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Semantische Datenintelligenz im Einsatz

Editors: Ege, Börteçin, Paschke, Adrian (Hrsg.) diverse Autoren,
eBook ISBN 978-3-658-31938-0 | DOI 10.1007/978-3-658-31938-0 | Softcover ISBN 978-3-658-31937-3
Kapitel 11: «Semiotik, ein Schlüsselelement für Systeme mit künstlicher Intelligenz»
Autor: Walter Diggelmann, ai-one™
Automated systems that use artificial intelligence to analyze texts are on the rise. They aim to understand the message within a text, place it in context, and determine whether it conveys a negative, positive, or neutral stance on a subject. Messages can be interpreted in many ways and from different perspectives. A recipient not only considers the content but also the sender’s intention—yet this may not match the intended meaning. To avoid misunderstandings, the context of communication must be made clear. For semantic text analysis—forming the basis of ML, IoT, and AI solutions—to work effectively, it must offer dynamic answers to two key challenges of text analysis.
Syntactically congruent sentences and formulations originating from different temporal or cultural contexts may convey substantially different meanings or messages, despite their structural equivalence.
Hans-Georg Gadamer,
in his work Truth and Method, describes the hermeneutical circle: “The whole must be understood from the individual, and the individual from the whole.” This circle thus contains a paradox: what is to be understood must, in some way, already be understood beforehand, or at least partially known.

NASA - Marshall Space Flight Center Research and Technology Report 2015
https://ntrs.nasa.gov/citations/20160006403
The investments in technology development we made in 2015 not only support the Agency's current missions, but they will also enable new missions. Some of these projects will allow us to develop an in-space architecture for human space exploration; Marshall employees are developing and testing cutting-edge propulsion solutions that will propel humans in-space and land them on Mars. Others are working on technologies that could support a deep space habitat, which will be critical to enable humans to live and work in deep space and on other worlds. Still others are maturing technologies that will help new scientific instruments study the outer edge of the universe-instruments that will provide valuable information as we seek to explore the outer planets and search for life.
Document ID 20160006403
Report Number M16-5259 | NASA/TM-2016-218221

Artificial Intelligence Agents to Support Data Mining for Early Stage of Space Systems Design
978-1-7281-2734-7/20/ ©2020 IEEE
The complex and multidisciplinary nature of space systems and mission architectures is especially evident in early stage of design and architecting, where systems stakeholders have to keep into account all the aspects of a project, including alternatives, cost, risk, and schedule and evaluate various potentially conflicting metrics with a high level of uncertainty. Though aerospace engineering is a relatively young discipline, stakeholders in the field can rely on a vast body of knowledge and good practices for space systems design and architecting of space missions. These guidelines have been identified and refined over the years.
However, the increase in size and complexity of applications in the aerospace discipline highlighted some gaps in this approach: first, the amount of available information is now very large and originates from multiple sources, often with diverse representations, and useful data for trade space analysis or analysis of all potential alternatives can be easily overlooked.
Second, the variety and complexity of the systems involved and of the different domains to be kept into account can generate unexpected interactions that cannot be easily identified; third, continuous advancements in the field of aerospace resulted in the development of new approaches and methodologies, for which a common knowledge database is not existing yet, thus requiring substantial effort upfront.
To address these gaps and support both decision making in early stage of space systems design and increased automation in extraction of necessary data to feed working groups and analytical methodologies, we propose the training and use of Artificial Intelligence agents. These agents can be trained to recognize not only information coming from standardized representations, for example Model Based Systems Engineering diagrams, but also descriptions of systems and functionalities in plain English.
This capability allows each agent to quantify the relevance of publications and documents to the query for which it is trained. At the same time, each agent can recognize potentially useful information in documents which are only loosely connected to the systems or functionalities on which the agent has been trained, and which would possibly be overlooked in a traditional literature review. The search for pertinent sources can be further refined using keywords, that let the user specify more details about the systems or functionality of interest, based on the intended use of the data. In this work we illustrate the use of Artificial Intelligent agents to sort space habitat subsystems into NASA Technology Roadmaps categories and to identify relevant sources of data for these subsystems. We demonstrate how the agents can support the retrieval of complex information required to feed existing System-of-Systems analytic tools and discuss challenges of this approach and future steps.

Wissensorganisation und -repräsentation mit digitalen Technologien
https://www.degruyter.com/view/product/205460
Hrsg. v. Keller, Stefan Andreas / Schneider, René / Volk, Benno / Walter Diggelmann (Page 128 - 145)
The edited volume presents a broad range of conceptual and technological approaches to the modeling and digital representation of knowledge within knowledge organizations (such as universities, research institutes, and educational institutions) as well as in companies, illustrated through practice-oriented examples in a comprehensive overview. It explores both fundamental models of knowledge organization and technical implementation possibilities, while also addressing their limitations and challenges in practice, particularly in the fields of knowledge representation and the Semantic Web.
Best-practice examples and successful application scenarios from real-world contexts provide readers with both a repository of knowledge and guidance for realizing their own projects.
The contributions cover the following thematic areas: hypertext-based knowledge management; digital optimization of the established analogue technology of the Zettelkasten; innovative knowledge organization using social media; visualization of search processes for digital libraries; semantic event and knowledge visualization; ontological mind maps and knowledge maps; intelligent semantic knowledge processing systems; foundations of computer-assisted knowledge organization and integration; the concept of mega-regions for supporting search processes and managing print publications in libraries; automated coding of medical diagnoses; and contributions on records management for the modeling and handling of business processes.n.
Learning a Lightweight Ontology for Semantic Retrieval in Patient-Centered Information Systems
https://www.igi-global.com/gateway/issue/47946
Ulrich Reimer (University of Applied Sciences St. Gallen, Switzerland), Edith Maier (University of Applied Sciences St. Gallen, Switzerland), Stephan Streit (University of Applied Sciences St. Gallen, Switzerland), Thomas Diggelmann (ai-one, Switzerland)
The paper introduces a web-based eHealth platform currently being developed that will assist patients with certain chronic diseases. The ultimate aim is behavioral change. This is supported by online assessment and feedback which visualizes actual behavior in relation to target behavior. Disease-specific information is provided through an information portal that utilizes lightweight ontologies (associative networks) in combination with text mining. The paper argues that classical word-based information retrieval is often not sufficient for providing patients with relevant information, but that their information needs are better addressed by concept-based retrieval. The focus of the paper is on the semantic retrieval component and the learning of a lightweight ontology from text documents, which is achieved by using a biologically inspired neural network. The paper concludes with preliminary results of the evaluation of the proposed approach in comparison with traditional approaches.


Official document download:
https://arxiv.org/pdf/2012.00614
Thomas Diggelmann, MSc ETH Physics, co-Founder and Head of Research at ai-one™ Inc.
CLIMATE-FEVER, a publicly available dataset for verification of climate change-related claims.
By providing a dataset for the research community, we aim to facilitate and encourage work on improving algorithms for retrieving evidential support for climate-specific claims, addressing the underlying language understanding challenges, and ultimately help alleviate the impact of misinformation on climate change. We adapt the methodology of FEVER [1], the largest dataset of artificially designed claims, to real-life claims collected from the Internet.
While during this process, we could rely on the expertise of renowned climate scientists, it turned out to be no easy task. We discuss the surprising, subtle complexity of modeling real-world climate-related claims within the \textsc{fever} framework, which we believe provides a valuable challenge for general natural language understanding.
The problem with the claims:
Fake news, alienated information, unsupported texts, false reports and even lies are gradually becoming known to all Internet users and many users are already affected by them.