1 min readfrom Machine Learning

Collecting piano data for master thesis in multi-classification [P]

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Hi everyone! I'm currently working on my master's thesis, which explores how computers can understand the emotions conveyed in piano music. I need your help to collect a dataset by inviting you to fill out a brief survey. Please share the name of a piano piece and the emotions it evokes for you. Your insights will be invaluable to my research. You can access the survey here: [Google Forms Link](https://docs.google.com/forms/d/e/1FAIpQLScpBPfw78zSm6Bkh4EpXYFT0ecTy1Q4pCDho4cX-VkVD-bwbw/viewform?usp=sharing&ouid=102143

In an era where artificial intelligence increasingly permeates our daily lives, the intersection of technology and human emotion presents a fascinating frontier for exploration. The recent call for assistance from a graduate student aiming to analyze emotional responses to piano music encapsulates this opportunity. By collecting data through a straightforward survey, this project not only seeks to understand how listeners emotionally connect with various piano pieces but also highlights the importance of community-driven research in the field of emotional AI. As we explore this topic, it’s useful to draw parallels with other innovative projects like the Steam Recommender using similarity! (Undergraduate Student Project) and the release of TabPFN-3, a pre-trained tabular foundation model, both of which exemplify the ongoing evolution of technology in education and data analysis.

The endeavor to decode emotions in music involves more than just technical prowess; it demands an understanding of the nuanced relationship between art and human experience. As the survey invites participants to share their personal emotional responses to different piano compositions, it becomes a collective exploration of sentiment that transcends individual perspectives. This approach not only enriches the dataset but also underscores the human-centered ethos of modern research methodologies. The endeavor is particularly relevant as we witness a growing interest in emotionally intelligent AI systems capable of interpreting and responding to human feelings, thereby fostering deeper connections between technology and users.

Furthermore, this project reflects the broader trend of democratizing data collection and analysis, empowering individuals to contribute to significant academic inquiries. In doing so, it resonates with the concept presented in the Presentation: Beyond Coding: How Senior ICs Grow Influence and Drive Impact, where the emphasis is placed on leveraging collective insights to drive impactful outcomes. The initiative encourages participation from music lovers, bridging the gap between professional research and the everyday experiences of listeners. This inclusive approach not only enriches the dataset but also invites a diverse range of emotional interpretations that a single researcher might overlook.

As we consider the implications of this research, it is crucial to recognize the potential applications of understanding emotional responses to music in various fields, from therapeutic practices to advanced AI training. The ability to programmatically interpret emotions could lead to groundbreaking advancements in how we interact with technology, particularly in areas such as mental health support or personalized entertainment experiences. The insights garnered from this piano study could pave the way for more sophisticated AI systems that adapt to user emotions in real-time, fundamentally transforming our relationship with digital interfaces.

Looking forward, the broader significance of this project raises an intriguing question: How will the findings shape our understanding of emotional intelligence in AI? As technology continues to evolve, the challenge will be to harness these insights to create systems that are not only intelligent but also empathetic. With ongoing contributions from the community, this research could illuminate new paths for innovation, making it an exciting space to watch. The collective effort to decode emotions in music is just one example of how human experiences can inform and enhance the capabilities of artificial intelligence, ultimately leading to more meaningful interactions between machines and humans.

Hi all, I'm working on a problem of making computer understand emotions behind some piano piece and can't finish it without your help, so I hope that you can help me collect a dataset for my master thesis by sending the following survey to the people who listen and love piano music.

I'll be enormously grateful if you could fill out the Google Forms with information:
1. Piano piece name
2. Different emotions that piece evokes when you listen to it

Here is the link: https://docs.google.com/forms/d/e/1FAIpQLScpBPfw78zSm6Bkh4EpXYFT0ecTy1Q4pCDho4cX-VkVD-bwbw/viewform?usp=sharing&ouid=102143856788657410644

Thank you and if you fill it out, I hope you enjoy it! ❤️

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