Analyzing Political Discourse on TikTok: A Study on the Crisis in Palestine

arXiv:2501.07182v2 Announce Type: cross
Abstract: TikTok has gradually become one of the most pervasive social media platforms in our daily lives. While much can be said about the merits of platforms such as TikTok, there is a different kind of attention paid towards the political affect of social media today compared to its impact on other aspects of modern networked reality. I explored how users on TikTok discussed the crisis in Palestine that worsened in 2023. Using network analysis, I situate keywords representing the conflict and categorize them thematically based on a coding schema derived from politically and ideologically differentiable stances. I conclude that activism and propaganda are contending amongst themselves in the thriving space afforded by TikTok today.

Expert Commentary: Analyzing the Political Discourse on TikTok

As TikTok continues to rise in popularity, it has become a platform where not only entertainment but also serious political discussions take place. The crisis in Palestine, which escalated in 2023, became a focal point for many users on TikTok, sparking debates, activism, and propaganda campaigns.

Multi-disciplinary Nature of the Content

The analysis of user discussions on TikTok regarding the Palestine crisis involves a multi-disciplinary approach. By using network analysis and categorizing keywords thematically, the researcher delves into fields such as sociology, political science, and media studies. Understanding how different ideological stances are represented on the platform provides valuable insights into the intersection of technology and society.

Relation to Multimedia Information Systems

The content on TikTok, including videos, hashtags, and user interactions, can be considered part of multimedia information systems. Analyzing the political discourse on the platform requires examining how users engage with various forms of media to convey their messages. This ties into the broader field of multimedia information systems, which studies how information is created, processed, and shared in digital environments.

Connection to Animations, Artificial Reality, Augmented Reality, and Virtual Realities

While TikTok primarily features short videos and user-generated content, it is also intertwined with animations, artificial reality, augmented reality, and virtual realities. Users can create visually engaging videos using filters, effects, and virtual backgrounds, enhancing their message and reaching a wider audience. Understanding how these technologies are used in the context of political discussions adds another layer to the analysis of user behavior on TikTok.

Future Implications

As activism and propaganda continue to compete on social media platforms like TikTok, it raises questions about the role of technology in shaping political discourse. Moving forward, researchers and policymakers need to consider how online platforms can influence public opinion, mobilize movements, and shape narratives. By studying the dynamics of political discussions on TikTok, we can better understand the evolving landscape of digital communication and its impact on society.

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Unlocking the Potential of Computational Methods in Secondary Analysis of Qualitative Data

Unlocking the Potential of Computational Methods in Secondary Analysis of Qualitative Data

Expert Commentary: Maximizing the Potential of Computational Methods in Qualitative Data Analysis

Qualitative research has long been recognized for its ability to provide deep insights into individuals’ experiences, beliefs, and behaviors. However, the labor-intensive nature of qualitative data collection and analysis often leads to underutilization of this valuable resource. This paper advocates for the secondary analysis of qualitative data, showcasing the untapped potential that computational methods offer in reworking and repurposing existing data.

The Benefits of Secondary Analysis

  • Efficiency: By leveraging existing qualitative data, researchers can save time and resources that would otherwise be spent on data collection.
  • Enhanced Understanding: Secondary analysis allows for a more in-depth exploration of research questions by combining multiple datasets and viewpoints.
  • Innovation: Computational methods enable researchers to uncover patterns and relationships across diverse contexts and timeframes that may not be apparent with traditional qualitative analysis techniques.

Opportunities with Computationally Intensive Secondary Analysis

One of the key advantages of computational methods in secondary analysis is the ability to synthesize data from various sources, creating data assemblages that can address complex research phenomena. By examining data across multiple contexts and timeframes, researchers can gain a more holistic understanding of the factors influencing social phenomena and human behavior.

“The integration of computational methods in secondary analysis opens up new possibilities for uncovering hidden patterns and relationships within qualitative data.”

Furthermore, the use of computational tools can facilitate the development of innovative research designs that transcend traditional disciplinary boundaries. By combining qualitative data with quantitative techniques, researchers can generate new insights and test hypotheses in ways that were previously impossible.

Challenges and Concerns

Despite the potential benefits of computationally intensive secondary analysis, there are several challenges that researchers must address. These include concerns related to data privacy, confidentiality, and the ethical implications of sharing and reusing qualitative data. Researchers must also grapple with issues of data quality, bias, and the generalizability of findings when combining data from multiple sources.

In conclusion, the integration of computational methods in secondary analysis represents a significant opportunity for advancing qualitative research. By carefully navigating the complexities and challenges associated with qualitative data sharing and reuse, researchers can unlock the full potential of existing data and push the boundaries of knowledge creation in the social sciences.

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“Introducing MAVL: A Multilingual Benchmark for Animated Song Translation”

arXiv:2505.18614v1 Announce Type: cross
Abstract: Lyrics translation requires both accurate semantic transfer and preservation of musical rhythm, syllabic structure, and poetic style. In animated musicals, the challenge intensifies due to alignment with visual and auditory cues. We introduce Multilingual Audio-Video Lyrics Benchmark for Animated Song Translation (MAVL), the first multilingual, multimodal benchmark for singable lyrics translation. By integrating text, audio, and video, MAVL enables richer and more expressive translations than text-only approaches. Building on this, we propose Syllable-Constrained Audio-Video LLM with Chain-of-Thought SylAVL-CoT, which leverages audio-video cues and enforces syllabic constraints to produce natural-sounding lyrics. Experimental results demonstrate that SylAVL-CoT significantly outperforms text-based models in singability and contextual accuracy, emphasizing the value of multimodal, multilingual approaches for lyrics translation.

Expert Commentary

Lyrics translation in animated musicals presents a unique set of challenges that require a multi-disciplinary approach to address. The Multilingual Audio-Video Lyrics Benchmark for Animated Song Translation (MAVL) introduces a groundbreaking benchmark that integrates text, audio, and video to enable more expressive translations than traditional text-only methods. This approach acknowledges the importance of not only accurate semantic transfer but also the preservation of musical rhythm, syllabic structure, and poetic style, aligning with visual and auditory cues in animated musicals.

Furthermore, the proposed Syllable-Constrained Audio-Video LLM with Chain-of-Thought (SylAVL-CoT) takes this multimodal approach a step further by leveraging audio-video cues and enforcing syllabic constraints to produce natural-sounding lyrics. This innovative model demonstrates significant improvement in singability and contextual accuracy compared to text-based models, highlighting the value of multimodal, multilingual approaches for lyrics translation in the realm of animated musicals.

These advancements in the field of lyrics translation not only contribute to the broader field of multimedia information systems but also have implications for disciplines such as Animations, Artificial Reality, Augmented Reality, and Virtual Realities. By incorporating text, audio, and video in the translation process, researchers are pushing the boundaries of what is possible in terms of conveying meaning, emotion, and cultural nuances in a variety of visual and auditory formats.

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Enhancing FIM Code Generation with Post-Processing: A Study on LLM Outputs

Enhancing FIM Code Generation with Post-Processing: A Study on LLM Outputs

Expert Commentary: The Importance of Post-Processing in LLM Output Evaluation

Post-processing plays a critical role in the evaluation of Large Language Models (LLMs) in fill-in-the-middle (FIM) code generation tasks. The presence of extraneous code in raw LLM outputs highlights a fundamental issue with task awareness and output boundaries. Truncation of these extraneous parts is essential for accurate evaluation of the generated code.

The complexity of determining an optimal truncation strategy is further compounded when considering multiple programming languages. The study’s investigation into post-processing of instruction-tuned LLM outputs sheds light on the necessity and benefits of supervised fine-tuning for FIM code generation tasks.

The results demonstrate that fine-tuned models, such as the texttt{Qwen2.5-Coder} (base and instruct) models, show significant improvements in performance without the need for post-processing, especially when generating complete lines of code in the middle. This showcases the LLM’s ability to seamlessly integrate with the surrounding context when properly fine-tuned.

However, the study also highlights the continued importance of post-processing for LLM outputs when generating a random span of code in the middle. This underscores the need for further research and development in post-processing techniques to enhance the overall quality and effectiveness of LLM-generated code.

Future Implications and Recommendations

  • Explore advanced post-processing methods tailored to specific FIM code generation tasks to improve code quality and evaluation accuracy.
  • Consider incorporating domain-specific knowledge into LLM fine-tuning to enhance performance and reduce the need for post-processing in certain contexts.
  • Investigate the impact of post-processing on LLM outputs across different programming languages and coding structures to establish best practices for evaluation and optimization.

Overall, the study underscores the critical role of post-processing in the evaluation and improvement of LLM-generated code, highlighting the need for a balanced approach that combines fine-tuning and post-processing techniques to maximize performance and task relevance.

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“PBLBench: Evaluating Multimodal Large Language Models in Project-Based Learning”

arXiv:2505.17050v1 Announce Type: cross
Abstract: Project-Based Learning (PBL) involves a variety of highly correlated multimodal data, making it a vital educational approach within STEM disciplines. With the rapid development of multimodal large language models (MLLMs), researchers have begun exploring their potential to enhance tasks such as information retrieval, knowledge comprehension, and data generation in educational settings. However, existing benchmarks fall short in providing both a free-form output structure and a rigorous human expert validation process, limiting their effectiveness in evaluating real-world educational tasks. Additionally, few methods have developed automated pipelines to assist with the complex responsibilities of teachers leveraging MLLMs, largely due to model hallucination and instability, which lead to unreliable implementation. To address this gap, we introduce PBLBench, a novel benchmark designed to evaluate complex reasoning grounded in domain-specific knowledge and long-context understanding, thereby challenging models with tasks that closely resemble those handled by human experts. To establish reliable ground truth, we adopt the Analytic Hierarchy Process (AHP), utilizing expert-driven pairwise comparisons to derive structured and weighted evaluation criteria. We assess the performance of 15 leading MLLMs/LLMs using PBLBench and demonstrate that even the most advanced models achieve only 59% rank accuracy, underscoring the significant challenges presented by this benchmark. We believe PBLBench will serve as a catalyst for the development of more capable AI agents, ultimately aiming to alleviate teacher workload and enhance educational productivity.

Expert Commentary: Utilizing Multimodal Large Language Models in Project-Based Learning

Project-Based Learning (PBL) is a pedagogical approach that integrates various modes of learning, making it a valuable method within STEM disciplines. With the emergence of multimodal large language models (MLLMs), such as GPT-3, researchers are now exploring how these advanced AI models can enhance educational tasks related to information retrieval, knowledge comprehension, and data generation in PBL settings.

This study highlights the challenges faced by current benchmarks in evaluating the performance of MLLMs in educational contexts. The lack of free-form output structure and rigorous human expert validation processes in existing benchmarks limit their effectiveness in assessing real-world educational tasks. Additionally, the issue of model hallucination and instability poses obstacles to the development of automated pipelines to support teachers in utilizing MLLMs effectively.

Multi-disciplinary Nature

The concepts discussed in this article touch upon a variety of disciplines, including computer science, education, artificial intelligence, and cognitive science. The integration of MLLMs in PBL requires a multi-disciplinary approach to address the complex challenges involved in leveraging advanced AI technology in educational settings.

Relation to Multimedia Information Systems

The utilization of MLLMs in PBL aligns with the broader field of multimedia information systems, where the integration of various modes of data (text, images, videos) is crucial for enhancing information retrieval and knowledge dissemination. The incorporation of MLLMs in PBL emphasizes the importance of considering multimodal data in educational contexts for more effective learning outcomes.

Future Implications

The introduction of PBLBench as a novel benchmark for evaluating MLLMs in complex reasoning tasks signifies a step forward in addressing the limitations of current evaluation methods. By incorporating the Analytic Hierarchy Process (AHP) for structured evaluation criteria, this benchmark aims to challenge AI models with tasks that require domain-specific knowledge and long-context understanding, mirroring the tasks handled by human experts.

Overall, the findings of this study underscore the challenges and opportunities presented by integrating MLLMs in PBL. As AI technology continues to advance, the development of more capable AI agents through benchmarks like PBLBench has the potential to alleviate teacher workload and enhance educational productivity in the future.

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“Exploring RNNs for Creative Music Generation”

“Exploring RNNs for Creative Music Generation”

Expert Commentary: The Future of Generative Artificial Intelligence in Music

Generative artificial intelligence (AI) has been making waves in the music industry, with the potential to revolutionize how music is created and consumed. However, as with any groundbreaking technology, there are concerns that need to be addressed.

Energy Consumption:

One of the major concerns surrounding generative AI is its energy consumption. The process of training AI models can be incredibly power-intensive, leading to significant carbon emissions. However, this study on randomly initialized recurrent neural networks shows promise in reducing energy consumption while still producing high-quality music. This could pave the way for more sustainable AI music generation in the future.

Copyright Infringement:

Another issue with generative AI is the potential for copyright infringement. If AI-generated music sounds too similar to existing songs, it could raise legal concerns. By focusing on creating arpeggios and low-frequency oscillations that are rich and configurable, this study demonstrates a way to avoid direct copying of existing music. Musicians can use AI as a tool to enhance their creativity, rather than replacing them altogether.

Creative Atrophy:

There are also worries that AI-generated music could lead to creative atrophy, as musicians rely on AI to do the work for them. However, the approach taken in this study actually expands the creativity of musicians by providing them with new tools and inspiration. By requiring no data and less computational power, this method empowers musicians to explore new avenues of creativity while still leveraging the benefits of AI technology.

In conclusion, generative AI has the potential to transform the music industry, but it is essential to address concerns related to energy consumption, copyright infringement, and creative atrophy. By leveraging innovative approaches like randomly initialized recurrent neural networks, we can harness the power of AI to enhance human creativity and unlock new possibilities in music production.

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