at 160 and 640 pulses per second.
17 rotational velocity of about 272 kilometres per second.
18 pixel dynamic scenes at a speed of 10 frames per second.
19 ocessing rate of approximately 170,000 cells per second.
20 rm saccadic eye movements two to three times per second.
21 ng OLEDs with data rates exceeding 1 gigabit per second.
22 an effective processing rate >160,000 cells per second.
23 ng modulated data at rates up to 10 gigabits per second.
24 esicle membrane at a rate >10,000 per trimer per second.
25 , with an aggregate data rate of 50 gigabits per second.
26 roduces some thousands of antibody molecules per second.
27 parametric resonance and images at 5 frames per second.
28 and an elongation rate of 13-18 amino acids per second.
29 d; the other flared five times to 10(40) erg per second.
30 of carrying spores at speeds of centimeters per second.
31 s of the flares were greater than 10(39) erg per second.
32 re two to four words are typically processed per second.
33 ay luminosities in excess of 3 x 10(39) ergs per second.
34 to a throughput of approximately 1,000 cells per second.
35 ange of tempi, but not at tempi below 1 note per second.
36 graphy of moving objects at up to 75 volumes per second.
37 n the impact velocity exceeds 2.5 kilometres per second.
38 analysis at a speed of more than one sample per second.
39 abilities with velocities of > 30 nanometers per second.
40 quasar-like luminosity of 1.5 x 10(46) ergs per second.
41 cells, visualizing cell nuclei at 10 volumes per second.
42 copy at the repetition rate of million scans per second.
43 n impact velocity greater than 10 kilometres per second.
44 ptimal cutoff value for HMR was 2.5 mm Hg/cm per second.
45 ypical main belt collisions at ~5 kilometers per second.
46 ing rate of up to 10,000 regions of interest per second.
47 igh-speed laryngoscopy yielding 4,000 images per second.
48 be 6.5 (+/-0.8) x 10(-12) cubic centimeters per second.
49 g a typical grain velocity of ~18 kilometers per second.
50 kiloelectronvolt range of 4.9 x 10(39) ergs per second.
51 acquisition rates to typically 10-100 frames per second.
52 erse waves with amplitudes of ~20 kilometers per second.
53 with velocities of about 100,000 kilometres per second.
54 ling acquisition rates of up to 10(7) frames per second.
55 tosis events in 3D at a rate of seven stacks per second.
56 th an unprecedented frame rate of >25 frames per second.
57 s for macroscopic steel sheets at 600 meters per second.
58 and an absolute rate of 850 chloride anions per second.
59 velocity dispersion of 317 +/- 30 kilometres per second.
60 time-evolving events at up to 10(11) frames per second.
61 ize dendritic membrane potentials many times per second.
62 ial at velocities exceeding 1,000 kilometres per second.
63 gas has a velocity of up to 1,000 kilometres per second.
64 energy band range from 10(39) to 10(41) ergs per second.
65 kiloelectronvolt range of 1.8 x 10(40) ergs per second.
66 atively estimated to be beyond 10-20 samples per second.
67 ndom digital data at a rate of 12.7 gigabits per second.
68 gigapascals (GPa) and strain rates of 10(9) per second.
69 s to rates in excess of 1,500 volumes imaged per second.
70 les above an X-ray luminosity of 10(44) ergs per second.
71 at a rate of 46 three-dimensional data sets per second.
72 orm the equivalent of one million operations per second.
73 vements changing retinal input several times per second.
74 a maximum speed of 456 billion cell updates per second.
75 nabling imaging at up to trillions of frames per second.
76 ent lifetimes at speeds of 88 million pixels per second.
77 shold crossing rate (TCR) at 30 kilo-samples per second.
78 in a detection limit of 10(5) to 10(6) atoms per second.
79 ilobases at an average rate of 0.5 kilobases per second.
80 um, and a real-time imaging rate of 5 frames per second.
81 sulfur at a rate of about 3.3 x 10(9) grams per second.
82 s shell, which is expanding at 13 kilometres per second.
83 redshifts as high as about 5,000 kilometres per second.
84 from below, at frame rates up to 200 frames per second.
85 ty of 167 +/- 20 square centimetres per volt per second.
86 eak X-ray luminosity of about 5 x 10(42) erg per second.
87 s determined with a throughput of ~100 cells per second.
88 velocity linewidth of about 2,200 kilometres per second.
89 particles per mL, which equated to one event per second.
90 ble slow wind(3) of less than 500 kilometres per second.
91 cs and velocities of around 1,500 kilometres per second.
92 =10 kilobases at a velocity of 60 base pairs per second.
93 quantified to be of the order of micrometers per seconds.
94 ranging from approximately 1 to 50 particles per second (0.06 to 3 particles per cm(3)) for low to hi
95 attern (200 Hz in 100 ms trains, five trains per second, 100 micros, 7 mA) and was compared with sham
97 ented in alternation at a rate of six images per second (6 Hz; 3 Hz identity repetition rate) for a 2
98 of objects at a rapid fixed rate (six images per second: 6 Hz), with faces interleaved as every fifth
99 ing at velocities of up to 10,000 kilometres per second(7), must 'sweep up' the surrounding interstel
100 yes acquires raw data at a rate of 0.7 frame per second (all wells) and the data are processed with 4
101 agnetic field sweep rate of about 20 oersted per second, although higher temperatures have been achie
102 ron liquid is found to be ~0.1 square meters per second, an order of magnitude higher than that of ho
103 strates particle speeds of up to 8.75 metres per second and 3.75 metres per second in the vertical an
104 y as high as 1.3 square centimetres per volt per second and a high on/off current ratio exceeding a m
105 velocity offsets of less than 600 kilometres per second and linear offsets of less than 100 kiloparse
108 with a turnover of 2 phospholipid molecules per second and per OmpLA dimer until most of the membran
111 of solid nanowires at a scale of attolitres per second and the process can be directly imaged with i
112 es (CFs), which fire continuously about once per second and therefore generate potential false-positi
113 40 sverdrups (Sv) (1 Sv = 10(6) cubic meters per second), and it occurs mainly in subtropical regions
114 maximum contraction velocity (MCV; in pixels per second), and latency of MCV (LMCV; in seconds).
115 .2 motifs, at a rate of about 15 nucleotides per second, and "dwells" at a motif site for 2.7 s while
117 n air under the cloud base at ~11,000 images per second, and the differences in characteristics of op
118 vena cava (temporal resolution, five images per second; and spatial resolution, 150-mm field of view
119 t outflow speeds of a few hundred kilometres per second are observed; these are below the escape spee
120 ving particles (V approximately a few meters per second) are aligned along the symmetry axes of the l
122 as high as 1.12 square centimetres per volt per second at 100 per cent strain along the direction pe
124 usion reactions at rates of only a few atoms per second at most and must be studied immediately follo
125 l schools swim at speeds of two body lengths per second at nearest neighbor distances of one body len
127 hoton count rates exceeding 7 x 10(6) counts per second at saturation, after correcting for uncorrela
128 upernovae that radiate more than 10(44) ergs per second at their peak luminosity have recently been d
129 imulus presentation rates of 5 and 10 bursts per second, at which human listeners report robust SSS,
132 velocities on the order of a few centimeters per second before slowing down on a longer time scale.
133 ith velocities higher than 10,000 kilometres per second, believed to originate in relativistic (that
134 formation rate of cognitive control (in bits per second, bps) in the model fitting to estimate the ca
135 f laser tuning rates as high as 10 terahertz per second, broadly step-tuned lasers, multiline laser s
136 nd by 9.3% and that of running at 2.5 meters per second by 4.0% compared with locomotion without the
137 olic rate of treadmill walking at 1.5 meters per second by 9.3% and that of running at 2.5 meters per
138 uminosities of up to a few times 10(40) ergs per second can be explained by supercritical accretion o
139 cal velocity predictions of a few kilometres per second, challenging models of circulation in the cor
140 ith an acquisition rate of 333 Raman spectra per second, chemical information was obtained separately
141 ty is in the range of hundreds of nanometers per second, comparable to the transport velocities of bi
142 s >0.5% at flow rates of several microlitres per second, compatible with typical microfluidic applica
143 ound the Sun, peaking at 35 to 50 kilometres per second-considerably above the amplitude of the waves
144 izes mode coupling, we achieved 400-gigabits-per-second data transmission using four angular momentum
145 d with a Doppler velocity of ~700 kilometers per second, direct evidence of large-scale asymmetry in
147 as continuously recorded at 500 measurements per second during the experiment using a validated impla
148 We present an all-plasmonic 116-gigabits per second electro-optical modulator in which all the el
150 ance (more than 1 square centimetre per volt per second) even after a hundred cycles at 100 per cent
151 erupted at rates exceeding 100 cubic meters per second, eventually covering 35.5 square kilometers.
152 y flow midexpiratory phase (FEF25-75; liters per second), FEF25-75 (% predicted), and a categorical o
154 d theoretical studies predict only nanometre per second fluid velocities that are inadequate for micr
156 to achieve sensitivities up to 80,000 counts per second for a 1 ng/L (133)Cs solution, providing a de
157 egrees C) of 157 electrons (78 molecules H2) per second for CpI and 25 electrons (12 molecules H2) pe
159 cose values at a frequency of one data point per second for the duration of the sensors' life span.
162 ack laser scanning ( approximately 40 frames per second) for targeting two lasers (a 473-nm blue lase
163 hput large-scale sample analysis (>5 samples per second) for three substance classes (peptides, antib
164 tion proved to be most beneficial (60 pulses per second, for 20 s every minute), whereas continuous s
166 current speed of imaging is up to 100 frames per second (fps) over a volume about 0.8 x 1 x 0.5 mm(3)
167 d reduced exposure times at a fast 50 frames-per-second (FPS) capable of resolving mouse cardiac cycl
168 ale jets with speeds of 80 to 250 kilometers per second from the narrow bright network lanes of this
169 sequence a speed of 136 billion cell updates per second (GCUPS) was achieved on a dual Intel Xeon E5-
170 predominantly fast (more than 500 kilometres per second), highly Alfvenic rarefied stream of plasma o
172 are swapped between the eyes multiple times per second; (iii) the dominance duration as a function o
173 ic diffusivity of 2.4 x 10(-2) square meters per second implies a major role for water circulation in
174 c computes two million short-read alignments per second in a four-GPU system; it can align the reads
175 values of >1000 square centimeters per volt per second in field-effect transistors with microwave-re
179 up to 8.75 metres per second and 3.75 metres per second in the vertical and horizontal directions, re
182 flow's kinetic power larger than 10(46) ergs per second is enough to provide the feedback required by
183 a 1% increase in aortic arch PWV (in meters per second) is related to a 0.3% increase in subsequent
184 raveling with a velocity of ~1200 kilometers per second, it is the fastest unbound star in our Galaxy
185 PED enables scanning of thousands of volumes-per-second, limited only by camera acquisition rate, thr
186 of high-velocity (roughly 30,000 kilometres per second) material has been interpreted as a signature
187 of absolute river discharge (in cubic meters per second) may be derived solely from satellite images,
188 etabolic demand but higher-frequency PDs (>2 per second) may be inadequately compensated without an a
189 frequency domain (measured in Hz, or cycles per second) may capture different cardiac phenomena at d
190 to demonstrate passive and active (30 frames per second) modulation of a 64-view backlight, producing
191 rve highly dilatant and slow [~4 micrometers per second (mum/s)] aseismic slip associated with a 20-f
192 eir fast transport rates of up to 1,500 ions per second, Na(+)/H(+) antiporters operate by a two-doma
193 to record images at a rate of 66,700 frames per second of the vials as they underwent drop shock.
194 ompressive image reconstruction at 10 frames per second of two-dimensional (range and angle) sparse s
196 imately 260 frames (approximately 13 slices) per second on a GPU with 12 GB RAM compared with 6-8 min
197 ions are collected at a rate of one fraction per second on a high-density microarray to retain the se
198 water permeation (ca. 10(9) water molecules per second) on the same magnitude as that of aquaporins.
199 ss after sharp thermal shocks (275 degrees C per second) or intense thermal stress at 1400 degrees C,
200 nes, which are broader than 1,000 kilometres per second, originate in dense shock waves powered by ho
201 ith at least 10(26) molecules being produced per second, originating from localized sources that seem
202 we measure a decoherence rate of 8 x 10(-5) per second over 100 milliseconds, which is the time requ
205 wton-meters quadricep strength at 90 degrees per second; P = .04 and .01, respectively) and among CNS
206 train rate (153.8+/-8.9% versus 191.4+/-8.9% per second; P<0.05) and peak rate of left ventricular un
210 sts show sensitivities of up to 18000 counts per second/parts per billion and volume (cps/ppbv) at a
211 as counts detected within the energy window per second per megabecquerel) were measured with the pro
214 PAH[4]s can transport >10(9) water molecules per second per molecule, which is comparable to aquapori
215 ate a flux of about 10 norfloxacin molecules per second per OmpF trimer in the presence of a 1 mM con
216 relative photon signal (0.56 x 10(7) photons per second per square millimeter +/- 0.11 P < .001) of r
218 imaging photon signal (0.57 x 10(7) photons per second per square millimeter +/- 0.15, P < .001) of
219 imaging photon signal (0.57 x 10(7) photons per second per square millimeter +/- 0.15, P < .001) of
220 (10) FLOPS W(-1) , floating point operations per second per watt) than the brain (~10(15) FLOPS W(-1)
222 was best for pulse rates near 80-160 pulses per second (pps) and degraded for both lower and higher
225 ion on MRI and the number of different words per second produced during speech entrainment versus pic
226 be driven to hundreds of thousands of cycles per second promising applications in magneto-electro-opt
227 lex (eACC) to amplitude-modulated 900-pulses-per-second pulse trains, stimulated in monopolar mode (i
228 acked using low TFs of one to four reversals per second (r/s) and a spatial frequency (SF) of 0.24 cy
229 Participants pointed to about one letter per second, rarely made spelling errors, and visually fi
230 ic DBS delivering the same number of stimuli per second (rate-control 6.2 or 1.8 Hz, respectively) an
231 arently discrete submovements made 2-3 times per second reflect constructive interference between mot
234 cular ultrasound (IVUS) imaging at 72 frames per second safely in vivo, i.e., visualizing a 72 mm-lon
236 n of a THz-video (32 x 32 pixels at 6 frames-per-second), shown in real-time, using a single-pixel fi
237 roxide were decomposed by a single bacterium per second, signifying the presence of a highly active c
238 steady-state creep rate of less than 10(-6) per second-six to eight orders of magnitude lower than m
239 apped particles by only about 1-2 kilometres per second, so rotation has been thought inconsequential
240 ger fixation durations at 5 than at 3 frames per second (specialists: beta = .01; 95% CI: .004, .026;
241 oint mass is GM = 666.2 +/- 0.2 cubic metres per second squared, giving a mass M = (9,982 +/- 3) x 10
242 lt plane at an average speed of 8 kilometers per second, suggesting efficient seismic energy generati
243 star at projected speeds of 4-10 kilometres per second, suggesting highly eccentric or unbound traje
245 alanced synaptic currents evoke fewer spikes per second than excitatory inputs alone or equal excitat
247 igh diffusive flux of more than 66 molecules per second that can also be directed beyond equillibria.
248 flow of millions of ions across the membrane per second that is readily measured as a change in curre
249 zed by unexpectedly fast flow (up to 1 metre per second) that we attribute to high capillary pressure
251 With frame rates exceeding a million scans per second, the firehose of data generated by the time s
252 once to a peak luminosity of 9 x 10(40) erg per second; the other flared five times to 10(40) erg pe
254 mplify this instrument with up to 0.5 frames per second time-lapse FLIM measurements of cAMP levels u
255 -burst laser setup at up to 5 million-frames-per-second, time-resolved holograms of ultra-fast events
257 e with an acquisition rate of 800,000 frames per second to probe the spatial and temporal features of
259 as they move inward at about 300 kilometres per second towards the active supermassive black hole, w
260 ve luminosities of more than 3 x 10(39) ergs per second, unusually soft X-ray components (with a typi
261 licase capable of rapidly (~70-80 base pairs per second) unwinding extensive tracts (~8-10 kilobases)
262 des at a single wavelength, and 1.6 terabits per second using two OAM modes over 10 wavelengths.
264 the velocity of DNA unwinding in base pairs per second (V(un)) by the velocity of translocation on s
265 obe delivery ( approximately 1,000,000 cells per second), versatile across cell types and can be read
266 perfusion reserve <2.0, 3.18+/-1.42 mm Hg/cm per second versus myocardial perfusion reserve >/=2.0, 2
267 ients without MVI (MVI, 3.33+/-1.50 mm Hg/cm per second versus no MVI, 2.41+/-1.26 mm Hg/cm per secon
268 nchronized high-speed (124 or 210 kiloframes per second) video images and wideband electromagnetic fi
270 ondingly, the number of distinct microstates per second was reduced in Lewy body dementia compared to
272 l droplets at rates of up to 10,000 droplets per second, we demonstrate that flow cytometry permits p
273 larization microscope at a rate of 50 frames per second, we follow the changes of 10-16 degrees in th
276 es C is about 2.78 molecules per Pd1 O4 site per second when 2.0 wt % CuO is used as a co-catalyst wi
277 times the speed of light (71,000 kilometres per second), where the absorption is strongly anti-corre
278 nous end of the range (more than 10(40) ergs per second), which require black hole masses of 50-100 t
279 lly greater than several tens of centimetres per second, which corresponds to the gravitational escap
280 rate in the range of about 10(8)-10(9) grams per second, which is far too small to deplete the atmosp
281 d with a peak sliding velocity of 1.1 meters per second, which propagated toward the Kathmandu basin
282 sclerotic human coronary artery at 16 frames per second, which showed strong correlation to gold-stan
284 g mode still provides up to five ECD spectra per second while operating in an information-dependent a
285 king of blood samples at 15-20 million cells per second while yielding an output of highly purified C
287 ormance gains by annotating ~85,000 variants per second with 50 attributes from 17 commonly used geno
288 y at very high speeds (up to 90 body lengths per second with a body length of 25 um) while inducing a
290 bsorptometry, up to a scan rate of few volts per second with a satisfactory single-scan signal-to-noi
291 depth and velocity data at more than 1 frame per second with depth accuracy of 2.5 cm or better.
295 eveals an elongation rate of ~10 amino acids per second, with initiation occurring stochastically eve
296 ansion velocities (around 115,000 kilometres per second) within the first day after the burst(5,6).
297 t-driven velocities in excess of 4300 meters per second-within ~10% of the relativistic limit-and we
298 cells with a throughput of up to ~100 events per second without the need for fluorescent labeling.