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Are Spatial Memories for Familiar Environments Orientation Dependent? Cover

Are Spatial Memories for Familiar Environments Orientation Dependent?

Open Access
|Jan 2021

Figures & Tables

joc-4-1-147-g1.jpg
Figure 1

The 2D representation of a spherical image capture of a dormitory room (printed with permission from participant).

Table 1

Mixed-effects models for pointing error and pointing latency (log-transformed).

PREDICTORPOINTING ERRORPOINTING LATENCY
R2 = .32R2 = .30
BSEtpBSEtp
Intercept19.301.3014.88<.0018.910.0364.82<.001
environment: familiar vs. unfamiliar–0.602.59–0.230.820.110.071.600.11
perspective: 0 vs. 4511.881.388.63<.0010.270.047.540.00
perspective: 0 vs. 90–1.841.13–1.630.110.050.031.660.10
perspective: 0 vs. 135/22510.031.238.18<.0010.230.036.650.00
perspective: 0 vs. 1800.211.140.180.86–0.020.03–0.570.57
perspective: 0 vs. 2700.931.000.930.350.070.032.810.01
perspective: 0 vs. 31511.271.487.59<.0010.230.037.68<.001
environment: familiar vs. unfamiliar * perspective: 0 vs. 452.332.750.850.40–0.030.07–0.370.71
environment: familiar vs. unfamiliar * perspective: 0 vs. 903.762.261.660.100.060.060.970.33
environment: familiar vs. unfamiliar * perspective: 0 vs. 135/2250.152.450.060.950.070.071.060.29
environment: familiar vs. unfamiliar * perspective: 0 vs. 1803.042.291.330.190.050.070.720.47
environment: familiar vs. unfamiliar * perspective: 0 vs. 2706.212.003.11<.0010.060.051.260.21
environment: familiar vs. unfamiliar * perspective: 0 vs. 3152.242.970.750.45–0.010.06–0.230.82

[i] Note: Each dependent measure is modelled as a function of the centered and contrast coded predictors: environment (familiar = –0.5, unfamiliar = 0.5), imagined perspective (with levels 0°, 45°, 90°, 135°/225°, 180°, 270°, defined as a single contrast with 0° as a reference category) and their interaction, using the maximal random effect structure possible. For each fixed effects and interaction, we report the unstandardized coefficient and its standard error, along with the associated t-value and p-value, and the overall variance captured by the model (R2). Statistically significant predictors (at the alpha = .05 level) are in bold.

joc-4-1-147-g2.png
Figure 2

a. Pointing error as a function of environment and imagined perspective. Error bars represent standard errors of the mean. b. Pointing latency as a function of environment and imagined perspective. Error bars represent standard errors of the mean.

Table 2

Mixed-effects models for pointing error and pointing latency (log-transformed) for participants in the Familiar environment condition.

POINTING ERRORPOINTING LATENCY
FOR PARTICIPANTS WHOSE PREFERRED PERSPECTIVE IS THE SAME AS STARTING
PREDICTORR2 = .22R2 = .23
BSEtpBSEtp
Intercept9.151.745.27<.0018.570.08113.09<.001
perspective: Other Orthogonal vs. Preferred/Starting1.141.950.590.570.190.082.380.04
FOR PARTICIPANTS WHOSE PREFERRED PERSPECTIVE IS DIFFERENT THAN STARTING
PREDICTORR2 = .22R2 = .31
BSEtpBSEtp
Intercept16.602.147.77<.0018.820.07130.23<.001
perspective: Starting vs. Other Orthogonal3.261.392.340.020.080.041.830.08
perspective: Starting vs. Preferred5.231.663.15<.0010.070.051.480.15

[i] Note: Each dependent measure is modelled as a function of the centered and contrast coded predictors, using the maximal random effect structure possible. For participants reported preferred orientation was the same as the starting orientation (N = 11), perspective type was contrast coded as: preferred/starting = –.5, other orthogonal = .5. For participants reported preferred orientation was different than starting orientation (N = 21), perspective type was contrast coded with a simple contrast with “starting” as the reference category. For each fixed effect, we report the unstandardized coefficient and its standard error, along with the associated t-value and p-value, and the overall variance captured by the model (R2). Statistically significant fixed effects (at the alpha = .05 level) are in bold.

joc-4-1-147-g3.png
Figure 3

Violin plots representing the distributions of the pointing performance of participants in the Familiar environment condition.

a. and b. illustrate the pointing error and latency of participants whose preferred perspective was the same as the starting perspective (N = 11), according to perspective type (preferred/starting vs. other orthogonal perspectives). c. and d. illustrate the pointing error and latency of participants whose preferred perspective was different from the starting perspective (N = 21), according to perspective type (preferred vs. starting vs. other orthogonal perspectives). Boxplots represent the median and quartiles (Q1, Q3), and the red dot represents the mean of each condition. Black dots indicate observations with values greater than Q3 plus 1.5 times the interquartile range.

Table 3

Mixed-effects models for pointing error and pointing latency (log-transformed) for participants in the Unfamiliar environment condition.

POINTING ERRORPOINTING LATENCY
FOR PARTICIPANTS WHOSE PREFERRED PERSPECTIVE IS THE SAME AS STARTING
PREDICTORR2 = .13R2 = 17
BSEtpBSEtp
Intercept13.381.578.51<.0018.860.0644.64<.001
perspective: Other Orthogonal vs. Preferred/Starting0.361.410.250.800.160.043.91<.001
FOR PARTICIPANTS WHOSE PREFERRED PERSPECTIVE IS DIFFERENT THAN STARTING
PREDICTORR2 = .33R2 = .10
BSEtpBSEtp
Intercept16.593.874.29<.0018.840.05195.61<.001
perspective: Starting vs. Other Orthogonal–0.812.35–0.350.730.040.060.660.52
perspective: Starting vs. Preferred0.482.620.180.86–0.030.07–0.410.69

[i] Note: Each dependent measure is modelled as a function of the centered and contrast coded predictors, using the maximal random effect structure possible. For participants reported preferred orientation was the same as the starting orientation (N = 21), perspective type was contrast coded as: preferred/starting = –.5, other orthogonal = .5. For participants reported preferred orientation was different than starting orientation (N = 11), perspective type was contrast coded with a simple contrast with “starting” as the reference category. For each fixed effect, we report the unstandardized coefficient and its standard error, along with the associated t-value and p-value, and the overall variance captured by the model (R2). Statistically significant fixed effects (at the alpha = .05 level) are in bold.

joc-4-1-147-g4.png
Figure 4

Violin plots representing the distributions of the pointing performance of participants in the Unfamiliar environment condition.

a. and b. illustrate the pointing error and latency of participants whose preferred perspective was the same as the starting perspective (N = 21), according to perspective type (preferred/starting vs. other orthogonal perspectives). c. and d. illustrate the pointing error and latency of participants whose preferred perspective was different from the starting perspective (N = 11), according to perspective type (preferred vs. starting vs. other orthogonal perspectives). Boxplots represent the median and quartiles (Q1, Q3), and the red dot represents the mean of each condition. Black dots indicate observations with values greater than Q3 plus 1.5 times the interquartile range.

DOI: https://doi.org/10.5334/joc.147 | Journal eISSN: 2514-4820
Language: English
Submitted on: Aug 7, 2020
Accepted on: Jan 10, 2021
Published on: Jan 29, 2021
Published by: Ubiquity Press
In partnership with: Paradigm Publishing Services
Publication frequency: 1 issue per year

© 2021 Adamantini Hatzipanayioti, Alexia Galati, Marianna Pagkratidou, Marios N. Avraamides, published by Ubiquity Press
This work is licensed under the Creative Commons Attribution 4.0 License.