scholarly journals The time-course of negative priming: Little evidence for episodic trace retrieval

1999 ◽  
Vol 27 (4) ◽  
pp. 575-583 ◽  
Author(s):  
Andrew R. A. Conway
Keyword(s):  
Negative Priming ◽  
Time Course ◽  
Episodic Trace

Persistence of negative priming: II. Evidence for episodic trace retrieval.

1992 ◽  
Vol 18 (5) ◽  
pp. 993-1000 ◽  
Author(s):  
W. Trammell Neill ◽  
Leslie A. Valdes ◽  
Kathleen M. Terry ◽  
David S. Gorfein
Keyword(s):  
Negative Priming ◽  
Episodic Trace

A time course analysis of the relationship between Stroop interference and negative priming

1997 ◽  
Author(s):  
Ewald Neumann ◽  
Carmi Schooler ◽  
Leslie J. Caplan ◽  
Bruce Roberts
Keyword(s):  
Negative Priming ◽  
Time Course ◽  
Stroop Interference ◽  
The Relationship

The time-course of distractor processing in auditory spatial negative priming

2015 ◽  
Vol 80 (5) ◽  
pp. 744-756
Author(s):  
Malte Möller ◽  
Susanne Mayr ◽  
Axel Buchner
Keyword(s):  
Negative Priming ◽  
Time Course ◽  
Distractor Processing ◽  
Spatial Negative Priming

The Time-Course of Masked Negative Priming

2009 ◽  
Vol 56 (5) ◽  
pp. 301-306 ◽  
Author(s):  
Christian Frings ◽  
Andreas B. Eder
Keyword(s):  
Negative Priming ◽  
Time Course ◽  
Temporal Discrimination ◽  
Reaction Times ◽  
Simultaneous Presentation ◽  
Probe Display ◽  
Decay Function ◽  
Rapid Decay ◽  
Prime Display ◽  
Prime Distractor

Negative priming (NP) refers to the finding that reaction times and errors increase when a previously ignored prime distractor is presented as a target. In a variant of this task, the prime display is composed of only a single masked distractor that is followed by the simultaneous presentation of a target and a distractor in the probe display. In one experiment, we explore the time-course of masked NP using different variations of the prime-probe interval (short, medium, and long), and compare the results with time-course investigations of unmasked NP. We found clear evidence for a rapid-decay function of masked NP: With an increase in the prime-probe interval, masked NP decreased. This result is in line with the predictions of the temporal discrimination account and retrieval accounts of NP.

scholarly journals On the time course of negative priming: Another look

1996 ◽  
Vol 3 (2) ◽  
pp. 231-237 ◽  
Author(s):  
Lynn Hasher ◽  
Rose T. Zacks ◽  
Ellen R. Stoltzfus ◽  
Michael J. Kane ◽  
S. Lisa Connelly
Keyword(s):  
Negative Priming ◽  
Time Course

Ultrastructural Changes of the Symbiotic Chlorella-Like Alga Isolated from Hydra Viridis

1982 ◽  
Vol 40 ◽  
pp. 320-321
Author(s):  
K.W. Lee ◽  
R.H. Meints ◽  
D. Kuczmarski ◽  
J.L. Van Etten
Keyword(s):  
Time Course ◽  
Reciprocal Cross ◽  
Ultrastructural Level ◽  
Ultrastructural Changes ◽  
Symbiotic Relationship ◽  
Cell Recognition ◽  
Green Hydra ◽  
Different Strains ◽  
Hydra Viridis

The physiological, biochemical, and ultrastructural aspects of the symbiotic relationship between the Chlorella-like algae and the hydra have been intensively investigated. Reciprocal cross-transfer of the Chlorellalike algae between different strains of green hydra provide a system for the study of cell recognition. However, our attempts to culture the algae free of the host hydra of the Florida strain, Hydra viridis, have been consistently unsuccessful. We were, therefore, prompted to examine the isolated algae at the ultrastructural level on a time course.

Destruction of Actin Filaments by Osmium Tetroxide

1977 ◽  
Vol 35 ◽  
pp. 466-467
Author(s):  
P. Maupin-Szamier ◽  
T. D. Pollard
Keyword(s):  
Actin Filaments ◽  
Time Course ◽  
Osmium Tetroxide ◽  
Rabbit Muscle ◽  
Muscle Actin ◽  
Sodium Phosphate Buffer ◽  
Transmission Electron ◽  
The Difference ◽  
Rates Of Decay ◽  
Short Time

We have studied the destruction of rabbit muscle actin filaments by osmium tetroxide (OSO4) to develop methods which will preserve the structure of actin filaments during preparation for transmission electron microscopy.Negatively stained F-actin, which appears as smooth, gently curved filaments in control samples (Fig. 1a), acquire an angular, distorted profile and break into progressively shorter pieces after exposure to OSO4 (Fig. 1b,c). We followed the time course of the reaction with viscometry since it is a simple, quantitative method to assess filament integrity. The difference in rates of decay in viscosity of polymerized actin solutions after the addition of four concentrations of OSO4 is illustrated in Fig. 2. Viscometry indicated that the rate of actin filament destruction is also dependent upon temperature, buffer type, buffer concentration, and pH, and requires the continued presence of OSO4. The conditions most favorable to filament preservation are fixation in a low concentration of OSO4 for a short time at 0°C in 100mM sodium phosphate buffer, pH 6.0.

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