AI Agents as Knowledge Navigators: A Conceptual Framework for Multi-Agent Systems in Scientific Knowledge Management
Abstract
The rapid and continuous expansion of scientific literature has led to an unprecedented increase in the volume of knowledge produced, significantly complicating its organization, retrieval, and effective utilization. Researchers face considerable challenges in managing this vast information landscape, particularly in terms of identifying relevant studies, maintaining contextual integrity, and integrating knowledge across multiple disciplines. Traditional database-driven search engines and static indexing methods often fall short in addressing these issues, as they lack the capacity to dynamically interpret scientific discourse, establish meaningful cross-disciplinary connections, and facilitate real-time knowledge synthesis.To overcome these limitations, this study proposes a novel approach to scientific knowledge management through a multi-agent artificial intelligence (AI) system. This system is designed to enhance interactive, context-aware, and dynamic information retrieval by leveraging a network of AI agents, each specialized in distinct scientific domains. These agents operate collaboratively, employing advanced adaptive learning mechanisms, context-sensitive reasoning, and cooperative problem-solving strategies to improve the organization and accessibility of scientific knowledge.The multi-agent framework integrates state-of-the-art Natural Language Processing (NLP) techniques, transformer-based architectures, and knowledge graph methodologies to provide a more nuanced understanding of scientific texts. By doing so, it enables automated cross-domain conceptual linking, validation of theoretical and experimental claims, and the seamless integration of newly acquired information into existing knowledge structures. Moreover, the system incorporates reinforcement learning mechanisms to continuously optimize its retrieval and synthesis processes based on user interactions and evolving research trends.Beyond its immediate applications in knowledge retrieval, the proposed system fosters a paradigm shift in how scientific research is conducted, promoting more effective interdisciplinary collaboration and accelerating the development of innovative ideas. By facilitating automated synthesis of vast scientific corpora, it enables researchers to explore novel hypotheses, detect previously unrecognized connections between fields, and refine theoretical models with enhanced precision. Additionally, the ability of AI agents to autonomously process complex information reduces cognitive load on researchers, allowing them to focus on higher-order analytical tasks and creative problem-solving.This study contributes to the field of scientific knowledge management by introducing a scalable and adaptive AI-driven framework capable of supporting research in high-information-density environments. By bridging the gaps between disparate scientific disciplines and facilitating intelligent, real-time knowledge synthesis, the proposed system has the potential to revolutionize the way researchers interact with and utilize scientific information, ultimately advancing the efficiency and impact of knowledge discovery in the modern research landscape.
Keywords: knowledge management, digital ecosystem, multi agent system
DOI: 10.54941/ahfe1006231
Cite this paper
More from this volume
- Critical Foresight of Human-Computer Interaction: A Review on Methods to Assess Ethical Risks and Side-Effects of Emerging Technologies
- Promoting Healthy Eating by Design: Opportunities for Meaningful Persuasive Technologies
- Exploring the impact of AI-generated content on branded IP character design and user experience
- The Impact of Visual Elements and Design Principles of Design Systems on Design Decisions
- Real-Time Object Recognition with Neural Networks in Public Transport – Determining the Utilization of Vehicles using Existing Camera Systems
- Accelerating Legacy Code Migration with Artificial Intelligence
- Design Evaluation System of AI-Generated Content in the Industrial Design of Construction Machinery
- EEG-Driven Personalized Visual Communication
- Evaluating Map Orientation Methods in Smartphone Applications by Analyzing Search Time Through a Virtual Environment Experiment
- Optimizing Human-Machine Interfaces for Neuroergonomics: Cognitive Workload and Performance in sUAS Operations
- Exploring Virtual Keyboards for Text Entry in Virtual Reality
- The application of an RGB-D camera for monitoring the allocation of visual attention among high-speed train drivers


AHFE Open Access