toplogo
Войти

Combining Audio and Lyrics for Comprehensive Music Sentiment Analysis


Основные понятия
Integrating audio and textual lyrics data can enhance the performance of music sentiment analysis systems compared to using a single modality.
Аннотация

This paper investigates the joint sentiment analysis of music by combining information from both audio and lyrics. The authors explore two main approaches for emotion classification in music: the categorical approach, which categorizes emotions into distinct groups, and the dimensional approach, which maps emotions onto a multi-dimensional space.

The study utilizes two datasets - the VA dataset and the MIREX-like dataset - that provide annotations for both audio and lyrics. For the audio modality, the authors employ a model from the USC SAIL team that performed well in the "Emotions and Themes in Music" MediaEval task. For the text modality, they evaluate four different models from the Hugging Face platform, including a specialized lyrics sentiment model and models adapted for poetic language.

The individual model experiments show that text-based models slightly outperform the audio-only model in classifying negative emotions, while the audio model is better at identifying positive emotions. To leverage the strengths of both modalities, the authors investigate three fusion methods: class selection based on highest probability, averaging predictions, and a weighted combination. The weighted approach, with a 60% audio and 40% text ratio, emerges as the most effective strategy, improving performance across various metrics compared to the individual modalities.

The analysis reveals that the combination of audio and text data can better capture the complex interplay of musical elements and lyrical content in expressing sentiment, leading to more nuanced and comprehensive music emotion recognition. The authors also discuss the challenges in this field, such as the lack of standardized emotion taxonomies, subjective perception of music, and the scarcity of high-quality bimodal datasets. They propose future research directions, including the development of novel multimodal models that can jointly process text and audio inputs to further advance the field of music sentiment analysis.

edit_icon

Customize Summary

edit_icon

Rewrite with AI

edit_icon

Generate Citations

translate_icon

Translate Source

visual_icon

Generate MindMap

visit_icon

Visit Source

Статистика
The VA data set includes 133 audio excerpts and their corresponding lyrics annotated according to Russell's circumplex model (valence and arousal values). The MIREX-like data set contains 903 audio clips, 764 lyrics, and 193 MIDI files, with annotations based on the All Music Guide.
Цитаты
"Music is often described as the language of emotions, and numerous studies have confirmed that listeners perceive music as an expression of feelings." "The 'Engaging with Music 2022' report by the International Federation of the Phonographic Industry revealed that 69% of respondents consider music important for their mental health." "Surprisingly, the best lyrics model surpasses the results of the audio model, confirming the relevance of lyrics for the valence recognition task."

Ключевые выводы из

by Lea Schaab,A... в arxiv.org 05-06-2024

https://arxiv.org/pdf/2405.01988.pdf
Joint sentiment analysis of lyrics and audio in music

Дополнительные вопросы

How can the authors address the lack of standardized emotion taxonomies in music sentiment analysis?

To address the lack of standardized emotion taxonomies in music sentiment analysis, the authors can consider several strategies. Firstly, they can collaborate with experts in psychology and music theory to develop a comprehensive taxonomy that encompasses a wide range of emotions commonly expressed in music. This collaborative approach can help ensure that the taxonomy is robust and reflective of both psychological and musical nuances. Additionally, the authors can conduct empirical studies to validate and refine the proposed taxonomy. By collecting data from listeners and musicians, they can assess the relevance and accuracy of the emotional categories within the taxonomy. This empirical validation process can help establish the credibility and effectiveness of the taxonomy in capturing the diverse emotional expressions found in music. Furthermore, the authors can promote transparency and reproducibility by openly sharing their taxonomy and methodology with the research community. By making their taxonomy publicly available, other researchers can evaluate, critique, and potentially enhance the taxonomy, leading to a more standardized and widely accepted framework for music sentiment analysis.

What are the potential biases and limitations in the subjective perception of music emotions, and how can they be mitigated?

Subjective perception of music emotions can introduce biases and limitations in music sentiment analysis. One potential bias is the influence of individual preferences and cultural backgrounds on how listeners interpret and categorize emotions in music. To mitigate this bias, researchers can conduct cross-cultural studies to identify commonalities and differences in emotional responses to music across diverse populations. By incorporating a variety of cultural perspectives, researchers can develop a more inclusive and culturally sensitive understanding of music emotions. Another limitation is the inherent complexity and ambiguity of emotional experiences, which can make it challenging to accurately label and classify emotions in music. To address this limitation, researchers can employ interdisciplinary approaches that combine insights from psychology, neuroscience, and music theory. By integrating multiple perspectives, researchers can gain a more nuanced understanding of the multifaceted nature of music emotions and develop more sophisticated models for sentiment analysis. Moreover, researchers can utilize advanced technologies such as machine learning and natural language processing to automate emotion recognition processes and reduce subjective biases. By leveraging computational tools, researchers can analyze large datasets of music and lyrics to identify patterns and trends in emotional expression, enhancing the objectivity and reliability of music sentiment analysis.

How can the development of large-scale, high-quality bimodal datasets for music sentiment analysis be incentivized and facilitated within the research community?

The development of large-scale, high-quality bimodal datasets for music sentiment analysis can be incentivized and facilitated within the research community through several strategies. One approach is to establish collaborative initiatives that bring together researchers, musicians, and industry stakeholders to collectively create and curate datasets that combine audio and text modalities. By fostering collaboration and knowledge sharing, these initiatives can accelerate the development of comprehensive and diverse datasets that reflect the complexity of music emotions. Furthermore, funding agencies and research institutions can provide financial support and resources for projects focused on bimodal dataset creation. By offering grants, scholarships, and research opportunities, these entities can incentivize researchers to prioritize the collection and annotation of high-quality data for music sentiment analysis. Additionally, organizing workshops, hackathons, and competitions centered around dataset creation can stimulate community engagement and innovation in this area. Open data initiatives and platforms can also play a crucial role in incentivizing the development of bimodal datasets. By promoting data sharing and collaboration, these platforms enable researchers to access, reuse, and build upon existing datasets, fostering a culture of transparency and knowledge exchange within the research community. Moreover, establishing data standards and best practices for dataset creation can ensure consistency and quality across bimodal datasets, enhancing their utility and impact in advancing music sentiment analysis research.
0
star