IDAP'17 International Artificial Intelligence and Data Processing Symposium

2020 ◽  
pp. 1-12
Author(s):  
Xiaoru Gao

In order to study the role of English situational teaching in higher vocational colleges, based on information technology and artificial intelligence, this research combines with the needs of English teaching to construct a English situation teaching in higher vocational colleges with the support of 5G network technology and artificial intelligence. Moreover, this research builds a data processing model based on the system architecture diagram of cache placement, uses storage space and computing resources to save more backhaul link bandwidth, and adopts the “many to many” algorithm extended by the “one to many” algorithm, and uses the on-demand method to obtain scenario teaching data from the cloud. In addition, this research constructs the intermediate link of data processing, and uses 5G network transmission to solve the problem of data transmission speed. Finally, this study uses a controlled experiment to evaluate the effectiveness of the artificial intelligence teaching model constructed in this study. The research shows that the English situation teaching method based on 5G network technology and artificial intelligence in vocational colleges has a certain effect and can effectively improve the English scores of vocational college students.


2018 ◽  
Vol 7 (4.6) ◽  
pp. 296 ◽  
Author(s):  
S Rahul ◽  
. .

This paper gives a present of general learning of deep methodology and its applications to a variety of signal and data processing schedules. It is discussed about Machine learning vs. Deep Learning a brief and which is best suited in the market, Dissimilarities, Problem handling, Interpretability, Comparative and different options between cubic centimeter and metric capacity unit and concluded by justifying deep learning is a part of Machine learning and Machine learning is a part of Artificial intelligence.  


Author(s):  
L. WU ◽  
Z. LUO ◽  
J. ZHOU ◽  
H. WANG

Stacking velocity is a very important parameter in seismic data processing. Until now the determination of stacking velocity has been done manually. This article proposes an automatic algorithm for picking stacking velocity. The algorithm uses artificial intelligence and pattern recognition techniques.


Author(s):  
Cecilia Magnusson Sjöberg

A major starting point is that transparency is a condition for privacy in the context of personal data processing, especially when based on artificial intelligence (AI) methods. A major keyword here is openness, which however is not equivalent to transparency. This is explained by the fact that an organization may very well be governed by principles of openness but still not provide transparency due to insufficient access rights and lacking implementation of those rights. Given these hypotheses, the chapter investigates and illuminates ways forward in recognition of algorithms, machine learning, and big data as critical success factors of personal data processing based on AI—that is, if privacy is to be preserved. In these circumstances, autonomy of technology calls for attention and needs to be challenged from a variety of perspectives. Not least, a legal approach to digital human sciences appears to be a resource to examine further. This applies, for instance, when data subjects in the public as well as in the private sphere are exposed to AI for better or for worse. Providing what may be referred to as a legal shield between user and application might be one remedy to shortcomings in this context.


2020 ◽  
Author(s):  
Luca Parisi ◽  
Narrendar RaviChandran ◽  
Matteo Lanzillotta

<div> <p><b>Background</b></p> <p>Knee osteoarthritis (OA) remains a leading aetiology of disability worldwide. With recent advances in gait analysis, clinical assessment of such a knee-related condition has been improved. Although motion capture (mocap) technology is deemed the gold standard for gait analysis, it heavily relies on adequate data processing to yield clinically significant results. Moreover, gait data is non-linear and high-dimensional. Due to missing data involved in a mocap session and typical statistical assumptions, conventional data processing methods are unable to reveal the intrinsic patterns to predict gait abnormalities. </p> <p><b>Research question</b></p> <p>Albeit studies have demonstrated the potential of Artificial Intelligence (AI) algorithms to address these limitations, these algorithms have not gained wide acceptance amongst biomechanists. The most common AI algorithms used in gait analysis are based on machine learning (ML) and artificial neural networks (ANN). By comparing the predictive capability of such algorithms from published studies, we assessed their potential to augment current clinical gait diagnostics when dealing with knee OA. </p> <p><b>Methods</b></p> <p>Thus, an evidence-based review and analysis were conducted. With over 188 studies identified, 8 studies met the inclusion criteria for a subsequent analysis, accounting for 78 participants overall. </p> <p><b>Results</b></p> <p>The classification performance of ML and ANN algorithms was quantitatively assessed. The test classification accuracy (ACC), sensitivity (SN), specificity (SP) and area under the curve (AUC) of the ML-based algorithms were clinically valuable, i.e., all higher than 85%, differently from those obtained via ANN. </p> <p><b>Significance</b></p> <p>This study demonstrates the potential of ML for clinical assessment of knee disorders in an accurate and reliable manner.</p> </div>


2021 ◽  
Vol 111 (03) ◽  
pp. 161-166
Author(s):  
Philipp Theumer ◽  
Alexander Zipfel ◽  
Michael Colombo ◽  
Albert Heim

Die Produktionskomplexität in Unternehmen – getrieben durch externe und interne Faktoren – nimmt stetig zu. Gleichzeitig stoßen herkömmliche Ansätze der Datenverarbeitung bei der Analyse von großen Datenmengen in kurzer Zeit an ihre Grenzen. Technologien der Künstlichen Intelligenz (KI) bieten das Potenzial, diese Limitierung zu überwinden, die Prozesse in unterschiedlichen Ebenen der Produktion zu verbessern und gleichzeitig die Lebensmittelverschwendung zu reduzieren. &nbsp; Production complexity in companies, driven by external and internal factors, is constantly increasing. Conventional data processing approaches quickly reach their limits due to large amounts of data. However, artificial intelligence (AI) technologies allow for improving processes at different production levels while reducing food waste.


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