Abstract:In this computerized study, research participants completed both Marks' (1973) Vividness of Visual Imagery Questionnaire and Kunzendorf's (1979) Vividness of Auditory Imagery Questionnaire and, immediately thereafter, completed either a visuo-spatial rule-development exercise or an audio-temporal rule-development exercise. During the visuo-spatial exercise, participants were administered 20 four-alternative quizzes regarding the schematic rules of 3-point perspective (3PP) and, between quizzes, were instructed… Show more
“…Finally, the presently suggested complementarity of deduction and Abduction 2 (discovery) is indirectly supported by our newfound association of “visual” cognition with Abduction 2 logic and our newfound association of tree structure cognition with both nondeductive and nonabductive logic, especially when interpreted in the light of research on individual differences in generating visual imagery (Kunzendorf & Buker, 2008–2009; Kunzendorf, Lyman, Sousa, & Hilly, 2012–2013; Kunzendorf & Reynolds, 2004–2005) and individual differences in using heterarchical representations or matrices (Kunzendorf et al., 2013–2014; Novick, 2006; Novick & Hurley, 2001; Schwartz, 1971; Schwartz & Fattaleh, 1972). Kunzendorf's recent imagery research indicates that the eventual discovery of a hypothesis accounting for unanticipated data is abetted by logically inferring and mentally constructing visual “test images” from potential hypotheses—test images which, if they incorrectly predict previously or newly perceived experiences, falsify any and all potential hypotheses from which the test images were inferred.…”
Participants in this study completed the CAPSOL Style of Learning Assessment-Form B and the Logical Style Exercise. Compared with the 44 participants exhibiting an "Abduction 1" logical style that accounts for more facts, the 18 participants exhibiting an "Abduction 2" logical style that accounts for newly discovered facts were significantly more likely to exhibit a deductive logical style as well and were significantly more likely to exhibit a visual cognitive style. Discussion of both results focuses on the relationship between Abduction 2 (discovery) and deduction.
“…Finally, the presently suggested complementarity of deduction and Abduction 2 (discovery) is indirectly supported by our newfound association of “visual” cognition with Abduction 2 logic and our newfound association of tree structure cognition with both nondeductive and nonabductive logic, especially when interpreted in the light of research on individual differences in generating visual imagery (Kunzendorf & Buker, 2008–2009; Kunzendorf, Lyman, Sousa, & Hilly, 2012–2013; Kunzendorf & Reynolds, 2004–2005) and individual differences in using heterarchical representations or matrices (Kunzendorf et al., 2013–2014; Novick, 2006; Novick & Hurley, 2001; Schwartz, 1971; Schwartz & Fattaleh, 1972). Kunzendorf's recent imagery research indicates that the eventual discovery of a hypothesis accounting for unanticipated data is abetted by logically inferring and mentally constructing visual “test images” from potential hypotheses—test images which, if they incorrectly predict previously or newly perceived experiences, falsify any and all potential hypotheses from which the test images were inferred.…”
Participants in this study completed the CAPSOL Style of Learning Assessment-Form B and the Logical Style Exercise. Compared with the 44 participants exhibiting an "Abduction 1" logical style that accounts for more facts, the 18 participants exhibiting an "Abduction 2" logical style that accounts for newly discovered facts were significantly more likely to exhibit a deductive logical style as well and were significantly more likely to exhibit a visual cognitive style. Discussion of both results focuses on the relationship between Abduction 2 (discovery) and deduction.
“…In the third study, Kunzendorf et al (2012) sought, first, to replicate the preceding finding that vivid visual imaging facilitates the development of 3PP rules and, second, to determine whether vivid auditory imaging facilitates the development of rules in an artificial grammar for auditory tones (ArGrT). Participants in the study's 3PP group were administered two imagery questionnaires-the VVIQ (Marks, 1973) and the VAIQ or Vividness of Auditory Imagery Questionnaire (Kunzendorf et al, 2012)-and then were administered a computerized version of the previously described exercise for developing 3PP rules. Participants in the study's ArGrT group were administered the VVIQ and VAIQ, then were administered a computerized version of Conway and Christiansen's (2009) exercise for developing the following set of ArGrT rules:…”
Section: Bü Hler and The Construction Of Conscious Images From Nonconmentioning
confidence: 96%
“…In the third study, Kunzendorf et al. (2012) sought, first, to replicate the preceding finding that vivid visual imaging facilitates the development of 3PP rules and, second, to determine whether vivid auditory imaging facilitates the development of rules in an artificial grammar for auditory tones (ArGrT).…”
Section: Bühler and The Construction Of Conscious Images From Nonconsmentioning
confidence: 96%
“…(2012) sought, first, to replicate the preceding finding that vivid visual imaging facilitates the development of 3PP rules and, second, to determine whether vivid auditory imaging facilitates the development of rules in an artificial grammar for auditory tones (ArGrT). Participants in the study’s 3PP group were administered two imagery questionnaires—the VVIQ (Marks, 1973) and the VAIQ or Vividness of Auditory Imagery Questionnaire (Kunzendorf et al., 2012)—and then were administered a computerized version of the previously described exercise for developing 3PP rules. Participants in the study’s ArGrT group were administered the VVIQ and VAIQ, then were administered a computerized version of Conway and Christiansen’s (2009) exercise for developing the following set of ArGrT rules:F # →C or FC→C # or FC # →C # or F # F→C # or BB→B or C.On each of 24 trials in this exercise, the computer successively presented 14 six-tone patterns—Examples 1–5 (F # -F-C # -C # - F # -C and F # -C-F-B-B-C and F # -F-B-C- F-C # and F # -C-C # -F # -F- C # and F # -C-C # -F # -F-B), Option One, Option Two, Examples 1–5 again, Option One, then Option Two—and, after the 14 patterns, presented an instruction to click on the Correct Option generated by the grammatical rules governing the examples (i.e., the 5 grammatical rules which are listed above and, presumably, had to be imagelessly hypothesized and imaginally tested by the participants).…”
Section: Bühler and The Construction Of Conscious Images From Nonconsmentioning
In the current article, Section 1 begins with the reconsideration of Külpe’s late-nineteenth-century thesis that all problem solving is based on “imageless thoughts,” from which conscious images are constructed by vivid imagers but not by non-imagers. Section 2 proceeds by reconsidering Bühler’s refined thesis that conscious images are constructed from imageless rules, and by considering the present author’s auxiliary thesis that constructed images serve to test newly developed rules for parsing percepts and generating images. Section 3 concludes by reconsidering Külpe’s psychophysiological thesis that vivid visual images are “centrally excited sensations” which are centrifugally constructed on the retina, in accordance with generative rules in the cortex. Twentieth and twenty-first century evidence in support of these theses is summarized throughout the article, in the hope that Külpe’s visionary thoughts lead to further research and testing.
In this factor-analytic study of imaging and thinking, measures of vivid visual and auditory imaging loaded onto a unitary “vivid imaging” factor, on which no measures of thinking loaded. This first factor-analytic finding, like previous findings of no correlation between vivid imaging and productive thinking, is consistent with Külpe's classic argument and Kunzendorf's contemporary argument that visually and auditorily imaged sensations are not building blocks for “spatial” and “temporal” thinking, respectively, but are sensory representations which vivid imagers construct from their imageless thoughts. Moving beyond individual differences in vivid imaging to individual differences in imageless thinking, this factor-analytic study found, in addition, that radically different measures of styles of thought load onto a unitary “heterarchical versus hierarchical thinking” factor. These differing measures of thinking styles instructed research participants to find embedded spatial and temporal patterns, to organize two unstructured data sets into matrices or outlines, and to rank their preferences for 12 competitive events—6 events defined by “how close, “how high,” or “how far” competitors can perform on a heterarchical measure, and 6 events defined by “how well synchronized,” “how long,” or “how fast” competitors can perform on a hierarchical measure. Engineering students in this research exhibited significantly more heterarchical thinking and significantly less hierarchical thinking; management students exhibited significantly less heterarchical thinking and significantly more hierarchical thinking; and male students and female students exhibited, on average, no significant differences in their modes of thinking. Based on these findings, the authors conclude that people's “imageless thinking” can be characterized in terms of two orthogonal modes of thinking: heterarchical thinking and hierarchical thinking.
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