Recent studies using an EEG frequency tagging approach have reported modulations of alpha, beta and theta bands at the stimulation frequency during nociceptive/painful thermal stimulation compared to non-nociceptive/non-painful vibrotactile stimulation. Prior expectations of the intensity of upcoming painful stimuli are known to strongly modulate the subjective experience of those stimuli. Thus, modulating the expectation of pain should result in a change in the modulation of oscillations if these factors are indeed linked.

 

In this study, Leu, Glineur and Liberati will modulate expectations of pain (low or high intensity) prior to delivering thermal cutaneous stimulation (low, medium or high intensity). They will record how intense participants expect the pain to be, and how intense they felt it to be, as well as record EEG to assess oscillatory differences across the expectation and intensity conditions.

 

The Stage 1 manuscript was reviewed over 5 rounds by 3 reviewers. Based on detailed responses to the reviewers’ comments and edits to the Stage 1 report, the recommender judged that the manuscript met the Stage 1 criteria and therefore awarded in-principle acceptance.

 

URL to the preregistered Stage 1 protocol: https://osf.io/y6fb8
 
Level of bias control achieved: Level 6. No part of the data or evidence that will be used to answer the research question yet exists and no part will be generated until after IPA.
 
List of eligible PCI RR-friendly journals:

 

• Advances in Cognitive Psychology
• F1000Research
• Brain and Neuroscience Advances
• Cortex
• Imaging Neuroscience
• In&Vertebrates
• NeuroImage: Reports
• Peer Community Journal
• PeerJ
• Psychology of Consciousness: Theory, Research and Practice
• Studia Psychologica
• Royal Society Open Science
   

References
 
1. Leu, C., Glineur, E. & Liberati, G. (2023). Cue-based modulation of pain stimulus expectation: do ongoing oscillations reflect changes in pain perception? In principle acceptance of Version 5 by Peer Community in Registered Reports. https://osf.io/y6fb8

The interplay of music, movement, and cultural experience shapes rhythm perception. From bouncing babies and children at play, to tapping, clapping, and dancing, music often triggers synchronous body movements that can influence how we process rhythm. And, at the same time, long-term exposure to specific musical traditions shapes how we perceive and interpret rhythms.

 

However, direct behavioural and neuroscientific evidence on how these processes occur remains scarce. In this programmatic submission, comprising two complementary Stage 2 reports, Guérin et al. (2024) will investigate how body movements shape the processing of auditory information, and how previous short-term motor practice and long-term cultural experience interact to shape neural and behavioural responses to rhythmic stimuli. The authors will record in separate sessions both  electroencephalography (EEG) and hand clapping, in response to rhythms from West/Central Africa. These recordings will be conducted before and after a session in which participants will clap/step to either a three or a four-beat metre that is expected to influence how they interpret a rhythm.

 

The first Stage 2 report, which will be conducted on African-enculturated participants, aims to demonstrate how body-movement pace flexibly imprints on human sensory processing. The authors build on various theoretical models that emphasise the role of motor production in metre perception, and predict that both neural and behavioural entrainment will improve following movement, matching the rhythmic pattern set by the previous body movements.

 

The second Stage 2 report aims to uncover how short-term motor practice and long-term cultural experience interact to shape responses to rhythmic stimuli, by integrating short-term motor practice and long-term cultural experience. For this, the authors will test separate groups of participants from distinct cultural backgrounds (African vs. Western-enculturated), which are predicted to show neural and behavioural differences in their preferred metric mapping before body movement, and expect that neural and behavioural entrainment will improve after movement, especially for the metre set by prior movements, and more significantly for the metre common in the participant's culture.

 

Together, the findings from the planned Stage 2 reports are expected to clarify how long-term cultural background and short-term motor practice imprint onto rhythm processing in humans. This research will enhance our understanding of how cultural experience, body movement, and neural plasticity interact in music processing.

 

The Stage 1 manuscript was evaluated over three rounds of in-depth review. Based on detailed responses to the reviewers' and recommender's comments, the recommender judged that the manuscript met the Stage 1 criteria and awarded in-principle acceptance (IPA).

 

URL to the preregistered Stage 1 protocol: https://osf.io/skuyc
 
Level of bias control achieved: Level 6. Data collection commenced during the later part of Stage 1 peer review; however, since no changes to the design were made after this point, the risk of bias due to prior data observation remains zero and the manuscript therefore qualifies for Level 6.
 
List of eligible PCI RR-friendly journals:

 

• Advances in Cognitive Psychology
• Brain and Neuroscience Advances
• Cortex
• Experimental Psychology
• Imaging Neuroscience
• In&Vertebrates
• NeuroImage: Reports
• Peer Community Journal
• PeerJ
• Psychology of Consciousness: Theory, Research, and Practice
• Royal Society Open Science
• Studia Psychologica
   

 

Guérin, S. M. R., Coulon, E., Lenc, T., Polak, R., Keller, P. E., & Nozaradan, S. (2024). Culture-Driven Neural Plasticity and Imprints of Body-Movement Pace on Musical Rhythm Processing. In principle acceptance of Version 2.1 by Peer Community in Registered Reports. https://osf.io/skuyc

Traditional Likert-type items are commonly used but can elicit response bias. An alternative approach, the forced-choice question, required respondents to rank order all items. Forced-choice questions boast some advantages but required advanced item response theory analysis to generate scores which are comparable across individuals and to evaluate the properties of those scales. However, there has been limited discussion of how to test differential item functioning (DIF) in these scales. In a previous study, Lee et al. (2021) proposed a method for testing DIF.

 

Here, Plantz et al. (2024) explore the implications of incorrect specification of anchors in DIF detection for forced choice items. The study proposes to use a Monte Carlo simulation which manipulates sample size, equality of sample size across groups, effect size, percentage of differentially functioning items, analysis approach, anchor set size, and percent of DIF blocks in the anchor set. This study aims to answer research questions about the type I error and power of DIF detection strategies under a variety of circumstances, both evaluating whether the results from Lee et al. (2021) generalize to misspecified models and expanding to evaluate new research questions. Results of this study will provide practical implications for DIF testing with forced-choice questions. An important limitation of the study is that it does not explore non-uniform DIF, only uniform DIF. Additionally, as with all simulation studies not all results can only apply to conditions which are simulated and so rely on the realistic selection of simulation conditions. The authors have selected conditions to match reality in circumstances where data is available, but relied on previous simulations in cases when data is not available. 

 

This Stage 1 manuscript was evaluated over two rounds of review by two reviewers with expertise in psychometrics. An additional round of review was completed by the recommender only. Based on the merits of the original submission and responsiveness of the authors to requests from the reviewers, the recommender judged that the manuscript met the Stage 1 criteria and therefore awarded in-principle acceptance (IPA).​

 

URL to the preregistered Stage 1 protocol: https://osf.io/p8awx
 
Level of bias control achieved: Level 6. No part of the data or evidence that will be used to answer the research question yet exists and no part will be generated until after IPA.
 
List of eligible PCI RR-friendly journals:
 

 

1. Lee, P., Joo, S.-H. & Stark, S. (2021). Detecting DIF in multidimensional forced choice measures using the Thurstonian Item Response Theory Model. Organizational Research Methods, 24, 739–771. https://doi.org/10.1177/1094428120959822

 

2. Plantz, J. W.,  Brown, A., Wright, K. & Flake, J. K. (2024). Detecting DIF in Forced-Choice Assessments: A Simulation Study Examining the Effect of Model Misspecification. In principle acceptance of Version 3 by Peer Community in Registered Reports. https://osf.io/p8awx

A growing body of research suggests that feelings of curiosity are associated with better memory for new information. However, while curiosity has been broadly defined as an instrinsic drive to obtain information, much of this existing work has focused on learning of trivia facts or factual information, settings where people have relatively little freedom to actively explore aspects of the environment that generate those feelings of curiosity. In this Stage 1 manuscript, O'Donoghue, Cen, and Gruber (2025) propose to conduct an experiment to examine whether feelings of curiosity promote the formation of cognitive maps when exploring novel spatial environments. Participants will encounter a series of virtual rooms for which they report their level of curiosity before exploring each room. The experiment will compare groups of participants who can actively explore for themselves vs. passive observers of the same exploration patterns. The proposed analyses will examine whether anticipatory curiosity leads to better memory for the spatial environments for both active or passive participants, or if benefits to memory are mediated by active participants' ability to act of their feelings of curiosity through their exploration of the environment. The findings of the study will provide new insight into the mechanisms through which anticipatory curiosity enhances memory.

 

The Stage 1 submission was evaluated by three expert reviewers. After three rounds of revision, the recommender determined that the manuscript met the Stage 1 criteria and awarded in-principle acceptance (IPA).

 

 

Level of bias control achieved: Level 6. No part of the data or evidence that will be used to answer the research question yet exists and no part will be generated until after IPA.

 

 

 

 

1. O'Donoghue, E. M., Cen, D., & Gruber, M. (2025). Disentangling the Influences of Curiosity and Active Exploration on Cognitive Map Formation. In principle acceptance of Version 3 by Peer Community in Registered Reports. https://osf.io/86r3x

The detour task, where an individual has to go around a see-through barrier in order to reach a goal, is one of the oldest paradigms used in animal cognition research (Kabadayi et al. 2018). While these previous tests have documented variation in the ability of animals to inhibit going straight for the visible reward, the cognitive underpinnings of this behaviour are as yet not fully understood. In the current study, Dewulf et al. (2025) assessed one of the specific cognitive processes that might be involved in this behaviour, the ability to identify the transparent object as a barrier. Through experimental procedures relying on large samples of individuals from four bird species, they compared the role of signal detection in inhibitory response performance in a detour task. The authors found that, unlike suggested in previous work with these four species (Regolin et al. 1994, Zucca et al. 2005), changing the markings on the barriers to potentially better match those experienced by individuals in their natural environments did not improve their performance. Nevertheless, the detailed further explorations suggest that in order to understand variation in how quickly individuals and species solve the detour task, it is important to consider that different cognitive processes are involved. Their work therefore provides a basis to better understand and further investigate why species might differ in their performance in the detour task.

 

The Stage 2 manuscript was evaluated over two rounds of in-depth review, the first round consisting of detailed comments from two reviewers and the second round consisting of a close read by the recommender. Based on detailed responses to the reviewers' comments, the recommender judged that the manuscript met the Stage 2 criteria and awarded a positive recommendation.

 

Level of bias control achieved: Level 6. No part of the data or evidence that was used to answer the research question was generated until after IPA.

 

URL to the preregistered Stage 1 protocol: https://osf.io/qvxgh
 
List of eligible PCI RR-friendly journals:
 

 

 

1. Dewulf, A., Garcia-Co, C., Müller, W., Madden, J.R., Martel, A., Lens, L. & Verbruggen, F. (2025). Do Ecological Valid Stop Signals Aid Detour Performance? A Comparison of Four Bird Species [Stage 2]. Acceptance of Version 3 by Peer Community in Registered Reports. https://osf.io/j2k9h
 

2. Kabadayi, C., Bobrowicz, K., & Osvath, M. (2018). The detour paradigm in animal cognition. Animal Cognition, 21, 21-35. https://doi.org/10.1007/s10071-017-1152-0

 

3. Regolin, L., Vallortigara, G., & Zanforlin, M. (1995). Object and spatial representations in detour problems by chicks. Animal Behaviour, 49, 195-199. https://doi.org/10.1016/0003-3472(95)80167-7

 

4. Zucca, P., Antonelli, F., & Vallortigara, G. (2005). Detour behaviour in three species of birds: quails (Coturnix sp.), herring gulls (Larus cachinnans) and canaries (Serinus canaria). Animal Cognition, 8, 122-128. https://doi.org/10.1007/s10071-004-0243-x