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Trust is often considered valuable in a broad range of relationships, from professional collaborations to personal partnerships. This article examines the possibility of trust in a robotic system. By posing the question “can a robot do a trust fall?”, an investigation on the issues embedded in designing trusting systems is presented, using methods and perspectives from philosophy and engineering. Posing such a question helps us understand the physicality and embodiment of trust, as well as the limits and resources of robotics. 

ICCC&#39;20

Can a Robot Do a Trust Fall? Absurdity as a Component of Human Intelligence and Embodiment

embodiment

robotics

trust

ICPR 2020 is the premier international conference on Pattern Recognition, gathering leading researchers from around the world to present their latest achievements in Pattern Analysis and Recognition, applied Artificial Intelligence and Machine Learning. The topic of the year is " Putting Artificial intelligence to work on Patterns". 
For the first time, ICPR has employed a two-round review process similar to journal submissions, with new papers allowed to be submitted in either the first or second round and papers submitted in the first round and not accepted allowed to be revised and re-submitted for second round review. 

In this edition of the **ICPR 2020** Conference, there are 1407 Oral/Poster presentations organized in five Tracks: 
- Artificial Intelligence, Machine Learning for Pattern Analysis; 
- Biometrics, Human Analysis and Behavior Understanding; Computer Vision, Robotics and Intelligent Systems; 
- Document and Media Analysis; and 
- Image and Signal Processing. 

The **ICPR 2020** Main Conference program also includes 7 Keynotes from prominent world-renowned scientists, 8 Tutorials, 28 Demos, 8 Challenges, 2 Panels, as well as an Industry/Sponsor Exhibition. In addition, 41 Workshops on a range of important current and emerging research topics complete the ICPR 2020 program. 


ICPR 2020

technical paper

Computational creativity is the art, science, philosophy and engineering of computational systems which, by taking on particular responsibilities, exhibit behaviours that unbiased observers would deem to be creative. As a field of research, this area is thriving, with progress in formalising what it means for software to be creative, along with many exciting and valuable applications of creative software in the sciences, the arts, literature, gaming and elsewhere.

The ICCC conference series organized by the Association for Computational Creativity since 2010 is the only scientific conference that focuses on computational creativity alone and also covers all aspects of it.


ICCC'20

The ICCC conference series organized by the Association for Computational Creativity since 2010 is the only scientific conference that focuses on computational creativity alone and also covers all aspects of it.
Computational creativity is the art, science, philosophy and engineering of computational systems which, by taking on particular responsibilities, exhibit behaviors that unbiased observers would deem to be creative. As a field of research, this area is thriving, with progress in formalizing what it means for software to be creative, along with many exciting and valuable applications of creative software in the sciences, the arts, literature, gaming and elsewhere.



In this paper we present R-VAE, a system designed for the exploration of latent spaces of musical rhythms. Unlike most previous work in rhythm modeling, R-VAE can be trained with small datasets, enabling rapid customization and exploration by individual users. R-VAE employs a data representation that encodes simple and compound meter rhythms. To the best of our knowledge, this is the first time that a network architecture has been used to encode rhythms with these characteristics, which are common in some modern popular music genres.

Creating Latent Spaces for Modern Music Genre Rhythms Using Minimal Training Data

The task of translating text to images holds some valid creative potential and has been the subject of study in Computational Creativity. In this paper, we present preliminary work focused on emoji translation. The work-in-progress system is based on techniques of information retrieval. We compare the performance of our system with three deep learning approaches using a text-to-emoji task. The preliminary results suggest some advantages of using a knowledge-base as opposed to a purely data-driven approach. This paper aims to situate the research, underline its relevance and attract valuable feedback for future developments.

An Approach for Text-to-Emoji Translation

A growing number of visual artists use neural networks in their practice. While these networks show promise as an art form, the lack of interpretability limits control to high level decisions based on observations. As an alternative, this research investigates the hand-crafting of network weights coupled with explanatory visualizations as a form of creative control over the internal and lower level processes. Two experimental tools were developed: one for parametrically generating first layer kernels and the second for editing multiple layers. These tools attempt to transform the hand-crafting of features into ``crafting'' in a richer sense by bringing network weights and visual materials into a tight feedback loop. The first author extensively engaged with these tools and these case studies serve to examine the affordances of internal interaction for art-making. The findings suggest that direct manipulation can be used intentionally and can yield insights into network representations, but that hand-crafting networks of greater sophistication would likely require a hybrid approach integrating data-driven methods.

Hand-Crafting Neural Networks for Art-Making

In human-human collaboration, gesture, verbal communications, and emotional responses are among the communication strategies that shape the interactions between collaborators to negotiate the contributions. Emotional feedback allows human collaborators to passively communicate their stance about the experience and convey their perception of the process without distracting the flow of the task. In human-human co-creative collaboration, participants inter-act and contribute to the task based on their perception of the collaboration over time.  In human-AI co-creativity, perceiving the cognitive and emotional state of the user in order to determine the dynamics of collaboration and decide what the agent should contribute to the artifact are two primary challenges of building effective co-creative Artificial Intelligence systems. This paper addresses these challenges with the design of a co-creative agent that can sense the user’s emotional state through facial expression.

ARNY: A Co-Creative System Design Based On Emotional Feedback

We present a general computational approach that enables a machine to generate a dance for any input music. We encode intuitive, flexible heuristics for what a 'good' dance is: the structure of the dance should align with the structure of the music. This flexibility allows the agent to discover creative dances. Human studies show that participants find our dances to be more creative and inspiring compared to meaningful baselines. We also evaluate how perception of creativity changes based on different presentations of the dance. Our code is available at github.com/purvaten/feel-the-music.

Feel The Music: Automatically Generating A Dance For An Input Song

Cross-Domain   creative   systems   can   learn   how   to creatively  map  and/or  transform  semantic  concepts from remote domains to their own. This project sets out to explore how a computational system relies on what it has learned from analyzing images to produce creative work.  Specifically, the system presented here extracts semantic content and themes from an input image and uses this knowledge to creatively generate emotionally-appropriate musical artifacts to accompany the image. An independent experiment was conducted to provide a performance assessment and direct future work.

Emotive Music Composition from Visual Sources of Inspiration

"Flow 1 is the first part of two pieces of music, Flow 1 and Flow 2 
While Flow 1 is more classically inspired, Flow 2 is more experimental.

This piece is influenced by the way in which humans, technology and intelligent systems work together to bring music into being. It works both as personal experiment in compositional style and as a way to bring together tradition and technology to explore the interplay between the composer, the tools they use and they ways in which we can explore this. In all works of this kind there are challenges that the composer has to deal with, using new technologies to invoke feelings is a difficult and thoughtful process. It is important to both be in the ‘flow’ of the music creation process and to understand the ways in which working technology can bend your practices to the ‘workflow’ of the system. 

"

Flow 1

Flow 2 is the second piece in the series of works and is a more experimental piece which is the counterpoint to Flow 1. These pieces are influenced by the way in which humans, technology and intelligent systems work together to bring music into being. It works both as personal experiment in compositional style and as a way to bring together tradition and technology to explore the interplay between the composer, the tools they use and they ways in which we can explore this. In all works of this kind there are challenges that the composer has to deal with, using new technologies to invoke feelings is a difficult and thoughtful process. It is important to both be in the ‘flow’ of the music creation process and to understand the ways in which working technology can bend your practices to the ‘workflow’ of the system.

Flow 2

Generative models for singing voice have been mostly concerned with the task of “singing voice synthesis,” i.e., to produce singing voice waveforms given musical scores and text lyrics. In this work, we explore a novel yet challenging alternative: singing voice generation without pre-assigned scores and lyrics, in both training and inference time. In particular, we outline three such generation schemes, and propose a pipeline to tackle these new tasks. Moreover, we implement such models using generative adversarial networks and evaluate them both objectively and subjectively.

Score and Lyrics-Free Singing Voice Generation

We consider the challenge of designing an artificial agent capable of interacting with humans in collaborative dialogue to produce creative, engaging narratives. Collaborative dialogue is distinct from chit-chat in that it is knowledge building, each utterance provides just enough information to add specificity and reduce ambiguity without limiting the conversation. We use concepts from information theory to define a narrative arc function which models dialogue progression. We demonstrate that this function can be used to modulate a generative conversation model and make it produce more interesting dialogues, compared to baseline outputs. We focus on two modes of modulation: reveal and conceal. Empirically, we show how the narrative arc function can model existing dialogues and shape conversation models towards either mode. We conclude with quantitative evidence suggesting that these modulated models provide interesting and engaging dialogue partners for improvisational theatre performers.

Can a Robot Do a Trust Fall? Absurdity as a Component of Human Intelligence and Embodiment

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Creating Latent Spaces for Modern Music Genre Rhythms Using Minimal Training Data

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Can a Robot Do a Trust Fall? Absurdity as a Component of Human Intelligence and Embodiment

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Next from ICCC'20

Creating Latent Spaces for Modern Music Genre Rhythms Using Minimal Training Data

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Towards life-long mapping of dynamic environments using temporal persistence modeling

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