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This chapter delves into the complex legal questions surrounding AI-generated content and intellectual property rights. Because copyright and patent law primarily focus on human authorship and inventorship, the emergence of AI raises questions about the extent to which AI systems can be considered creators. The chapter explores the possibility of AI-generated works receiving copyright or patent protection and the challenges in determining authorship and originality in the context of AI. Additionally, the chapter examines the potential impact of AI on trademark and trade secret law. It discusses whether AI systems can own or hold intellectual property rights, as well as the implications for businesses and individuals who rely on AI-generated content.
We present ASP Chef Mustache, an extension of ASP Chef that enhances template-based rendering of answer set programming (ASP) solutions using a logic-less templating system inspired by Mustache. Our approach integrates data visualization frameworks such as Tabulator, Chart.js, and vis.js, enabling interactive representations of ASP interpretations as tables, charts, and graphs. Mustache queries in templates support advanced constructs for formatting, sorting, and multi-stage expansion, facilitating the generation of rich, structured outputs. We demonstrate the power of this framework through a series of use cases, including data analysis for the Italian VQR, visualization of blocking sets in graphs, and scheduling problems. The result is a versatile tool for bridging declarative problem solving and modern web-based visual analytics.
Explanations, and in particular explanations which provide the reasons why their conclusion is true, are a central object in a range of fields. On the one hand, there is a long and illustrious philosophical tradition, which starts from Aristotle, and passes through scholars such as Leibniz, Bolzano and Frege, that give pride of place to this type of explanation, and is rich with brilliant and profound intuitions. Recently, Poggiolesi [25] has formalized ideas coming from this tradition using logical tools of proof theory. On the other hand, recent work has focused on Boolean circuits that compile some common machine learning classifiers and have the same input-output behavior. In this framework, Darwiche and Hirth [7] have proposed a theory for unveiling the reasons behind the decisions made by Boolean classifiers, and they have studied their theoretical implications. In this paper, we uncover the deep links behind these two trends, demonstrating that the proof-theoretic tools introduced by Poggiolesi provide reasons for decisions, in the sense of Darwiche and Hirth [7]. We discuss the conceptual as well as the technical significance of this result.
This chapter draws all the threads together, highlighting the profound impact that artificial intelligence is likely to have on the landscape of intellectual property. It summarizes the core arguments of the book and sets out the author’s proposed strategies for adapting intellectual property law to the age of AI. By embracing these approaches, the chapter argues, one can ensure that intellectual property law continues to protect human creativity and innovation in the digital age.
Since the advent of ChatGPT in November 2022, public discourse has intensified regarding the intersection of artificial intelligence and intellectual property rights, particularly copyright. Large language models (LLMs) like ChatGPT and Gemini have sparked debates about what deserves copyright protection and what constitutes copyright infringement. Key questions arise: Are LLM-generated outputs original enough to merit copyright protection? And do they infringe upon existing copyrighted works used in their training data? This chapter delves into these issues, examining the legal and ethical implications of training LLMs on copyrighted material. The chapter also explores the concept of fair use, the potential for transformative use of copyrighted works, and the evolving landscape of copyright law in the age of AI.
This chapter examines the theoretical foundations of intellectual property law in the United States, setting the stage for understanding the challenges posed by artificial intelligence. The chapter focuses on utilitarianism as the dominant theoretical framework for US IP law, contrasting it with non-consequentialist theories. It provides a brief overview of the four major IP regimes:
Patent patent and copyright, which are explicitly grounded in the Constitution’s mandate to "promote the Progress of Science and useful Arts"; Trademark, which aims to reduce consumer search costs and ensure fair competition by protecting source identifiers; and Trade secret, which has a more convoluted history but has increasingly focused on promoting innovation and protecting confidential business information. The chapter emphasizes that US IP law prioritizes practical, societal outcomes over moral or philosophical considerations. It sets the stage for subsequent chapters that explore how AI’s emergence challenges these traditional theoretical underpinnings and the practical functioning of each IP regime.
Good air quality is a critical determinant of public health, influencing life expectancy, respiratory health, work productivity, and the prevention of chronic diseases. This study presents a novel approach to classifying the Air Quality Index (AQI) using deep learning techniques, specifically convolutional neural networks (CNNs). We collected and curated a dataset comprising 11,000 digital images from three distinct regions in Indonesia—Jakarta, Malang, and Semarang—ensuring uniformity through standardized acquisition settings. The images were categorized into four air quality classes: good, moderate, unhealthy for sensitive groups, and unhealthy. We designed and implemented a CNN architecture optimized for AQI classification. The model achieved an impressive accuracy of 99.81% using K-fold cross-validation. In addition, the model’s interpretative capabilities were examined using techniques such as Grad-CAM, providing valuable insights into how the CNN identifies and classifies air quality conditions based on image features. These findings underscore the effectiveness of CNNs for AQI classification and highlight the potential for future work to incorporate a more diverse set of digital images captured from various perspectives to enhance dataset complexity and model robustness. The dataset is publicly accessible at https://doi.org/10.5281/zenodo.15727522.
This chapter explores the concept of limiting the supply of intellectual property as a strategy for preserving value. Drawing inspiration from the diamond industry, the author discusses how restricting the flow of products onto the market can increase their perceived value. The chapter examines the potential implications of AI on intellectual property, particularly in the context of human-made goods. The chapter argues that by limiting the supply of protected works, one can create a market for certified human-made goods that are valued for their unique, artisanal qualities. This approach echoes the historical shift towards artisanal goods in response to the rise of mass production. Ultimately, the chapter suggests that by carefully considering the supply and demand dynamics of intellectual property, society can ensure that the value of human creativity and innovation is preserved in the age of AI.
This chapter explores how advancements in artificial intelligence are impacting the landscape of intellectual property law. The chapter analyzes the ways in which AI can challenge traditional notions of authorship, originality, and invention. By automating creative processes and generating new ideas, AI can reduce the pool of human-created works eligible for intellectual property protection. The chapter delves into the legal and ethical implications of these developments and discusses potential strategies for adapting intellectual property law to the AI age.
This short chapter discusses the impact of lab-grown diamonds on the traditional diamond industry and the value of a diamond and uses it as an allegory for AI’s potential impact on intellectual property. Additionally, the chapter touches upon consumer preferences and the growing trend towards alternative gemstones, as well as the implications for the future of the diamond industry, again drawing parallels to the IP system.
Constraint Programming developed within Logic Programming in the Eighties; nowadays all Prolog systems encompass modules capable of handling constraint programming on finite domains demanding their solution to a constraint solver. This work focuses on a specific form of constraint, the so-called table constraint, used to specify conditions on the values of variables as an enumeration of alternative options. Since every condition on a set of finite domain variables can be ultimately expressed as a finite set of cases, Table can, in principle, simulate any other constraint. These characteristics make Table one of the most studied constraints ever, leading to a series of increasingly efficient propagation algorithms. Despite this, it is not uncommon to encounter real-world problems with hundreds or thousands of valid cases that are simply too many to be handled effectively with standard CPU-based approaches. In this paper, we deal with the Compact-Table (CT) algorithm, the state-of-the-art propagation algorithms for Table. We describe how CT can be enhanced by exploiting the massive computational power offered by modern Graphics Processing Units (GPUs) to handle large Table constraints. In particular, we report on the design and implementation of GPU-accelerated CT, on its integration into an existing constraint solver, and on an experimental validation performed on a significant set of instances.
I consider myself not just a techno-optimist, but also a techno-realist. For example, emerging technologies such as artificial intelligence can bring extraordinary advancements for society and individuals alike. They can also, however, bring their fair share of challenges, and for AI, one of those problems is trustworthiness.