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Megan M. Saylor

dblp:19/3531 · DBLP profile ↗
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10ranked-venue papers
0as first author
0since 2021 · last 2020
0000-0002-8567-5730ORCID · corroborated

Domains — the database's venue-derived domains; a paper can count in several

Artificial intelligence and machine learning · 8Human-computer interaction and ubiquitous computing · 5Applied, interdisciplinary, general and emerging computing · 4

Expertise — from the expertise taxonomy: the topics of the expert's papers under the CCF categories. A weight counts papers with recency: 1 for a paper about the topic, 0.3 when the topic is its context, halved every five years.

Human-computer interaction and pervasive computing
4 papers
Human-robot interaction · 100%
Artificial intelligence
1 paper
Knowledge representation and reasoning · 100%

Topics — the 3 heaviest of 6, each with the papers that count most for it

TopicWeightPapersLastEvidence papers
Human-robot interaction › anthropomorphism
intentionality attribution
0.222009
Distinguishing defaults and second-line conceptualization in reasoning about humans, robots, and computers · HRI 2009
Concepts about the capabilities of computers and robots: a test of the scope of adults' theory of mind · HRI 2008
Human-robot interaction › cognitive human-robot interaction
theory of mind
0.232013
Concepts about the capabilities of computers and robots: a test of the scope of adults' theory of mind · HRI 2008
A transition model for cognitions about agency · HRI 2013
Distinguishing defaults and second-line conceptualization in reasoning about humans, robots, and computers · HRI 2009
Human-robot interaction
anthropomorphism
0.012008
Concepts about the capabilities of computers and robots: a test of the scope of adults' theory of mind · HRI 2008

Methods — techniques the papers use, named apart from their topics

conceptual analysis · 0.3
YearPublicationVenuePosition
2020 Preschoolers' responses to unknown words: Questions and evaluation of definition quality
Laura Janakiefski, Nicholas Tippenhauer, Megan M. Saylor
CogSci3
2018 Preschoolers Evaluate Information about Word Meaning
Yuyue Sun, Sofia Jimenez, Nicholas Tippenhauer, Megan M. Saylor
CogSci4
2018 Context variability in learning
Nicholas Tippenhauer, Megan M. Saylor
CogSci2
2016 Increasing preschoolers' awareness of lexical ignorance to encourage word-learning
Sofia Jimenez, Kaitlin Ryan, Megan M. Saylor
CogSci3
2013 A transition model for cognitions about agency
Daniel Levin 0001, Julie A. Adams, Megan M. Saylor, Gautam Biswas
HRI3
2013 Tests of Concepts About Different Kinds of Minds: Predictions About the Behavior of Computers, Robots, and People
abstract
This research investigates adults' understanding of differences in the basic nature of intelligence exhibited by humans and by machines such as computers and robots. We tested these intuitions by asking participants to make predictions about the behaviors of different entities in situations where actions could be based on either goal-directed intentional thought or more mechanical nonintentional thought. Across several studies, adults made more intentional predictions about the behavior of humans than about the behavior of robots or computers. Although initial experiments demonstrated that participants made very similar predictions for computers and anthropomorphic robots, when asked to track robots' attention to objects, participants began to predict more intentional behaviors for the robot. A multiple regression demonstrated that differential behavioral predictions about mechanical and human entities were associated with ratings of goal understanding but not overall intelligence of current computers/rob...
Daniel Levin 0001, Stephen S. Killingsworth, Megan M. Saylor, Stephen M. Gordon, Kazuhiko Kawamura
Hum. Comput. Interact.3
2012 Distinguishing first-line defaults and second-line conceptualization in reasoning about humans, robots, and computers
Daniel Levin 0001, Megan M. Saylor, Simon D. Lynn
Int. J. Hum. Comput. Stud.2
2010 Infants' ability to parse continuous actions: Further evidence
Susan J. Hespos, Stacy R. Grossman, Megan M. Saylor
Neural Networks3
2009 Distinguishing defaults and second-line conceptualization in reasoning about humans, robots, and computers
abstract
In previous research, we demonstrated that people distinguish between human and nonhuman intelligence by assuming that humans are more likely to engage in intentional goal-directed behaviors than computers or robots. In the present study, we tested whether participants who respond relatively quickly when making predictions about an entity are more or less likely to distinguish between human and nonhuman agents on the dimension of intentionality. Participants responded to a series of five scenarios in which they chose between intentional and nonintentional actions for a human, a computer, and a robot. Results indicated that participants who chose quickly were more likely to distinguish human and nonhuman agents than participants who deliberated more over their responses. We suggest that the short-RT participants were employing a first-line default to distinguish between human intentionality and more mechanical nonhuman behavior, and that the slower, more deliberative participants engaged in deeper second-line reasoning that led them to change their predictions for the behavior of a human agent.
Daniel Levin 0001, Megan M. Saylor
HRI2
2008 Concepts about the capabilities of computers and robots: a test of the scope of adults' theory of mind
abstract
We have previously demonstrated that people apply fundamentally different concepts to mechanical agents and human agents, assuming that mechanical agents engage in more location-based, and feature-based behaviors whereas humans engage in more goal-based, and category-based behavior. We also found that attributions about anthropomorphic agents such as robots are very similar to those about computers, unless subjects are asked to attend closely to specific intentional-appearing behaviors. In the present studies, we ask whether subjects initially do not attribute intentionality to robots because they believe that temporary limits in current technology preclude real intelligent behavior. In addition, we ask whether a basic categorization as an artifact affords lessened attributions of intentionality. We find that subjects assume that robots created with future technology may become more intentional, but will not be fully equivalent to humans, and that even a fully human-controlled robot will not be as intentional as a human. These results suggest that subjects strongly distinguish intelligent agents based on intentionality, and that the basic living/mechanical distinction is powerful enough, even in adults, to make it difficult for adults to assent to the possibility that mechanical things can be fully intentional.
Daniel Levin 0001, Stephen S. Killingsworth, Megan M. Saylor
HRI3