Social Affective Neuroscience of Musical Rhythm - Dr. Rie Asano CIMTR Lecture 2024

Cambridge Institute for Music Therapy Research
11 Jun 202452:10

Summary

TLDRDr. Ria Asano presents on the social affective neuroscience of musical rhythm, exploring how music intertwines social and emotional components, with rhythm playing a key role in movement and emotional contagion. She delves into hierarchical and social cognition in music, discussing the impact of rhythmic structures on emotional responses and social interaction. The lecture also touches on the use of hyperscanning in social neuroscience research, the importance of ecological validity in studying music's social effects, and the integration of computational and phenomenological perspectives on the mind.

Takeaways

  • 🎓 Dr. Rano is presenting on the social affective Neuroscience of musical rhythm, a topic that intersects her background in language, music, and cognitive science.
  • 🎵 The social and affective components of music are intertwined and inseparable, with emotional contagion being a key aspect of musical experiences.
  • 💃 Music can be seen as movement-based emotional engagement, with rhythm playing a significant role in engaging motor systems of the brain and inducing group movement.
  • 🎶 Hierarchical cognition and social cognition are linked through the effect of musical rhythm, with hierarchical metrical structures influencing emotional responses.
  • 👀 Expectancy and prediction error are important mechanisms in the perception of rhythm, with syncopation being a key example of how musical rhythm can create tension and relaxation.
  • 🤝 Entrainment is a central mechanism for rhythmic interaction, both within individuals and between individuals in social settings.
  • 🧠 Hyperscanning is a key method in social Neuroscience research, allowing for the simultaneous measurement of multiple brains' activity, which is used to study interpersonal synchrony in musical contexts.
  • 🌐 The integration of different brain, body imaging, and behavioral methods is crucial for studying musical rhythm and effect, capturing the multidimensionality of responses during social interaction.
  • 🏞 The ecological validity of research is a central challenge for social affective Neuroscience, with the need to develop experimental settings that reflect naturalistic social interactions.
  • 🔄 A three-stage cycle framework integrating classical laboratory, naturalistic laboratory, and real-life research is suggested for advancing understanding in the field.
  • 🎨 The Mind-Body problem is still relevant, but the talk also introduces the Mind-Mind problem, highlighting the need to consider both the computational and phenomenological aspects of the mind in the study of musical rhythm.

Q & A

  • What is the main topic of Dr. Ria Asano's presentation?

    -Dr. Ria Asano's presentation focuses on the social affective neuroscience of musical rhythm.

  • What are the five research areas of the Cambrid Institute for Music Therapy Research?

    -The five research areas are aging and dementia, neuroscience of music therapy, neurorehabilitation and stroke, mental health, and children, young people, and families.

  • What degrees does Dr. Ria Asano hold and from which institutions?

    -Dr. Ria Asano holds a bachelor's degree in foreign study and linguistics from a university in Japan and a master's degree in musicology, German linguistics, and phonetics from the University of Cologne in Germany. She also completed her PhD at the University of Cologne.

  • What is the relationship between social and affective components in music according to Dr. Asano?

    -Dr. Asano explains that social and affective components in music are intertwined and cannot be separated. Music can cause emotional contagion and create a feeling of social and emotional connection between individuals.

  • How does musical rhythm engage the brain's motor systems?

    -Listening to musical rhythm engages the motor systems of the brain, including cortical structures such as the premotor cortex, supplementary and primary motor areas, as well as subcortical structures like the basal ganglia and cerebellum.

  • What is syncopation and how does it affect listeners?

    -Syncopation involves accentuating a metrically weak beat instead of a strong one, leading to prediction errors and a pleasurable drive towards body movement, known as groove.

  • What is entrainment and how does it relate to social interactions in music?

    -Entrainment is the process by which independent rhythmic systems interact and synchronize with each other. In music, this occurs when people make music or dance together, promoting prosocial effects through interpersonal synchrony.

  • How does the hierarchical metrical structure of music affect tension and relaxation patterns?

    -The hierarchical metrical structure, which consists of regular patterns of strong and weak beats, affects tension and relaxation patterns in music. Expectancy violations, such as syncopation, can create tension, while alignment with the expected beats causes relaxation.

  • What is the significance of hyperscanning in social neuroscience research?

    -Hyperscanning allows researchers to measure brain activity in multiple individuals simultaneously, providing insights into synchrony of brain activities within and between interacting individuals. It is used to study interpersonal synchrony and coordination in social neuroscience of music.

  • Why is ecological validity important in social affective neuroscience research?

    -Ecological validity is crucial because social and emotional components of cognition cannot be isolated from real-life contexts. Research settings that closely resemble real-life situations provide more accurate insights into how people experience and interact with music in social settings.

Outlines

00:00

🎓 Introduction to Social Neuroscience of Musical Rhythm

The lecture begins with an introduction to the topic of social neuroscience, focusing on the effects of musical rhythm. Dr. Riano is introduced as the presenter, and Dr. Smof provides background on the Cambridge Institute for Music Therapy Research, highlighting its establishment in 2017 and its five research areas. Dr. Riano's academic background is outlined, including her work in comparative biomusicology and her current research interests in the social affective neuroscience of musical rhythm. The talk's outline is presented, which includes theoretical research, methods, and the broader implications for computational and phenomenological mind perspectives.

05:01

🎵 The Interplay of Social and Affective Components in Music

This paragraph delves into the intricate relationship between social and affective components in music, emphasizing that they cannot be separated. Examples such as emotional contagion, joint music-making, and attachment-related effects are given to illustrate the social and emotional connections music can create. The role of movement and musical rhythm in emotional engagement is highlighted, with the motor system's involvement in listening to rhythm and the potential for rhythm to mediate emotional alignment between individuals through movement synchronization.

10:04

🎶 Hierarchical and Social Cognition in Musical Rhythm

The discussion shifts to the hierarchical and social cognition aspects of musical rhythm. The hierarchical metrical structure of music and its impact on rhythmic interpretation are explained. The paragraph provides examples of how different hierarchical structures can lead to varied interpretations of the same rhythmic sequence, affecting the tension and relaxation patterns experienced by listeners. The role of expectancy and prediction error in generating emotional responses such as groove is explored, with syncopation as a key example of manipulating predictive processing in rhythm.

15:05

🤝 Entrainment and Social Interaction in Musical Rhythm

Entrainment, the process of rhythmic synchronization between individuals, is introduced as a central mechanism linking the social and affective dimensions of musical rhythm. The paragraph explains how entrainment can promote pro-social effects and align emotional states between individuals through movement synchronization. The potential of entrainment as a mechanism that connects social and hierarchical aspects of musical rhythm is discussed, highlighting its occurrence at various levels of hierarchical metrical structure.

20:08

🧠 Hyperscanning and Social Neuroscience of Music

The paragraph introduces hyperscanning, a technique used in social neuroscience to measure the brain activity of multiple individuals simultaneously. It discusses the application of hyperscanning in studying interpersonal synchrony and coordination in the context of music. The importance of integrating different methods, including brain, body imaging, and behavioral measures, is emphasized to capture the multi-dimensionality and dynamics of affective responses during rhythmic social interaction.

25:08

🌳 Ecological Validity in Social Affective Neuroscience

The importance of ecological validity in research is highlighted, discussing the need for experimental settings that reflect real-life social and emotional contexts. The limitations of traditional laboratory settings are critiqued for their lack of real-life context, and the benefits of naturalistic and real-life research approaches are explored. A framework integrating classical laboratory, naturalistic laboratory, and real-life research is suggested to inform each other and advance understanding in a complementary manner.

30:08

🎼 The Mind-Mind Problem and Situated Cognition in Music

The talk concludes with a discussion on the 'Mind-Mind problem,' which addresses the relationship between mental phenomena and physical phenomena in the context of social affective neuroscience of musical rhythm. The computational mind, focused on information processing, and the phenomenological mind, concerned with personal experience, are contrasted. The limitations of the information processing approach are acknowledged, and the situated cognition approach, which emphasizes the brain-body-environment interaction, is introduced as a more holistic perspective for understanding musical rhythm's effects.

35:12

🔄 Linking Perspectives on Musical Rhythm and Social Interaction

The final paragraph synthesizes the discussion by proposing potential linking hypotheses between different cognitive approaches to musical rhythm and social interaction. It suggests that entrainment could be a mechanism that connects rhythmic effects and social interaction across different theoretical perspectives. The importance of integrating music theoretical research, empirical laboratory research, and real-life research, such as in music therapy, is emphasized to gain a comprehensive understanding of the dynamics involved.

40:13

🤔 Open Discussion on Music Therapy and Rhythmic Interaction

The script concludes with an open discussion on the integration of real-life and laboratory research, particularly in the context of music therapy. The potential for studying expectancy violation, a key concept in music therapy, in a laboratory setting is suggested. The role of entrainment in shared emotional experiences and its relevance to music therapy is highlighted, with a call for more research in this area.

Mindmap

Keywords

💡Social Affective Neuroscience

Social Affective Neuroscience is an interdisciplinary field that explores the neural mechanisms underlying social interactions and emotional processes. In the context of the video, it is central to understanding how musical rhythm influences social behaviors and emotional responses. The script discusses the role of this field in studying the social and emotional effects of music, such as emotional contagion and attachment-related effects.

💡Musical Rhythm

Musical Rhythm refers to the organized pattern of beats and accents in music that create a sense of temporal structure. The script emphasizes the importance of rhythm in engaging motor systems of the brain and its role in social and emotional interactions through movement synchronization. It is a key component in the social affective neuroscience of music, as it can mediate the alignment of emotional states between individuals.

💡Hierarchical Cognition

Hierarchical Cognition involves the processing of information in a structured, layered manner. In the script, hierarchical cognition is related to the way individuals process temporal sequences within music, such as the hierarchical metrical structure that determines how we interpret rhythmic sequences. This concept is essential for understanding the cognitive processes behind rhythmic interpretation and its emotional impact.

💡Social Cognition

Social Cognition is the study of how individuals perceive, process, and attribute meaning to social information. The script discusses social cognition in the context of social interaction between individuals, particularly how musical rhythm can influence social practices and interactions, such as joint music making and emotional contagion.

💡Emotional Contagion

Emotional Contagion is the phenomenon where individuals 'catch' or mirror the emotions of others, leading to similar emotional states. In the video script, it is mentioned as an example of how music can transmit emotions from performers to listeners, highlighting the social and affective power of musical rhythm.

💡Syncopation

Syncopation is a rhythmic technique in music where the regular pattern of beats is disrupted by placing accents on weak beats, creating a sense of surprise or tension. The script explains syncopation as a generator of prediction error, which can lead to the pleasurable sensation of Groove and is related to the degree of expectation violation.

💡Groove

Groove refers to the sense of rhythmic 'feel' or 'pocket' in music that compels people to move or tap along. The script discusses groove in relation to the hierarchical structure of rhythm and syncopation, suggesting that middle degrees of syncopation are most associated with positive affective responses like groove.

💡Entrainment

Entrainment is the process of synchronizing one's rhythmic movements or cycles with those of another individual or group. The script describes social entrainment as a central mechanism for interpersonal rhythmic interaction, which can promote positive effects and align emotional states between individuals.

💡Hierarchical Metrical Structure

Hierarchical Metrical Structure is the organization of rhythmic elements into a hierarchy of strong and weak beats at different levels. The script uses this concept to explain how the interpretation of rhythmic sequences in music depends on the underlying hierarchical representation, which influences the experience of tension and relaxation.

💡Ecological Validity

Ecological Validity refers to the extent to which experimental conditions and results can be generalized to real-world situations. The script discusses the importance of ecological validity in studying the social affective neuroscience of musical rhythm, emphasizing the need for research settings that more closely resemble naturalistic social interactions.

💡Mobile Brain-Body Imaging (MOBI)

Mobile Brain-Body Imaging (MOBI) is a technology that allows for the measurement of brain activity in freely moving participants. The script highlights MOBI as a significant advancement in empirical research, offering insights into brain dynamics during active and interactive behaviors, which is crucial for studying rhythmic social interaction in ecologically valid settings.

Highlights

Introduction of Dr. Rano's lecture on the social affective Neuroscience of musical rhythm.

Dr. Smof provides background on the Cambridge Institute for Music Therapy Research and its five research areas.

Dr. Rano's academic journey from Linguistics to Musicology and her PhD in comparative biomusicology.

The intertwining of social and affective components in music, emphasizing emotional contagion and attachment effects.

The role of movement and musical rhythm in emotional engagement and social interaction.

Hierarchical cognition and social cognition's connection through the affective neuroscience of musical rhythm.

Explanation of hierarchical metrical structure in music and its impact on rhythmic interpretation.

Demonstration of how different hierarchical structures can alter the perception of rhythm.

The concept of syncopation and its effect on creating prediction errors and groove in music.

Entrainment as a central mechanism for rhythmic interaction and its relation to positive social effects.

Hyperscanning technique's role in studying synchrony of brain activity in social neuroscience.

Importance of integrating brain, body, and behavioral methods for a comprehensive study of musical rhythm and affect.

Discussion on ecological validity in social affective neuroscience and the need for real-life experimental settings.

The three-stage cycle framework integrating classical laboratory, naturalistic laboratory, and real-life research.

Potential of music research to advance real-life approaches due to the continuum of ecological interaction in music.

The Mind-Body problem and the extension to the Mind-Mind problem in the context of social affective neuroscience of music.

Dr. Rano's closing thoughts on integrating music theoretical research, empirical research, and real-life research for a comprehensive understanding.

Transcripts

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hello everyone welcome to today's

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lecture we will have Riano Dr Riano

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presenting to us today presenting about

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social effective Neuroscience of musical

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Rhythm we'll put in the link to sign up

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for our newsletter in the chat and you

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will be up to date for any upcoming

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lectures like that so I am very proud to

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be introducing Dr Rano and but first I

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want to pass it over to Dr smof a senior

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fellow researcher here at Sim who's

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going to give a bit more

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background yes hello and welcome

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everybody uh from me and thanks for

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joining uh tonight at this uh on this

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bank holiday in the UK I'm clevens smov

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I'm a senior research fellow here at our

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cambrid Institute for music therapy

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research and um our Institute was

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founded in 2017 and we currently have I

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think 13 staff members working on

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different different research projects uh

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which fall into our five research areas

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which are at the aging and dementia

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Neuroscience of music therapy neuro

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Rehabilitation and stroke mental health

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children young people and families and

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we also have a very active PhD student

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community so if you're interested in

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pursuing a PhD in music therapy please

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do get in touch with

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us and yeah tonight it is my pleasure to

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welcome and introduce my former

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colleague and co-author Dr Ria asano who

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is currently with the max Blan Institute

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for empirical Aesthetics in Frankfurt

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Germany and also with the advanced

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comprehensive research organization at

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uh Teo University

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Japan and uh Rio R earned a bachelor

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degree in foreign study and Linguistics

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in Japan and then completed a master's

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degree in musicology uh German

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Linguistics and phonetics at the

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University of of cologne in

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Germany and there is also where she did

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her PhD which was about principled

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explanations in comparative

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biomusicology and for that she

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introduced a comparative framework

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investigating the relationship between

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language and music from cognitive

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science and biological

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perspectives and uh Ria has many

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research interests uh for example syntax

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in language music and action or the

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relationship between linguistic

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syntactic processing and musical Rhythm

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and tonight she will give a presentation

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about one of our more recent I'd say uh

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research interests uh which are the

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social effective Neuroscience of musical

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Rhythm to which I'm very much looking

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forward to so without further Ado um my

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pleasure to hand over to you

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Ria thank you very much then um I will

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share my

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screen uh this

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one okay can you see the presentation

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yeah

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great okay um thank you very much for

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inviting me to this lecture series um

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today I will give you an overview of the

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social affective Neuroscience of musical

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Rhythm and usually I'm actually language

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and music person uh but today as Clemens

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uh said right now I will talk about uh

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my relatively new interest uh in the

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research um yeah so social effective

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Neuroscience of musical Rhythm and I

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hope you find some aspects which are

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interesting for music therapy research

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and

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practice and this is the outline of my

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talk um in today's talk I will first

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introduce uh music theoretical research

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on hierarchical and social component of

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musical Rhythm then um I will give a

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quick overview of the methods relevant

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for the social affective Neuroscience of

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musical Rhythm and introduce the

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framework uh finally I will uh discuss a

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big picture behind the social affective

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Neuroscience of musical Rhythm

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concerning computational mind and

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phenomenological

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mind okay let me begin with the

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theoretical

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research and first of all it is

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important to note that social and

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affective components are intertwined in

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music and cannot be

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separated and one example is emotional

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contagion caused by music as you may

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know from your experience um of a

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concert emotion can be transmitted from

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the performers to uh the listeners also

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joint music making is a social affective

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medium uh in which emotional contagion

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between co-performers plays a crucial

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role another example is attachment

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related effect um evoked by music um

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attachment created effect is a feeling

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of socially and emotionally linked to

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someone else so similar to grooming or

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um nursing of Offspring music can

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emotionally connect

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individual so the tight link between

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social and affective components of music

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has kept being emphasized over the

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decades but the question is um how do

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music or features affect and social

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interaction relate to each other

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um to tackle this uh issue one important

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com component linking emotional and

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social aspect of music is movement

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because music can be seen as a movement

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based emotional

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engagement and in this context musical

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Rhythm plays the most significant role

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because of its tight Ling to

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movement for example just listening to

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musical Rhythm engages motor systems of

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the brain uh this include cortical

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structures such as premotor cortex U

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supplementary and prary motor area as

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well as uh subcortical structur such as

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basa gangria and

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cerebelum um myal Rhythm also uh induces

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Group which is a pleasurable drive

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toward body

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movement and the motor system of the

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brain is strongly engaged or modulated

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when listening to High group

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music also Musical M can mediate

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alignment of emotional states between

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individuals via movement synchronization

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in a group and in a caregiver um child

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diet so um the study of the social

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acceptive component of musical Rhythm

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Can Shed light on the link between

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musical features effect and social

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interaction because uh music is both

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complex hierarchical structured sequence

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and social practice

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uh musical rhythm is investigated from

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the perspective of hierarchical

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cognition and social

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cognition here hierarchical cognition

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deals with hierarchical processing of

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temporal sequence within the individual

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while social cognition concerns um

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social interaction between

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individuals well those two domains of

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musical Rhythm seem very different from

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each other but they have an important

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commonality and her charism structure of

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music and jointly coordinated rhythmic

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actions in music making both R to affect

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including emotion mood Pro sociality

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approach avoidance motivation and

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pattern of tension and

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relaxation so now uh let me discuss how

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hierarchical and social aspects of

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musical Rhythm relate to each other via

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effect the most uh basic level of hker

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rythmic structure in music is

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hierarchical metrical structure which

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represents a regular pattern of strong

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and weak Beats at different hierarchical

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levels okay um let's listen to this very

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simple

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[Music]

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example okay um those dots uh you can

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see here um represents the metrical

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structure of this simple rhythmic

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sequence first uh the beats are assigned

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at the first level and here the interbit

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interval corresponds to the onset of the

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shortest notes here are eight notes in

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this case um then um those beats are

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grouped together and the strongest beat

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of each group is projected onto the

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higher level one of those levels

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represents the beat to which we clap our

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hands so the interpretation of rythmic

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sequence in music depends on um the

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underlying hierarchical

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representation let me introduce another

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example to strengthen this idea please

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listen to this example and try to clap

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your hands at regular

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intervals I hope you did it um okay so

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this was an some except of Moz Piano

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Sonata number

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331 in a terrible Med quality I'm sorry

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for this um well I guess that most of

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you have clapped your hands like this or

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maybe

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[Music]

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faster okay I took a slow but maybe you

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had double double Tempo uh it's also

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possible um but this is also a possible

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[Music]

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interpretation I don't know if some of

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you had this interpretation uh it sounds

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funny but uh it's also possible

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interpretation oops sorry um those two

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interpretation are based on two

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different hierarchical structures um as

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you can see here um so the same rhythmic

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sequence can be interpreted differently

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according to the underlying Hier

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structures and those two interpretations

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um are based on the same musical

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sequence but they feel very differently

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right um this is because strong beats

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correspond to the note onsets in the

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first representation as first

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interpretation sorry while there are

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some strong um beads on the empty slot

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in the second

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interpretation um okay those uh points

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where the strong beats do not correspond

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um to the onset cause tension like

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here and then the next place where the

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strong beats correspond to the note

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onset called Su

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relaxation so the tangent relaxation

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patterns of those two interpretations um

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are different let's listen to those two

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interpretations once more with this

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[Music]

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graph so all clicks corresponded to a

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note onsets

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[Music]

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here there were some um clicks that were

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uh not on the um note on sets so there

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was some tension I hope now it is clear

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when I say that the interpretation of a

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rhythmic sequence in music depends on

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the underlying H representation I also

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hope that it uh that now it is clear um

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how the har metrical structure relates

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to tangent relaxation pattern which is

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one component of

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effect so now uh what is uh the

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mechanism underlying the generation of

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tangent relaxation patterns based on um

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Hier chometric

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structures here expectancy is a

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candidate mechanism because the

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manipulation of expectancy is known to

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uh leads to effective responses such as

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Groove in the current music cognition

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research um depending on your

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theoretical approach this issue is also

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discussed in terms of predictive

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processing in the domain of Rhythm

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syncopation involves the manipulation of

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predictive processing and is one

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phenomenal known as causing Groove and

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syncopation is generated by an

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accentuation of a metrically weak beat

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instead of a strong beat as you can see

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here uh because those two nodes are tied

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the note onset occurs on the weak

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beat instead of on the strong

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beat because we usually expect that an

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accentuation occurs on a strong beit and

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accentuation of a weak bit leads to a

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prediction error also syncopation occurs

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um in different degrees and can lead to

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different degrees of prediction error

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Okay let's listen to this example

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sequence first

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the degrees of syncopation are

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determined by the

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syncopation index based on her

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geometrical structure uh first of all um

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the strength of the synop syncopated

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rhythm is calculated as the weight of R

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this one minus the weight of n so this

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one so the syncopation in index of the

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rthm a is 3 minus 2 =

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1 and and the syncopation index of the

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Rhythm C is

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3- 1 = 2 this means that the Rhythm a is

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less syncopated than the RM

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C and let's listen to this example once

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again

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maybe you notice that the surprisal

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effect is a bit larger in the Rhythm C

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than a and also the syncopation index of

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the RM two rym B is minus two so this

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means that the rym B is not

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syncopated Okay let's listen to some

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other examples

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[Music]

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[Music]

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[Music]

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uh I hope you noticed that the rism get

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more and more unexpected uh this is

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because the syncopation index of the

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Rhythm uh

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increased and several studies show that

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there is an inverted use shaped

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relationship between different degrees

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of syncopation and positive effective

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measur such as Groove uh middle degrees

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of syncopation were most associated with

play16:18

positive effect while the lowest and

play16:21

highest um extremes of syncopation

play16:23

degree um show the lowest rating of

play16:26

positive effect um middle degree of

play16:29

syncopation are also associated with the

play16:32

brain networks linked to bit perception

play16:34

and entainment reward as well as uh

play16:37

prediction um so maybe you wanted to

play16:40

move to The rhythms in the middle of the

play16:42

exam examples I saw some of you did uh

play16:46

more than to The rhythms at the

play16:48

beginning of uh or the

play16:52

end

play16:54

okay so far um research on Groove uh

play16:58

mainly focused on the relationship

play16:59

between musical structure and affective

play17:02

responses within an

play17:03

individual uh but group also had social

play17:07

component for example um Groove

play17:10

generated by syncopation affords active

play17:13

participation uh because it invites you

play17:15

to fill in the prediction Gap um through

play17:18

your own body movements so this is the

play17:21

movement that you wanted to do um during

play17:24

listening to this middle syncopation

play17:26

Rhythm uh so this is why you um right

play17:30

this is also why you would like to uh

play17:32

moving along um groovy

play17:36

music

play17:37

okay okay so far uh we saw how

play17:41

hierarchical structure of rism can

play17:43

relate to effect and positive uh

play17:45

possibly link to social interaction via

play17:48

Groove um now let me quickly introduce

play17:51

um how social aspect of Rhythm can

play17:53

relate to effect and possibly to um

play17:56

hierarchical aspect

play17:59

here um entrainment is a central

play18:02

mechanism entrainment is the process by

play18:05

which um independent rhythmical systems

play18:08

interact with each

play18:10

other and can be observed uh in several

play18:13

biological physical and social context

play18:16

in the context of physics an example of

play18:19

entrainment is this

play19:10

um here independent rant systems U

play19:13

metronomes in this case interacted with

play19:15

each other and

play19:19

synchronized um in the context of Music

play19:21

enterment occurs in making music or

play19:23

dancing together in a group and here

play19:27

each individual is is a rhythmic system

play19:30

and enterment happens through an

play19:32

interaction between individuals this

play19:34

kind of enterment is called uh is called

play19:37

social

play19:39

entrainment several experimental studies

play19:41

shows that being in synchrony with a

play19:44

group induces positive effect for

play19:46

example interpersonal synchrony via

play19:48

social entainment promotes pro-social

play19:51

effect this can be Ed by aligning

play19:55

representations of self and

play19:57

other

play20:00

synchronization finally entainment

play20:02

occurs at all levels of high chometric

play20:05

structure um taking the mo pianos

play20:08

example um if you have clapped your hand

play20:10

faster than my example was then you have

play20:13

entrained to the lower level of har

play20:15

metrical structure so entrainment is a

play20:18

potential mechanism that links social

play20:21

and heal component of musical

play20:24

Rhythm so um to conclude the theoretical

play20:27

part of this talk um hierarchical

play20:29

cognition and social cognition are

play20:32

linked via effect from a perspective of

play20:34

hierarchical cognition interpretation of

play20:37

musical Rhythm depends on underlying

play20:39

hierarchical metrical structure based on

play20:42

hierarchical metrical structure several

play20:45

degrees of prediction error can be

play20:48

created as we saw it with the example of

play20:51

syncopation the degree of prediction

play20:54

error is associated with positive effect

play20:56

such as Groove and group can act as an

play21:00

interface between hierarchical and

play21:02

social component of musical Rhythm

play21:05

because uh of its participatory

play21:08

nature from a perspective of social

play21:10

cognition entainment is a central

play21:12

mechanism for um inter individual

play21:15

rhythmic interaction enterment is also

play21:17

associated with positive effect and

play21:20

enterment can act as an interface

play21:22

between social and hierarchical

play21:24

component because it can happen at all

play21:27

levels of hierarchical metrical

play21:31

structure so um now let me continue with

play21:34

experimental research on rmic social

play21:37

interaction uh which continues making

play21:39

remarkable progress um here I will give

play21:43

you an overview of methods and current

play21:48

discussions um one method which plays a

play21:51

central role for social Neuroscience

play21:53

research is

play21:54

hyperscanning and the hyperscanning

play21:56

technique allows researchers um to

play21:59

measure activity of multiple brains

play22:02

simultaneously as you can see

play22:06

here with this technique for example um

play22:09

it is possible to study synchrony of

play22:12

brain activity activities within and

play22:15

between interacting individuals

play22:17

hyperscanning is also used in Social

play22:19

Neuroscience of music to study

play22:21

interpersonal synchrony and

play22:23

coordination but experimental research

play22:26

on rhythmic social interaction often um

play22:28

go separate ways from emotion research

play22:31

so approaches underlying both aspects in

play22:34

an experimental paradigms are very

play22:38

rare but good news is that there is

play22:40

already some effort to investigate

play22:42

effective component in social

play22:44

interaction of course uh we need

play22:47

significantly more uh but at least there

play22:49

is some

play22:50

effort example includes research on

play22:53

romantic kissing interpersonal touch

play22:56

music therapeutic interaction music

play22:58

Ensemble performance and music listening

play23:01

of concert audience um those studies uh

play23:05

show that there is a higher degree of

play23:07

synchrony in the brain rhythms of two or

play23:10

more people during social effective

play23:15

setting in addition to the development

play23:18

development of hypers scanic paradigms

play23:21

um it is important to integrate

play23:23

different brain body Imaging and

play23:25

behavioral methods to study Musical rism

play23:27

and effect and by integrating the

play23:30

measures of the brain and the body we

play23:33

can investigate the brain as one part of

play23:35

the body generating behaviors situated

play23:39

in the environment and interacting with

play23:43

others also the combination of um neural

play23:48

physiological and behavioral measures is

play23:50

important to capture multiple

play23:52

dimensionalities and dynamics of

play23:55

effective responses during rhythmic

play23:57

social interaction in in their full

play23:59

complexity examples of different body

play24:02

Imaging and behavioral methods are

play24:05

physiological measures um such as heart

play24:08

rate computational emotion recognition

play24:11

using facial cues computational um

play24:14

analysis of um uh emotion expression

play24:18

based on body posture and

play24:21

gesture and continuous measurement of

play24:24

self-reported emotion

play24:28

especially um mobile brain Imaging

play24:31

called Mobi plays a central role for the

play24:34

progress of um Empirical research in the

play24:36

social affective Neuroscience of musical

play24:38

Rhythm um in contrast to the

play24:41

conventional Imaging Technologies um M

play24:44

Technologies allow participants to uh

play24:46

move freely so um they provide new

play24:49

insights into the brain Dynamics in

play24:51

actively behaving and interactive acting

play24:54

agents um here you can see an example of

play24:58

traditional laboratory setting as you

play25:00

can see the participant is tied to

play25:04

devices with a number of cables um and

play25:08

they cannot freely move here on the

play25:10

other hand you can see a mob setting um

play25:14

as you can see um here the participants

play25:17

carry devices but they are small and

play25:20

portable so that the participants can

play25:22

freely move uh when you see those two

play25:25

pictures um maybe you could imagine that

play25:28

experimental setting could affect

play25:30

participants emotional

play25:33

states so um I think that uh research on

play25:37

effective component in rhythmic social

play25:39

interaction could profit from the recent

play25:42

technical progress in developing compact

play25:45

lightweight Wireless and easy to wear

play25:47

systems uh which facilitate research in

play25:49

ecologically uh valid

play25:52

settings ecological Varity is a now

play25:56

frequently discussed topic and is often

play25:59

associated with naturalistic stimul and

play26:02

responses as well as generalizability of

play26:05

the results to different context and uh

play26:08

groups of people um okay um now let me

play26:13

elaborate on the discussion about

play26:15

ecological validity because this is a

play26:18

central challenge for social affective

play26:20

Neuroscience of musical

play26:24

Rhythm real life approach um and

play26:28

ecological validity are Central to

play26:30

social affective miral sense of

play26:32

Music um because um social emotional uh

play26:36

component of cognition cannot be

play26:38

isolated from the real life context as

play26:41

you may know from your experience uh

play26:44

listening music

play26:45

alone with friends or in a concert make

play26:50

a large

play26:51

difference um so we need to develop

play26:54

experimental setting for studying

play26:56

effective component of musical rhythm in

play26:58

naturalistic social

play27:01

interaction especially because emotional

play27:04

experiences and social behaviors a

play27:06

dynamic context uh embedded tightly

play27:10

linked to actions and based on

play27:12

multimodal cues the traditional um

play27:15

static and controlled experimental

play27:17

paradigms without interpersonal

play27:19

interaction face a serious limitation um

play27:22

first classical laboratory setting often

play27:25

Limits The participants uh in their

play27:27

ability to act and uh interact with the

play27:31

environment so um it suppresses

play27:34

participant sense of agency and

play27:37

embodiment second it mostly um does not

play27:40

include contextual cues associated with

play27:43

specific situations so that the richness

play27:45

of the real life uh experiences is not

play27:49

considered we cannot ignore those

play27:51

limitations because um recently there is

play27:54

evidence showing that social and

play27:56

emotional processes differ in

play27:58

experiments with and without real life

play28:01

context or active social effective

play28:05

engagement uh but I also would like uh

play28:08

to add a note of caution um to this

play28:12

discussion um although there is a

play28:15

constantly increas increasing number of

play28:18

real world experimental paradigms uh

play28:20

claiming more naturalistic and

play28:22

ecologically more valid experimental

play28:25

settings naturalistic or ecologically

play28:28

valid and not clearly

play28:31

defined so the interpretation of those

play28:34

terms is based on nonobjective judgments

play28:37

and does not specify what perp inputs

play28:40

behaviors and environmental contexts are

play28:43

considered as real life

play28:45

phenomena for example an experiment

play28:48

experimental Paradigm using excepts from

play28:51

the existing piece of music it's

play28:54

sometimes regarded as more naturalistic

play28:56

or ecologically valid

play28:58

um of course this is true in terms of

play29:01

the stimul in comparison with the

play29:03

previously used um artificially create

play29:06

it simple and Abstract stimul but those

play29:09

experiments are still conducted in um a

play29:12

laboratory setting often with some

play29:14

movement restriction uh Which is far

play29:17

from real life music listening

play29:19

situations the use of uh more

play29:22

naturalistic ecologically valid stimuli

play29:24

is a necessary step toward and um toward

play29:28

and the reasonable approximation to the

play29:31

um real life approach but it is not

play29:36

sufficient also the real life approach

play29:39

is uh rather complementary to the

play29:41

classical paradigms uh in laboratory

play29:44

settings so the real life approach does

play29:46

not fully replace the classical

play29:49

laboratory approach this means that we

play29:51

need a framework integrating the

play29:53

classical laboratory and real life

play29:56

approach and one um such framework

play29:59

integrating the classical laboratory and

play30:01

real life research was suggested by

play30:03

matush and colleagues in 20 19 um this

play30:08

is a three-stage cycle framework and

play30:11

integrates uh classical laboratory

play30:13

research naturalistic laboratory

play30:15

research and fly naturalistic real life

play30:19

research and those three strategies uh

play30:22

build a cycle of um complementary and

play30:25

interrelated research strategies

play30:27

informing each

play30:28

other the classical laboratory research

play30:31

is based on um highly detailed

play30:34

hypothesis High experimental control and

play30:37

maximized statistical power and offers

play30:40

insights into neurocognitive mechanisms

play30:43

underlying perception and action and

play30:46

this is only possible because cognition

play30:48

is DEC composed and isolated into basic

play30:51

experiment testable components and the

play30:54

experimental designs are kept kept as

play30:57

simple as possible

play30:59

possible the naturalistic laboratory

play31:02

research is um considered as an

play31:05

intermediate point on the Continuum

play31:07

between the maximal experimental control

play31:10

and the maximum real life relevance um

play31:12

it studies cognition in laboratory

play31:14

settings resembling real real life

play31:17

situations so it keeps a certain degree

play31:21

of experimental control but uh considers

play31:24

a part of the complexity of real life

play31:27

situations

play31:29

then um the real life research um mainly

play31:32

refers to a research conducted in real

play31:35

life situations outside the rber Tre

play31:38

where no experimental control is

play31:41

possible um those three approaches U

play31:44

build a bir directional feedback cycle

play31:47

um similar to the exploration

play31:49

confirmation cycle um of the scientific

play31:51

method as may you know um uh for example

play31:56

um the prediction

play31:58

on cognitive mechanism uh confirmed by

play32:01

the classical laboratory research uh can

play32:04

be tested by the naturalistic laboratory

play32:06

research to validate if the results hold

play32:10

under more complex situations stimul or

play32:14

tasks emulating the real life

play32:17

setting then um the presence and or

play32:21

relevance of those neurocognitive

play32:23

mechanisms in the real life situations

play32:25

can be studied by the real life approach

play32:28

which in turn generates new uh questions

play32:31

that can be investigated by the

play32:33

classical um or naturalistic laboratory

play32:39

research and I think that this framework

play32:42

um can be applied in music uh research

play32:45

because music is a unique case offering

play32:47

a Continuum of ecological

play32:50

interaction as you can see here an

play32:53

individual um can interact with a

play32:56

recording a virtual

play32:58

partner another person in Duo um

play33:02

multiple people in The Ensemble and also

play33:06

with

play33:07

audience from a perspective of studying

play33:10

uh effective uh component in rhythmic

play33:12

social interaction the interaction with

play33:15

um a recording is um the most

play33:19

experimentally controlled and the least

play33:21

ecologically valid condition while the

play33:24

interaction uh with uh in a Duo or an

play33:28

ensemble is the most ecologically valid

play33:31

condition so music research has

play33:33

potential to advance a real life

play33:37

approach and also in music uh making at

play33:40

least in the western culture performers

play33:43

often interact based on the musical

play33:45

score so there is some degree of control

play33:48

uh even in ecological valid condition

play33:51

this makes it possible to predict

play33:53

performance effective responses in

play33:55

ecologically uh valid rhythmic social

play33:59

interaction as we saw in the theoretical

play34:01

session um music theory predicts

play34:05

effective responses based on the

play34:07

expectancy

play34:09

violations so um jointly performing

play34:12

musical phrase um containing expectancy

play34:15

violation such as syncopation could be

play34:18

associated with shared effective

play34:20

experience that can be potentially

play34:22

captured by experimental

play34:25

methods moreover um music provides an

play34:29

opportunity to study effect in real life

play34:32

Dynamic interactive settings for example

play34:35

um musical improvisation in a duo or an

play34:39

ensemble is a promising domain of

play34:42

Investigation because it requires a

play34:44

constant coordination between group

play34:47

members I think that uh musical

play34:49

improvisation is also uh very

play34:51

interesting from a music therapeutic

play34:54

perspective because improvisation is

play34:56

similar to every they communicative

play34:58

interactions and through musical

play35:01

improvisation patient and therapist can

play35:03

intuitively uh interact and build a

play35:06

social and affective relationship to

play35:08

each other um also there are some hypers

play35:11

scanning studies on interpers affective

play35:13

Dynamics in the brain during

play35:15

improvisation and music therapy session

play35:17

as Clemens

play35:20

did so um in some social affective

play35:24

Neuroscience of musical Rhythm can

play35:27

profit from the um combination of the

play35:30

hypers scanning methods the mobile um

play35:33

brain body Imaging mob the three um

play35:36

stage cycle framework and also from

play35:40

music theoretical work uh which predicts

play35:43

effective responses in ecologically

play35:45

valid rhythmic social

play35:51

interaction now let me close this talk

play35:55

uh by discussing the big picture uh be

play35:57

behind the theoretical and Empirical

play35:59

research I introduced so

play36:04

far many of you might know um the Mind

play36:08

Body problem um which which is about a

play36:12

relationship between mental phenomena

play36:14

and physical uh phenomena concerning the

play36:18

social affective Neuroscience of musical

play36:20

Rhythm um this Mind Body problem is

play36:23

certainly still

play36:26

relevant but I I'd like to point out

play36:28

another problem uh namely the Mind mind

play36:32

problem uh okay what's this as some of

play36:36

you might have noticed during my talk um

play36:38

social affective neurosci of music has

play36:41

to do with two types of the

play36:43

mind on the one hand um it deals with a

play36:47

computational mind so uh the mind as an

play36:50

information processing

play36:53

system maybe you remember that I talked

play36:56

about Hier structure underly musical

play36:58

Rhythm um here the idea is that rhythmic

play37:02

sequence is hierarchically processed and

play37:05

is represented as hcal structure and

play37:09

this is one example of information

play37:12

processing that the computational Mind

play37:14

does and the relationship between

play37:17

incoming information and mental

play37:20

representations is often determined by

play37:22

abstract

play37:23

rules according to this uh kind of

play37:26

information processing approach effect

play37:28

is a result of hierarchical processing

play37:31

and is based on hierarchical

play37:33

representations so uh my claim that your

play37:36

experience of tangent relaxation

play37:38

patterns of Rhythm sequence depends on

play37:40

the underlying hierarchical structures

play37:43

is based on this kind of information

play37:45

processing

play37:48

approach um one Central Assumption of

play37:51

the information processing approach is

play37:54

that this kind of par processing is

play37:56

universal to Human

play37:58

so according to cultural background for

play38:01

example we might represent different her

play38:04

structures but the fact that we

play38:06

hierarchically process rmic sequences

play38:09

and represent them as hierarchal

play38:11

structure is the same for all of

play38:14

us also um information processing

play38:17

approach assumes that cognitive process

play38:20

say um hierarchical processing can be

play38:22

isolated from the environmental social

play38:25

or bodily context

play38:29

as a consequence uh researchers try to

play38:32

experimentally test a cognitive process

play38:35

of interest and the highly controlled

play38:37

laboratory

play38:38

setting also they uh mainly focus on uh

play38:42

how a particular cognitive process is

play38:44

implemented in the

play38:46

brain here social component is also

play38:48

treated as a type of information

play38:51

processed by and represented in the

play38:55

brain on the other hand we also have a

play38:58

phenomenological mind for our personal

play39:01

experience of musical Rhythm this is

play39:04

particularly relevant uh for research on

play39:06

the effective component of musical

play39:08

Rhythm because effect effect is

play39:10

something that we personally

play39:12

experience I also think that uh from the

play39:15

perspective of music therapy the

play39:17

phenomenological mind plays a central

play39:20

role because each person has uh maybe

play39:23

different experience of Music theraputic

play39:25

sessions

play39:29

here um information processing approach

play39:31

faces limitations because um to study

play39:33

personal experience um the acting

play39:36

sensing and feeling bodies and the

play39:38

environment cannot be ignored so um to

play39:41

study the phenomenological mind another

play39:43

approach um called situated cognition is

play39:46

considered to be better um because it

play39:49

puts more emphasis on the role of the

play39:52

body and its Dynamic interaction with

play39:54

environment

play39:58

um situated cognition assumes that the

play40:01

brain body and environment are connected

play40:05

or even intertwined and

play40:08

Inseparable um according to this

play40:10

approach the brain is not a system

play40:13

processing and representing abstract

play40:15

rules or structures um the brain is a

play40:18

predictive system controlling the way

play40:20

the body interacts with the environment

play40:23

or one part of uh the acting sensing and

play40:27

feeling body coupled with the

play40:31

environment so a real life approach is

play40:35

of particular importance for situated

play40:37

cognition because it takes the full

play40:39

complexity of the environment um into

play40:43

account also um social interaction um as

play40:47

a part of the environment is a

play40:49

constituent part of the cognition so

play40:51

social component is not static abstract

play40:54

representation in the brain but a a part

play40:57

of dynamically changing

play41:01

environment and at first glance these

play41:04

approaches uh seem to be too different

play41:07

to be integrated into a a coherent

play41:10

framework but uh there are some possible

play41:13

uh linking hypothesis which can be

play41:15

investigated in the future

play41:18

research for example one um on the one

play41:22

hand uh information processing approach

play41:25

examines how expectancy is built and

play41:28

expectancy violation is processed on the

play41:31

basis of abstract rules on the other

play41:34

hand um there is also approach with

play41:37

insuated cognition which studies how

play41:40

prediction and prediction error are

play41:42

processed on the basis of our sensory

play41:44

motor systems and so of course it is an

play41:47

important difference if it deals with

play41:50

abstract rules or sensory motor systems

play41:53

but both approaches consider similar

play41:55

phenomena

play41:59

I also think that um entrainment could

play42:02

act as a potential mechanism linking

play42:05

musical Rhythm effect and social

play42:07

interaction beyond the borders of

play42:09

different approaches uh for information

play42:12

processing approach entainment is a

play42:15

neural mechanism associated with Hier

play42:17

structure building and here entainment

play42:20

is understood as F synchronization or

play42:23

coupling of neural

play42:24

oscillations and for situated cognition

play42:27

entainment is a central mechanism for

play42:30

the within and between individual

play42:32

sensory motor and social affective

play42:34

coupling um here entertainment can act

play42:37

as a basis for shared emotional

play42:39

experience between individuals because

play42:42

the brain the body and the environment

play42:44

um can be coupled VI entrainment and the

play42:47

emotional experience can be distributed

play42:49

across uh multiple

play42:53

people so in general um I think that the

play42:57

situation is very similar to this

play43:00

drawing uh from Asia this is my favorite

play43:03

drawing and as you can see here uh from

play43:06

one perspective uh for example here the

play43:10

other perspectives um do not make any

play43:13

sense but at the same time all those

play43:17

perspectives coexist and are linked to

play43:19

each other um so as this drawing shows I

play43:23

think that each approach captures

play43:25

cognition from its um ideosyncratic

play43:28

perspective and all approaches

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contribute to research on the

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relationship between musical Rhythm

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effect and social interaction in a

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complimentary

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Manner and um I think that uh we can

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link those perspectives once we

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integrate music theoretical research

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Empirical research in the laboratory and

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real life research such as music therapy

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research okay so um this is my end of my

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talk and I would like to thank my

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co-author CL smof K okanoya and Daniela

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zla who are currently supporting my

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research H and also my son now Bastian

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Ruma uh he is now nine months old who

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had slept long enough uh in the past

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week so that I was able to prepare for

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this talk and my husband uh who um

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always supports me okay and thank you

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very much to you and I'm happy to take

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uh any questions and critical comments

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and we were thinking about social

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interactive studies you want to say

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something about

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that how uh we um combine real life

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research and this laboratory research

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one you mean yeah um I think um yeah for

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example incubation index um is something

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that predicts um uh predict rhythmic um

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yeah rhythmic prediction and prediction

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error and this can be um studied in

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laboratory research um and there is

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already uh much research done on this

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and I think uh this is something that we

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can also see um in real life research

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for example if you interact how is you

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are how complex is your interaction with

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the others and then you can uh compare

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the result with the laboratory um

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research for example um or maybe in the

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um music therapy there is also something

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like expectancy violation which is

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manipulated I don't know um if there is

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such thing and then uh we can see okay

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can we uh take this uh expectancy

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violation from um yeah music therapy um

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technique can we um test this part in

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the laboratory for example um maybe this

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kind of thing um or also enterment um uh

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if people interact uh each other and

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there is some um synchronization of

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movement um um we know from the

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laboratory research that is also um

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relate yeah this is related to um uh

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some effective or Pro pro-social effect

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and then we can also check this kind of

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stuff in real life research um yeah and

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I think music research uh went in this

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direction uh very much with the

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entainment and effect but I think um we

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can also do something with expectancy

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violation and expectancy uh because we

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can um connect very well to music uh

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theoretical work and then there is not

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so much research done in that direction

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yeah some of you may know um because

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um Clem said I'm doing syntax research

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and this is um a very yeah a perspective

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from information processing as I told

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you because syntax uh is something uh

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yeah based on um abstract rules right

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maybe you know the name chsky and uh I'm

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from this part and then I got uh to this

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discour and discussion with sated

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cognition um as I was discussing all

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stuffs with Clemens and uh also York and

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uh yeah I I I find it's really important

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to um to consider um this the

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relationship between entainment um and

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the body environment and the Brain uh

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because many people are still doing

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research um uh on the brain entrainment

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or how we entrain to Medical stimuli or

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how we entrain each other on that level

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yes but uh not really um how we uh use

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or how entent can act as um a mechanism

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connecting people or connecting some

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experience uh between people how uh it

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distributes possibly um some effective

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experiences between interacting agents

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and I think um this is something that uh

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we can do and I think uh this is very

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relevant for music therapetic research

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because um if I understood it correctly

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um patient and um um therapist share

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some emotional experiences and there

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should be some mechanism um underlying

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this shared experience and um I think

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entrainment could be one uh that we can

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um uh we can um

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study yeah thank

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you I ask question syncopation As the

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metric for uh synchrony you've kind of

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mentioned this um there there's a

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u inverted U shape curve for positive

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aect do you think this is the same for

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entrainments um okay so I think um

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entrainment is something that also

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generates expectancy so this is why we

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can synchronize because we can expect

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when the other people um move right um

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and then syncopation is more about

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expectancy violation because on the mo

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at the moment where we expect the

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movement or sound of others we don't get

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it so um I think entainment and

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expectancy violation are also relate

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also relate to each other in terms of

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entainment as kind of expectancy

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generating mechanism and then

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syncopation relates to expectancy

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violation so um I think um yeah inment

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of of course connect people but the

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thing is uh if uh it's uh the all the

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story then we just crap our hand you

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know in very simple uh piles and then we

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are satisfied right but it's not the

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case but uh but music is more complex

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and if we um start interacting in some

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music impation or music interaction uh

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people um tend to somehow modulate the

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Rhythm so not just uh you know clapping

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hand in in your P um so so I think this

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is uh yeah those are both aspects that

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we have to uh consider if we um uh talk

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about positive effect or con connecting

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people with rhythm I think uh on one

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hand expectancy with the simple piles

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with ENT

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on the other hand something that um

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violates expectancy to um yeah to induce

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uh even more movements um yeah in this

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interaction so I think they are kind of

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uh uh different side of one coin

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yeah just to finish on that point you

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talked about Groove do you think if you

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can maximize Groove you could uh

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maximize I don't know

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entrainment yeah I think so yeah so this

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is um one prediction based on Theory

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because um yeah there is study showing

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that groovy music um um activates a

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motor area of the brain uh which also

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which is also um involved in in training

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uh on on body movement to music so I

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think um yeah it should somehow relate

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it um it should be somehow related

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yeah re says thank you but she sent it

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to the host and panelist but it was for

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everyone okay yeah thank you thank you

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everyone and see you soon

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Связанные теги
Musical RhythmSocial NeuroscienceEmotionSocial InteractionCognitive ScienceMusic TherapyLecture SeriesRhythmic EntrainmentSyncopationGroovePhenomenological Mind
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