Abstract:The number of connected sensors and devices is expected to increase to billions in the near future. However, centralised cloud-computing data centres present various challenges to meet the requirements inherent to Internet of Things (IoT) workloads, such as low latency, high throughput and bandwidth constraints. Edge computing is becoming the standard computing paradigm for latency-sensitive real-time IoT workloads, since it addresses the aforementioned limitations related to centralised cloud-computing models… Show more
“…Fog computing is an infrastructure interposed between edge and cloud computing to enable more efficient data processing, analysis, and storage. Cloudlets are small-scale data centers designed to quickly deliver cloud computing services to mobile and wearable devices, increasing response time of applications [80].…”
This article provides an in-depth analysis of the use of Artificial Intelligence (AI) in various aspects of biology, including healthcare, agriculture, and environmental monitoring. It highlights AI's ability to mimic human intelligence and analyze large datasets for predictions and tasks. The article also discusses its integration into Chinese medicine, where AI-guided diagnostic and therapeutic systems optimize clinical treatments and health management. AI is also used in disease management, analyzing data on diseases and pests, predicting their impact on ecosystems, and implementing preventative measures. The article also highlights the role of integrated information systems in environmental monitoring.
Artificial intelligence (AI) has significant potential in healthcare research and chemical discoveries. Pharmaceutical companies are using AI to improve drug development by utilizing computational biology and machine learning systems to predict molecular behavior and the likelihood of finding a useful drug. This saves time and money on unnecessary tests. Clinical studies, electronic medical records, high-resolution medical images, and genomic profiles can be used as resources for drug development. Strong AI systems can analyze extensive data sets in pharmaceutical and medical research. This review focuses on integrating knowledge of cancer drugs, drug resistance, next-generation sequencing, genetic variants, and structural biology in cancer precision drug discovery.
“…Fog computing is an infrastructure interposed between edge and cloud computing to enable more efficient data processing, analysis, and storage. Cloudlets are small-scale data centers designed to quickly deliver cloud computing services to mobile and wearable devices, increasing response time of applications [80].…”
This article provides an in-depth analysis of the use of Artificial Intelligence (AI) in various aspects of biology, including healthcare, agriculture, and environmental monitoring. It highlights AI's ability to mimic human intelligence and analyze large datasets for predictions and tasks. The article also discusses its integration into Chinese medicine, where AI-guided diagnostic and therapeutic systems optimize clinical treatments and health management. AI is also used in disease management, analyzing data on diseases and pests, predicting their impact on ecosystems, and implementing preventative measures. The article also highlights the role of integrated information systems in environmental monitoring.
Artificial intelligence (AI) has significant potential in healthcare research and chemical discoveries. Pharmaceutical companies are using AI to improve drug development by utilizing computational biology and machine learning systems to predict molecular behavior and the likelihood of finding a useful drug. This saves time and money on unnecessary tests. Clinical studies, electronic medical records, high-resolution medical images, and genomic profiles can be used as resources for drug development. Strong AI systems can analyze extensive data sets in pharmaceutical and medical research. This review focuses on integrating knowledge of cancer drugs, drug resistance, next-generation sequencing, genetic variants, and structural biology in cancer precision drug discovery.
“…Literature [23] points out that intelligent sports health management has such a secret for any enterprise and individual, that is, and specifically, after the individuals and enterprises passed the health management, the medical expenses decreased to the original level, the individuals and enterprises did not carry out health management, and the medical expenses increased by 90%. According to [24], the incidence rate of hyperglycemia in civil servants is 23.70%, and it has the characteristics of aging. Incidence rate incidence rate of hyperlipidemia in Xi'an civil servants was 41.32%, Xiao Ying, 2010, fatty liver incidence was 20.15%, and high uric acid incidence rate was 4.03%.…”
Intelligent sports health management refers to the whole process of comprehensively monitoring, analyzing, evaluating, providing health consultation and guidance, and intervening in health risk factors for individuals or groups. The rise of Internet of Things technology has played an obvious role in the health management of intelligent sports and realized the integration and optimal allocation of intelligent sports resources. At the same time, in the field of information technology, the emergence of cloud computing as a new computing mode enables people to directly obtain software and computing power through network applications, so as to innovate the intelligent sports health management system and improve the intelligent sports health management system. Cloud computing mainly realizes the storage capacity of massive data and distributed computing capacity through processor computing, virtualization technology, distributed storage technology, broadband Internet technology, and automatic management technology. Based on Internet of Things and cloud computing technology, taking intelligent sports management as the research carrier, an intelligent sports health management system is designed, which provides a new attempt to use advanced information technology to assist intelligent sports health management system.
“…Edge computing on SBCs was tackled in [11]. Since IoT devices are expanding, centralized cloud computing data centers are no longer suitable for IoT applications as they now present many challenges.…”
Increases in power demand and consumption are very noticeable. This increase presents a number of challenges to the traditional grid systems. Thus, there is the need to come up with a new solution that copes with the stringent demand on energy and provides better power quality, which gives a better experience to the end users. This is how the concept of smart grids (SG) came to light. SGs have been introduced to better monitor and control the power produced and consumed. In addition to this, SGs help with reducing the electricity bill through the integration of renewable energy sources. The underlying smartness of the SGs resides in the flow of information in addition to the flow of energy. Information/data flowing implies the use of smart sensors and smart meters that sense and send data about the power produced and consumed, and the data about the environment where they are deployed. This makes SGs a direct application of IoT. In this paper, we are implementing an edge platform that is based on single-board computers (SBCs) to process data stemming from SG. The use of SBCs is driven by the energy efficiency and cost effectiveness concepts that the SG is trying to apply. The platform in question is tested against a distributed job that averages random numbers using Hadoop’s MapReduce programming model. The SBC that we are using in this implementation is the NVIDIA Jetson Developer Kit. The results of this work show that a cluster of SBCs is low-cost, easy to maintain, and simple to deploy, which makes it a great candidate for providing edge computing. Although it revealed a performance that beat the one of the remote cloud servers, it could not outperform the single-computer edge platform.
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