Skip to content

Semantic Spacetime, Semantic Gravity, and the Law of Attention

Sep 2026 · Zenodo (CERN European Organization for Nuclear Research)

Abstract

A Framework for Meaning Mass, Contextual Curvature, Attention Allocation, and Evolvable Semantic Systems Description This work develops an integrated theoretical framework for understanding how meaning, attention, and context interact across cognitive, artificial, cultural, and civilizational systems. The framework combines three core concepts: semantic spacetime, semantic gravity, and the law of attention. Semantic spacetime refers to the structured relational environment in which meanings exist, interact, and evolve. Concepts are not treated as isolated units; their significance depends on history, context, relationships, compatibility, direction, and potential. Semantic gravity describes the tendency of high-density or highly connected concepts to attract interpretation, influence nearby meanings, and shape future semantic trajectories. The term is used here as a modeling metaphor rather than a claim of physical gravity. The law of attention addresses how limited cognitive or computational resources are selectively allocated across possible semantic paths. Attention does not merely respond to meaning; repeated attention can also reinforce, reshape, or weaken the semantic structures through which future interpretation occurs. The central dynamic can be summarized as: \text{Semantic Structure}\rightarrow\text{Attention Allocation}\rightarrow\text{Semantic Reinforcement}\rightarrow\text{Reshaped Semantic Structure} This creates a feedback system in which meaning influences attention, attention modifies meaning, and both evolve over time. The framework introduces several candidate constructs, including semantic mass, contextual curvature, attention capture, semantic escape capacity, attention diversity, semantic lock-in, and semantic health. These concepts are used to explore how ideas become central, how interpretive pathways stabilize, how cognitive or cultural systems become trapped in dominant meanings, and how alternative meanings can continue to emerge. A major concern of the work is the balance between continuity and openness. Too little semantic gravity may produce fragmentation and loss of identity. Too much semantic gravity may lead to interpretive lock-in, ideological rigidity, or collapse into a single dominant explanatory structure. The framework therefore proposes that healthy semantic systems require both stable meaning centers and sufficient semantic escape capacity for novelty, criticism, reinterpretation, and reorganization. This principle is especially relevant to artificial intelligence systems. Large language models operate through context-sensitive attention, distributed representations, retrieval processes, and recurrent semantic activation. While the present framework does not equate computational attention with human consciousness, it provides a common conceptual language for studying how semantic structures influence information selection and generation in both human and artificial systems. The work also extends the framework to cultural and civilizational scales. Civilizations can be understood as persistent semantic environments composed of narratives, institutions, values, symbols, archives, languages, and inherited interpretive structures. Certain concepts may accumulate enough semantic mass to influence generations of interpretation, while spaces of ambiguity, pluralism, and conceptual experimentation preserve the ability of civilization to evolve. This leads to a broader formulation: \text{Semantic Health}=\text{Identity Stability}\times\text{Attention Diversity}\times\text{Correctability}\times\text{Semantic Escape Capacity} The study therefore treats meaning not as static content, but as a dynamic field shaped by relationships, attention, memory, repetition, and transformation. Its central proposition is: Attention moves through semantic spacetime; semantic gravity bends the trajectory of attention; repeated attention, in turn, reshapes semantic spacetime. From this perspective, meaning, attention, and context form a continuously evolving system. The purpose of the framework is not to establish a literal physics of meaning, but to provide a structured research language for investigating how semantic environments form, stabilize, attract attention, resist change, and remain capable of further evolution.

View source

Similar papers

#computer vision Open access Jun 2016

Software Development in Startup Companies: The Greenfield Startup Model

The results are packaged in the Greenfield Startup Model (GSM), which explains the priority of startups to release the product as quickly as possible, and the need to shorten time-to-market, by speeding up the development through low-precision engineering activities.

Carmine Giardino, Nicolò Paternoster, M. Unterkalmsteiner et al. · 178 citations · ⚡14
#computer vision Open access Oct 2016

Software Startups - A Research Agenda

Software startup companies develop innovative, software-intensive products within limited timeframes and with few resources, searching for sustainable and scalable business models.

M. Unterkalmsteiner, P. Abrahamsson, Xiaofeng Wang et al. · 157 citations · ⚡17
#machine learning Review Open access Oct 2016

“Failures” to be celebrated: an analysis of major pivots of software startups

This study conducts a case survey study based on the secondary data of the major pivots happened in 49 software startups, and demonstrates that customer need pivot is the most common among all pivot types.

Sohaib Shahid Bajwa, Xiaofeng Wang, Anh Nguyen-Duc et al. · 127 citations · ⚡15
#computer vision Review Open access May 2015

A survey study on major technical barriers affecting the decision to adopt cloud services

The comparison of adopter and non-adopter sample reveals three potential adoption inhibitor, security, data privacy, and portability, which underlines the importance of the technical and security perspectives for research investigating the adoption of technology.

Nattakarn Phaphoom, Xiaofeng Wang, S. Samuel et al. · 111 citations · ⚡8
#computer vision Conference Open access Dec 2013

Affordable and Energy-Efficient Cloud Computing Clusters: The Bolzano Raspberry Pi Cloud Cluster Experiment

The ongoing work building a Raspberry Pi cluster consisting of 300 nodes is presented, with potential use cases being an inexpensive and green test bed for cloud computing research and a robust and mobile data center for operating in adverse environments.

P. Abrahamsson, S. Helmer, Nattakarn Phaphoom et al. · 110 citations · ⚡7
#computer vision Book Open access Mar 2017

On the Unhappiness of Software Developers

The results indicate that software developers are a slightly happy population, but the need for limiting the unhappiness of developers remains, and 219 factors representing causes of unhappiness while developing software are identified.

D. Graziotin, Fabian Fagerholm, Xiaofeng Wang et al. · 84 citations · ⚡6

Related blog posts

MIT News · Artificial Intelligence Sep 14, 2026

New method enables AI for safety-critical situations

The “HardFlow” algorithm could help generative AI models produce high-quality outputs that obey strict requirements when “pretty close” doesn’t cut it.

GPT-Lab Sep 10, 2026

Responsible AI Must Consider Its Afterlife

AI may appear weightless, but every model depends on physical infrastructure. To understand responsible AI, we need to look beyond algorithms and consider the entire lifecycle of the hardware behind them. The post Responsible AI Must Consider Its Afterlife appeared first on GPT-Lab.

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.