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1 ticipants' stopping performance (stop-signal reaction time).
2 effects jointly determined the overall motor reaction time.
3 solvent or high temperature water and a long reaction time.
4 al synchrony during visual attention predict reaction time.
5 8.2 (57.4%), and 10.0 (48.4%) after 24 h of reaction time.
6 and requires simple washing steps and short reaction time.
7 inform clinical decision-making and improve reaction time.
8 environment of the oxidized Hg changes with reaction time.
9 ylthiosemicarbazides by simply adjusting the reaction time.
10 ets after sensory cues and correlations with reaction time.
11 ependent upon the nature of the base and the reaction time.
12 receded the latency to stop, the stop signal reaction time.
13 tory inhibition in each trial was related to reaction time.
14 hoquinone products in good yields in a short reaction time.
15 adily available iodine and DMSO with a short reaction time.
16 hting of saccade targets as well as saccadic reaction times.
17 using a less coordinating solvent and short reaction times.
18 ning internal film structure at intermediate reaction times.
19 oylguanidines under mild conditions in short reaction times.
20 95% ee), under mild conditions and in short reaction times.
21 ology, measuring emotional attention through reaction times.
22 , but many enzymes are limited by their long reaction times.
23 this activity was correlated with behavioral reaction times.
24 se in CPT performance accuracy and increased reaction times.
25 ments in which O2 was present for equivalent reaction times.
26 with a large excess of cyanamide over longer reaction times.
27 even improved materials quality with shorter reaction times.
28 in one step, in good yields, and with short reaction times.
29 free conditions at room temperature in short reaction times.
33 ons (100mM borate buffer at pH 8.5, labeling reaction time 60min, temperature 70 degrees C and NBD-Cl
35 e.m.=0.6%) for memory, 11% (s.e.m.=0.6%) for reaction time and 21% (s.e.m.=0.6%) for educational atta
36 fore, the new design allows a 30-fold longer reaction time and a 40-fold increase in pressure compare
37 confidence simultaneously, their confidence, reaction time and a perceptual decision about motion wer
38 show that trial-to-trial variability in the reaction time and accuracy of eye-movements during a mem
39 relationships between trialwise variation in reaction time and brain activity in the inferior and mid
41 ter estimates to demonstrate that changes in reaction time and error rate due to the probability of a
42 O3 is shown to be the fundamental control on reaction time and final Os content, yielding a well-defi
44 nsformation of trace contaminants with short reaction time and little to none energy consumption.
46 taneously presented visual stimuli lengthens reaction time and reduces both the BOLD response and neu
47 we also found a similar relationship between reaction time and SOA for both visual and tactile stimul
48 target location changed unexpectedly during reaction time and the correction of hand trajectory requ
49 excitability of the motor system relates to reaction time and the regional content of the inhibitory
51 g schizophrenia and the cognitive domains of reaction time and verbal-numerical reasoning, as well as
52 alenes were isolated in good yields in short reaction time and were further oxidized to the correspon
53 p(3)-Csp(2) bonds with significantly reduced reaction times and a broader substrate scope than when c
56 rator systems nowadays significantly shorten reaction times and enable technical-scale operations.
57 l monomers are employed, as they ensure fast reaction times and good final mechanical properties of t
58 ignificant negative correlation between task reaction times and hemodynamic responses from left LPFC
60 during decision making revealed that saccade reaction times and peak velocities were influenced in pr
61 ask, and the Emotional Test Battery in which reaction times and performance accuracy are measured dur
64 uidic technologies can undoubtedly fine-tune reaction times and reagents concentration profiles; fact
67 ith more excitable motor pathways had faster reaction times and, paradoxically, higher concentrations
69 microreactor accelerated the reaction (5 min reaction time) and increased the yields (8 examples).
70 ing, 6 loci shared between schizophrenia and reaction time, and 14 loci shared between schizophrenia
71 The effects of solvent, base, temperature, reaction time, and amount of base on the efficiency of c
74 imization of reagent stoichiometry, solvent, reaction time, and temperature led to an intensified pro
75 that measured spatially and temporally cued reaction times, and (3) a simple reaction time task as a
76 ditions, i.e., ambient temperature, moderate reaction times, and the need for only a slight excess of
82 show the extent to which folding occurs, and reaction times are obtained from known protein folding t
83 plets to, e.g., study reaction kinetics when reaction times are short relative to typical bulk reacto
84 normal reaction times to test whether normal reaction times are strictly necessary for accurate movem
85 independence provides an explanation for why reaction times are usually so sluggish: delaying the mea
87 h respect to ligand type, concentration, and reaction time as well as distinguish between functionali
88 confidence, and stimuli discriminability and reaction times, as well as the fluctuations influence on
89 the frequency of these oscillations predicts reaction times, as well as the maximum temporal interval
90 ction of actions (pro- and antisaccades) and reaction times based on previously published models.
91 ed by decreasing the solution flow rate, and reaction times between 1.0 and 22 mus are obtained using
93 , we observed that accuracy was modulated by reaction time, bias and sensitivity, but noise compensat
95 t in fact improved performance by decreasing reaction times by 23 ms, and significantly decreasing to
96 rial produced after optimizing the microwave reaction time can effectively generate H2 under visible-
97 sual integration in populations where simple reaction times cannot be collected, such as developmenta
98 ically with choice, stimulus difficulty, and reaction time-characteristics of a candidate decision va
99 ally relevant coagulation metrics, including reaction time, clot formation kinetics and maximum shear
100 compromise the precision and accuracy of the reaction times collected in psychological experiments, e
101 on of participants' behavior in conventional reaction-time conditions revealed that they generated oc
102 ction times were measured instead of saccade reaction times, confirming that these interactions resul
104 to atomoxetine: the reduction in stop-signal reaction time correlated with structural connectivity an
106 tration scan that tells the story of a batch reaction time course in a qualitative "fingerprinting" m
108 lose to FEF) shortened or prolonged saccadic reaction times, depending on the task-instructed saccade
109 It has been influentially suggested the reaction time distribution therefore reflects deliberate
110 gin of the remarkably wide dispersion of the reaction time distribution, an interval far greater than
112 times lower than 96-well plate) and reduced reaction time due to increased surface volume ratio (2.5
114 sing an online navigation study, we recorded reaction times, error rates (confusion of turning axis),
115 ll measures to reduce the impact of noise on reaction-time experiments, we conclude that the typical
116 improvement indicated by reduced stop-signal reaction time) following atomoxetine correlated with str
117 ation frequencies ( 1500 Hz); improved their reaction time for bimodal stimuli (i.e. when both vibrat
118 (e.g., in lateral intraparietal cortex) and reaction time for discrimination is drift-diffusion.
119 f organic content that remains constant with reaction time for methylglyoxal-ammonium sulfate systems
120 he accumulation of gains gradually increased reaction times for "continue" choices, indicating growin
123 using MEG decoding methods, correlates with reaction times for visual categorization during the peri
124 gages the reticulospinal tract, by measuring reaction times from electromyographic activity in an int
126 approach, broad substrate scope, very short reaction times, good to excellent yields, and simple sta
127 hodology is highly advantageous due to short reaction time, gram scale synthesis, and broad substrate
128 22 patients (11.9%) achieved a difference in reaction time greater than 1 minute, which was similar b
130 old whose advantages include catalysis, fast reaction times, high concentrations, and facile scale-up
131 industry as this technology provides reduced reaction times, higher selectivities, straightforward sc
132 actions with low catalyst loadings and short reaction times highlight the versatility and practicalit
133 ge-detection paradigm, human performance and reaction times improved with longer pre-change exposure,
134 is coverage can be controlled by varying the reaction time in a manner that allows for the constructi
135 ctroencephalogram data, cognitive state, and reaction time in humans using a multimodal approach.
136 ions result in deficits in both accuracy and reaction time in tasks involving the recognition of othe
137 had higher brightness perception and faster reaction times in a sustained attention task during blue
138 odology using mechanochemistry which reduces reaction times in comparison with conventional synthetic
139 food rewards accurately predicts choices and reaction times in four independent sets of subjects maki
140 ave been proposed to explain error rates and reaction times in this task, no formal model comparison
144 ive to standard batch conditions, with short reaction times, increased safety profile, and potential
145 erformed online digestion of proteins (5 min reaction time, instead of 4-16 h in previous in-solution
148 s, e.g., a left key to report stimuli, their reaction time is shorter when stimuli appear to the left
149 e traditionally low-yielding, requiring long reaction times, laborious purification steps and often e
150 y with the Chan-Lam reaction using optimized reaction times leads to complete coverage of the electro
151 lution of Au NPs prepared with a short 5 min reaction time led to the successful capture of 1-2 nm di
152 gent not environmentally friendly, undefined reaction time, long sample pretreatment, and low precisi
153 t produce a visible readout suffer from long reaction times, low sensitivity, and narrow dynamic rang
155 his novel plasmonic-TDD method include short reaction times (<30 s/200 mum), compatibility with MALDI
156 acy (RE<5%), reduced reagent consumption and reaction times (<6min), and excellent sample versatility
157 ay lack acceptable reproducibility, and long reaction times may preclude its adoption as a rapid scre
158 ; verbal-numerical reasoning (n = 36035) and reaction time (n = 111483) in the UK Biobank cohort; and
159 al reasoning (N=36 035), memory (N=112 067), reaction time (N=111 483) and for the attainment of a co
161 d 57 mus, respectively), indicating that the reaction times obtained using rapid mixing from theta-gl
163 also investigated, where it was found that a reaction time of 5 min, which is essential in the standa
165 resulting folding during nanoESI indicate a reaction time of between 7 and 25 mus depending on the s
168 o-dimensional image-regions by measuring the reaction times of human participants and report that it
169 es were investigated using a proton transfer reaction time-of-flight mass spectrometer (PTR-ToF-MS) a
170 perimental setup involving a proton-transfer-reaction time-of-flight mass spectrometer (PTR-ToF-MS),
171 fluxes were estimated with a Proton Transfer Reaction Time-of-Flight Mass Spectrometer (PTR-ToF-MS).
172 nline") particle inlet and a proton-transfer-reaction time-of-flight mass spectrometer (PTR-ToF-MS).
173 ids content, while the novel proton transfer reaction time-of-flight mass spectrometer was employed f
175 re tentatively identified by Proton Transfer Reaction Time-of-Flight Mass Spectrometric (PTR-(ToF)MS)
176 cultivars was studied using proton transfer reaction time-of-flight mass spectrometry (PTR-ToF-MS) w
177 good agreement with benchtop proton transfer reaction time-of-flight mass spectrometry (PTR-TOF-MS).
178 racterized the novel PTR3, a proton transfer reaction-time-of-flight mass spectrometer (PTR-TOF) usin
179 ion region (drift tube) of a proton transfer reaction-time-of-flight-mass spectrometer (PTR-ToF-MS) c
180 ial frontal cortex exhibits a sensitivity to reaction time on functional imaging that is consistent w
182 tion of acid catalyst, oxidant quantity, and reaction time on the distribution of phlorin and 5-isoco
183 sponse inhibition was indexed by stop-signal reaction time on the stop-signal task and commission err
185 arkably, SLR magnitudes also correlated with reaction times on both pro-reaches and anti-reaches, but
186 discrimination, frequency discrimination and reaction time) on 12 upper and lower limb amputees and f
187 es were estimated using biochemical data and reaction time performance on the psychomotor vigilance t
188 ofactor radical intermediate at the earliest reaction time points and that Trp-321 is the preferred s
190 s that conform to the regularities of choice-reaction time predicted by the sequential sampling frame
191 n order of magnitude lower than the shortest reaction time probed using a conventional mixer (8 mus).
194 of different experimental parameters such as reaction time, reaction temperature, calcination, pH and
195 xponential relationship; minor variations in reaction time result from wet/dry glassware and light/da
196 d a measure of motor urgency, indexed by the reaction time (RT) difference between go and stop error
197 xcitability, local cortical GABA levels, and reaction time (RT) in a group of 20 healthy human adults
198 ly correlated with standard deviation at the reaction time (RT) level and with excessively long RTs (
201 F(5,883) = 5.8, p < 0.001), and with faster reaction time (RT, beta = -0.01; p = 0.01); independent
203 Behavioral costs were measured by prolonged reaction times (RT) in sustained attention to response t
205 lapping with target onset shortened saccadic reaction times (RTs) for ipsiversive (to the stimulation
207 The effects of signal strength and value on reaction time should interact multiplicatively because t
208 cal for perceptual decision-making, and that reaction times should therefore correlate with distance
210 initiation by relating variations in saccade reaction time (SRT) to variations in such parameters as
214 study, participants with longer stop signal reaction time (SSRT) reported greater amphetamine-induce
215 of isochronous repetitive auditory stimuli, reaction time strongly depended on the stimulus onset as
216 al responses also led to shortest behavioral reaction times, suggesting functional relevance of the e
217 y cortex model accounted for performance and reaction times, suggesting that the primary cortical rep
218 were evaluated using the five-choice serial reaction time task (5-CSRTT) and delay discounting proce
219 hallenging variant of the five-choice serial reaction time task (5-CSRTT) in which alcohol-exposed ra
220 trait, as measured in the five-choice serial reaction time task (5-CSRTT), and the associated propens
223 d twitch response or impulsivity in a serial reaction time task (SRTT), whereas ketamine increased re
225 in which healthy human subjects performed a reaction time task and provided perceptual ratings of no
226 measured by the finger-tapping test, simple reaction time task and the Digit Symbol Substitution Tas
230 cranial self-stimulation and 5-choice serial reaction time task tests but remained dysregulated in th
231 osseous muscle in the preparatory phase of a reaction time task where individuals with chronic incomp
232 trained on either a sequencing skill (serial reaction time task) or a motor skill (force-tracking tas
233 being the number of errors, and Stop-Signal Reaction Time task, which evaluates motor inhibition.
234 P affects performance in the 5-choice serial reaction time task, which quantifies attention and error
240 ratio, and the PFC-dependent 5-choice serial reaction timed task (5-CSRTT), we determined that F1 fem
246 0-500 times the concentration and at shorter reaction times than common slow addition/high dilution t
249 Recent data suggest that a difference in reaction time (time to initial fibrin formation) greater
250 attention cue during visual-motor task; and reaction time to a response cue during the same task bet
251 hT silencing opsin resulted in a decrease in reaction time to touch the target but not to retrieve re
255 like "volitional" facilitation effect: their reaction times to targets that appeared on the side indi
256 an participants to move at lower-than-normal reaction times to test whether normal reaction times are
258 atterns, readily available substrates, short reaction time, transition metal-free, and gram-scale syn
259 The thioether effect also enables short reaction times under mild conditions for many O-, S-, an
260 roducts (up to 97% isolated yield), in short reaction times under mild experimental conditions using
263 ting partially mediated group differences in reaction time variability (beta = .010, 95% confidence i
264 ith BP or at risk for BP exhibited increased reaction time variability (F2,102 = 4.26, p = .02, etap(
265 hat individual developmental trajectories of reaction time variability are related to individual traj
267 but not in their unaffected siblings, while reaction time variability was higher in both groups than
268 elf-reports of ADHD symptoms on the SDQ, and reaction time variability were each negatively associate
269 nificantly correlated with congruent errors, reaction time variability, and error-related positivity
270 e number of congruent (low-conflict) errors, reaction time variability, error-related negativity, and
271 orrelated with the subjects' performance and reaction time variability, two vastly studied indicators
272 of ADHD symptomatology, brain structure, and reaction time variability-an index of lapses in attentio
273 d cuneus is a strong predictor of the slower reaction times via disruption of neural synchrony in vis
277 id catalyst concentration, DDQ quantity, and reaction time was performed with monitoring by HPLC.
280 veling off of incorporation profiles at long reaction times was interpreted as reaching equilibrium b
282 p differences in intrasubject variability in reaction time were examined, and a sophisticated fMRI an
284 variability in search performance, such that reaction times were longer when distractors had a higher
286 he same instructed saccades, and when manual reaction times were measured instead of saccade reaction
288 icipants voluntarily responded to all tasks, reaction times were shorter during a startle cue while p
290 parameters (pH 8, 60 degrees C and 60 min of reaction time) were determined for the reaction with ter
291 aving (MW) parameters, microwaving power and reaction time, were optimized for the pretreatment.
292 that distractors had a greater influence on reaction time when they appeared in colors associated wi
293 igm, which typically refers to a decrease of reaction times when subjects perform an action (e.g., a
294 the VS lesions hastened the monkeys' choice reaction times, which emphasized a speed-accuracy trade-
295 s can be used to access significantly faster reaction times while consuming substantially less sample
296 dure is highly advantageous due to its short reaction time, wide substrate scope, and gram-scale synt
297 carbon-nitrogen bonds are achieved in short reaction times with excellent selectivities and high to
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