= .295. Primed participants walked significantly slower than No-Prime participants when
tested by an experimenter expecting them to walk slowly (M = 7.25'' SD = .33 vs. M =
6.73'' SD = .32), F(1, 24) = 12,32, p = .002, η² = .339; this replicates Bargh et al.'s
effect. Strikingly, the effect was reversed in the Fast experimenter condition: Primed
(120)participants walked significantly faster than No-Prime participants (M = 5.8'' vs. M =
6.43''), F(1, 24) = 7,55, p = .012, η² = .274.
Figure 1. Subjective timings. Mean time in seconds to walk down the hallway measured manually by the experimenter. The error bars represent the standard error of the mean.
Objective timings. For the objective timings, we observed a difference between the
Prime (M = 6.95'' SD = .36) and the No-Prime (M = 6.52'' SD = .31) groups in the Slow
experimenter condition, F(1, 24) = 7.07, p = .014, η² = .228, and Bargh et al.'s effect is
(125)thus replicated in this condition. There was no difference between the Prime (M = 6.07''
SD = .57) and the No-Prime (M = 6.01'' SD = .39) groups in the Fast experimenter
condition, F(1, 24) = .231, p = .636, η² = .011. We also found a main effect of
walked significantly slower than those tested by Fast experimenters (M = 6.04'' SD = .47),
(130)F(1, 49) = 30.44, p<.001, η² = .404.
Figure 2. Objective timings. Mean time in seconds to walk down the hallway measured by the infrared sensors. The error bars represent the standard error of the mean.
Error level. The reverse effect on walking speed for the Fast experimenter condition
is explained by the absolute error: experimenters in the Fast condition were less accurate
for the No-Prime group (M = 0.73'' SD = .38) than for the Prime group (M = 0.41'' SD =
.24), F(1, 24) = 5.819, p = .023, η² = .183. No significant difference was found between
(135)the Prime (M = 0.3'' SD = .17) and the No-Prime (M = 0.49'' SD = .32) groups in the Slow
condition, F(1, 24) = 3.297, p = .08, η² = .113.
Figure 3. Error level. Absolute difference in seconds between the subjective and the objective timings. The error bars represent the standard error of the mean.
Awareness of the prime. As in Experiment 1, the Prime group chose the picture of the
elderly person above chance level, whereas the No-Prime group was equally likely to choose
any of the four pictures, χ2 (1) = 5.62, p = 0.019.
(140)Awareness of the effect. A significant difference was found between the Prime (M of
the deviation = -7.3 SD = 1.35) and the No-Prime (M of the deviation = 2.01 SD = .87)
groups in the Slow condition, F(1, 24) = 12.43, p = .042, η² = .143; no significant
difference was found in the Fast condition, F(1, 24) = .56, p = .38, η² = .015. For the
most part, primed participants were able to recall the concept related to the scrambled
(145)sentences task.
Discussion
Our findings lead us to reconsider the results of Bargh et al.'s experiments. First, in
Experiment 1, despite the use of a larger sample and an experimental procedure devoid of
the limitations present in the original, we were not able to replicate the automatic
effect of priming on walking speed, leading us to assume that crucial factors in this
(150)paradigm had remained unidentified. Second, in Experiment 2 we were indeed able to obtain
the priming effect on walking speed for both subjective and objective timings, but
crucially this was only possible by manipulating experimenters' expectations such that
they would expect primed participants to walk slower. The results cannot be explained
solely in terms of a pure self-fulfilling prophecy effect, as the primed participants did
(155)not walk faster when tested by an experimenter who believed they would walk faster.
Regarding the subjective timings, we obtained a reverse effect on walking speed, with
participants walking faster. This effect can be explained by the error committed by the
experimenters: most likely as a result of their induced expectations, experimenters in the
Fast condition were prone to committing more errors because they expected the need to
(160)capture a fast event and hence tended to be inaccurate in stopping the watch.
General Discussion
Our findings lead us to reconsider the behavioral priming literature with a critical
eye. Priming alone was not sufficient to promote a priming effect on walking speed
comparable to Bargh et al.'s. We also had to manipulate experimenters' beliefs so that
they would expect the primed subjects to walk slower. Experimenters' expectations seem to
(165)provide a favorable context for the behavioral expression of the prime: experimenters who
expect their participants to walk slower behave differently than those who expect their
participants to walk faster, and those subtle behavioral cues appear to be picked up by
participants. Obviously, this interpretation remains tentative, as we do not know how this
process operates.
(170)The present finding is congruent with recent evidence showing that primed behavior is
sensitive to the context in which it takes place. Our results cannot be explained solely
in terms of a self-fulfilling prophecy, as the primes alone were not sufficient, and
primed participants did not walk faster when tested by an experimenter expecting them to
walk faster. Also relevant is participants' awareness: most primed participants were aware
(175)of the social category they had been primed with, and those who actually walked slower
were in good proportion aware of their diminished walking speed. Whether automatic
behavioral priming can occur without awareness thus remains unclear; participants'
awareness could have led them to exert better conscious control over the latter, thereby
impairing its expression.
(180)In conclusion, although automatic behavioral priming seems well established in the social
cognition literature, it seems important to consider its limitations. In line with our
results it seems that these methods need to be taken as an object of research per se
before using them as a tool. The methods of behavioral priming need to be examined
carefully before behavioral priming can be considered an established phenomenon.
שאלה 1.על פי שורות 19-31, Doyen ושותפיו חוששים שבמחקר המקורי ציפיות הנסיין עלולות היו לעצב את התוצאה. איזה מאפיין בעיצוב ניסוי 2 נועד לבחון חשש זה ישירות?
02
שאלה 2.על פי שורות 26-31, המחברים מבחינים בין אי-מודעות לגירוי, לתגובה, ולקשר ביניהם. כיצד יושמה הבחנה זו במדידת המודעות בניסוי 1?
03
שאלה 3.על פי שורות 32-43, אילולא היו ציפיות הנסיין משפיעות תחילה על התנהגותו שלו, מה היה המנגנון החלופי גורס לגבי אפקט ההטרמה?
04
שאלה 4.על פי תיאור ניסוי 1, כל האמצעים הבאים תורמים להפחתת השפעת ציפיות הנסיין על המדידה, למעט אמצעי אחד. איזה?
05
שאלה 5.על פי שורות 73-86, היעדר ההבדל במהירות ההליכה בין קבוצת ה-Prime לקבוצת ה-No-Prime, לנוכח כך שקבוצת ה-Prime זיהתה את קטגוריית הזקן מעל רמת המקרה, מלמד ש-
06
שאלה 6.על פי שורות 106-113, מה היה משתבש בניתוח אילו המקדם התוך-מחלקתי היה גבוה ומובהק, ולא נמוך?
07
שאלה 7.על פי שורות 114-127, בתנאי הנסיין המהיר נמצא הבדל בין הקבוצות בתזמון הסובייקטיבי אך לא בתזמון האובייקטיבי. מה מסביר פער זה בצורה הטובה ביותר?
08
שאלה 8.על פי שורות 114-121 (התזמון הסובייקטיבי), ובהשוואה לתזמון האובייקטיבי, השלימו את דפוס ההטרמה בתנאי הנסיין המהיר: מדידת התזמון הסובייקטיבי הראתה שקבוצת ה-Prime _____, ואילו מדידת התזמון האובייקטיבי הראתה שקבוצת ה-Prime _____.
09
שאלה 9.על פי שורות 150-179, מהי המסקנה שמסיקים המחברים מכך שבתנאי הנסיין המהיר ההטרמה לא הניבה הליכה מהירה יותר?
10
שאלה 10.מהי מטרת-העל של שני הניסויים המתוארים בקטע?
11
שאלה 11.על פי הקטע כולו, מהי המסקנה המאוזנת שאליה מגיעים המחברים בנוגע לאפקט ההטרמה ההתנהגותית?
ענו על שאלות 12-13 על סמך הקטע ועל סמך ידיעותיכם הכלליות בפסיכולוגיה
12
שאלה 12.על פי הקטע ולפי ההבחנה בין סמיות יחידה לסמיות כפולה, איזו טענה מתארת נכון את עיצוב ניסוי 1 של Doyen ועמיתיו?
13
שאלה 13.על פי הקטע ולפי אפקט פיגמליון של Rosenthal, איזה רכיב בממצאי Doyen ועמיתיו מהווה את ההמחשה האמפירית המובהקת ביותר של התאוריה?
ענית על 0 מתוך 13
100%
Behavioral Priming: It's all in the Mind, but Whose Mind?
= .295. Primed participants walked significantly slower than No-Prime participants when
tested by an experimenter expecting them to walk slowly (M = 7.25'' SD = .33 vs. M =
6.73'' SD = .32), F(1, 24) = 12,32, p = .002, η² = .339; this replicates Bargh et al.'s
effect. Strikingly, the effect was reversed in the Fast experimenter condition: Primed
(120)participants walked significantly faster than No-Prime participants (M = 5.8'' vs. M =
6.43''), F(1, 24) = 7,55, p = .012, η² = .274.
Figure 1. Subjective timings. Mean time in seconds to walk down the hallway measured manually by the experimenter. The error bars represent the standard error of the mean.
Objective timings. For the objective timings, we observed a difference between the
Prime (M = 6.95'' SD = .36) and the No-Prime (M = 6.52'' SD = .31) groups in the Slow
experimenter condition, F(1, 24) = 7.07, p = .014, η² = .228, and Bargh et al.'s effect is
(125)thus replicated in this condition. There was no difference between the Prime (M = 6.07''
SD = .57) and the No-Prime (M = 6.01'' SD = .39) groups in the Fast experimenter
condition, F(1, 24) = .231, p = .636, η² = .011. We also found a main effect of
walked significantly slower than those tested by Fast experimenters (M = 6.04'' SD = .47),
(130)F(1, 49) = 30.44, p<.001, η² = .404.
Figure 2. Objective timings. Mean time in seconds to walk down the hallway measured by the infrared sensors. The error bars represent the standard error of the mean.
Error level. The reverse effect on walking speed for the Fast experimenter condition
is explained by the absolute error: experimenters in the Fast condition were less accurate
for the No-Prime group (M = 0.73'' SD = .38) than for the Prime group (M = 0.41'' SD =
.24), F(1, 24) = 5.819, p = .023, η² = .183. No significant difference was found between
(135)the Prime (M = 0.3'' SD = .17) and the No-Prime (M = 0.49'' SD = .32) groups in the Slow
condition, F(1, 24) = 3.297, p = .08, η² = .113.
Figure 3. Error level. Absolute difference in seconds between the subjective and the objective timings. The error bars represent the standard error of the mean.
Awareness of the prime. As in Experiment 1, the Prime group chose the picture of the
elderly person above chance level, whereas the No-Prime group was equally likely to choose
any of the four pictures, χ2 (1) = 5.62, p = 0.019.
(140)Awareness of the effect. A significant difference was found between the Prime (M of
the deviation = -7.3 SD = 1.35) and the No-Prime (M of the deviation = 2.01 SD = .87)
groups in the Slow condition, F(1, 24) = 12.43, p = .042, η² = .143; no significant
difference was found in the Fast condition, F(1, 24) = .56, p = .38, η² = .015. For the
most part, primed participants were able to recall the concept related to the scrambled
(145)sentences task.
Discussion
Our findings lead us to reconsider the results of Bargh et al.'s experiments. First, in
Experiment 1, despite the use of a larger sample and an experimental procedure devoid of
the limitations present in the original, we were not able to replicate the automatic
effect of priming on walking speed, leading us to assume that crucial factors in this
(150)paradigm had remained unidentified. Second, in Experiment 2 we were indeed able to obtain
the priming effect on walking speed for both subjective and objective timings, but
crucially this was only possible by manipulating experimenters' expectations such that
they would expect primed participants to walk slower. The results cannot be explained
solely in terms of a pure self-fulfilling prophecy effect, as the primed participants did
(155)not walk faster when tested by an experimenter who believed they would walk faster.
Regarding the subjective timings, we obtained a reverse effect on walking speed, with
participants walking faster. This effect can be explained by the error committed by the
experimenters: most likely as a result of their induced expectations, experimenters in the
Fast condition were prone to committing more errors because they expected the need to
(160)capture a fast event and hence tended to be inaccurate in stopping the watch.
General Discussion
Our findings lead us to reconsider the behavioral priming literature with a critical
eye. Priming alone was not sufficient to promote a priming effect on walking speed
comparable to Bargh et al.'s. We also had to manipulate experimenters' beliefs so that
they would expect the primed subjects to walk slower. Experimenters' expectations seem to
(165)provide a favorable context for the behavioral expression of the prime: experimenters who
expect their participants to walk slower behave differently than those who expect their
participants to walk faster, and those subtle behavioral cues appear to be picked up by
participants. Obviously, this interpretation remains tentative, as we do not know how this
process operates.
(170)The present finding is congruent with recent evidence showing that primed behavior is
sensitive to the context in which it takes place. Our results cannot be explained solely
in terms of a self-fulfilling prophecy, as the primes alone were not sufficient, and
primed participants did not walk faster when tested by an experimenter expecting them to
walk faster. Also relevant is participants' awareness: most primed participants were aware
(175)of the social category they had been primed with, and those who actually walked slower
were in good proportion aware of their diminished walking speed. Whether automatic
behavioral priming can occur without awareness thus remains unclear; participants'
awareness could have led them to exert better conscious control over the latter, thereby
impairing its expression.
(180)In conclusion, although automatic behavioral priming seems well established in the social
cognition literature, it seems important to consider its limitations. In line with our
results it seems that these methods need to be taken as an object of research per se
before using them as a tool. The methods of behavioral priming need to be examined
carefully before behavioral priming can be considered an established phenomenon.