| Literature DB >> 34312593 |
Ali H Shamman1, Ahmed A Hadi1, Ali R Ramul1, Musaddak M Abdul Zahra1,2, Hassan M Gheni1.
Abstract
COVID-19 gains from the research and technology component's establishment of information science, artificial intelligence, and computer understanding. The article aims to discuss the numerous facets of today's modern technology utilized to combat COVID-19 emergencies on various scales, such as medicinal picture handling, illness tracking, expected outcomes, computational science, and medications. Techniques: A complex search of the knowledge base associated with existing COVID-19 innovation is conducted. Furthermore, a concise survey of the excluded data is conducted, analyzing the various aspects of current developments for dealing with the COVID-19 pandemic. The below are the outcomes: We have a window of musings on the audit of the tech propellers used to mitigate and mask the significant impact of the upheaval. Even though several investigations into current innovation in COVID-19 have surfaced, there are still required implementations and contributions of innovation in this war. Consequently, a thorough presentation of the available data is given, and several modern technology implementations for combating the pandemic of COVID-19. Continuous advancements of advanced technologies have aided in improving the public's lives, and there is a strong belief that proven study plans utilizing AI would be of great benefit in assisting people in combating this infection.Entities:
Keywords: Artificial intelligence; COVID-19; Machine learning; Modern technology
Year: 2021 PMID: 34312593 PMCID: PMC8295009 DOI: 10.1016/j.matpr.2021.07.357
Source DB: PubMed Journal: Mater Today Proc ISSN: 2214-7853
Fig. 1Pandemic preparedness and reaction utilizing digital technology [21].
Fig. 2Overall procedure for non-AI and AI-related software that assist general practitioners in detecting COVID-19 symptoms.
Different implementations of recent technologies for conflict COVID-19 pandemic.
| System | Functions | Digital technology | Benefits | Drawbacks |
|---|---|---|---|---|
| Tracking | Real-time monitoring of illness occurrence | Real-time data from a technology of wearable and smartphones; dashboards of data; maps of migration; machine learning | Enables for a visual representation of the spread; directs boundary limitations; directs the allocation of resources; and advises forecasts | It might jeopardize privacy, comes at a high cost, require management and control. |
| Infection Screening | Populations and Individuals are screened for the illness. | Temperature sensors, smartphone apps, infrared cameras, and web-based toolkits are all examples of AI. | Recognizes patients for research, touch tracing, and isolation, providing details on illness incidence and pathology. | May infringe on people's privacy; struggles to diagnose asymptomatic people based on self-reported indications or vital sign monitoring; entails high costs; necessitates management and regulation; |
| Contact tracing | Persons who may have come into touch with an infectious individual are identified and tracked. | The technology of wearable; the systems of global positioning; smartphones applications; real-time tracking of mobile phone devices | Recognizes and quarantines all that have been exposed to the virus; monitors viral transmission. | If the app is disabled, the mobile device is missing, or Wi-Fi or cell access is insufficient, it could violate privacy; it may identify people that have not been exposed but have had contact; it may struggle to identify persons who are exposed if the app is disabled, the mobile phone is missing, or Wi-Fi or cell connectivity is inadequate. |
| Quarantine and self-isolation | Recognizes and monitors sick people, as well as putting them under quarantine. | Smartphone apps; AI; cameras and digital camcorders; the systems of global positioning; | Isolates infections; travel of restricts | Civil liberties are violated; food and vital supplies can be restricted, and persons who leave quarantine without detectors are not detected. |
| Clinical management | Diagnoses sick people and keeps track of their health. | ML; virtual treatment or telemedicine platforms; AI for diagnostics. | Aids in clinical decision-making, diagnostic tools, and risk prediction; allows for more effective service delivery; | Might jeopardize medical privacy; struggles to evaluate patients properly; comes at a great expense; machinery could break down. |
Uses of modern technique throughout pandemic of COVID-19.
| No | Uses | Description | References |
|---|---|---|---|
| 1 | Diagnosis utilizing radiology images | A5I is utilized to obtain radiological characteristics in order to provide prompt and reliable results. Diagnosis of COVID-19 By the number of pictures, early identification of COVID-19 instances using different CNN models may be checked. COVID-19 identification instances from X-rays and CT pictures, COVID-Net, a CNN Based design, may be utilized. COVID-19 identification neural network (COVNet) distinguishes COVID-19 from community-acquired pneumonia and other lung problems. Besides early COVID-19 Case identification, 3D deep learning models may be utilized. | |
| 2 | Disease tracking | respiratory habits that are abnormal The classifier could help with large-scale COVID-19 infection screening. The infected individuals are estimated using a time-dependent SIR model. A GRU neural network with mechanisms of bidirectional and attentional (BI-AT-GRU) was created to classify respiratory trends. The SEIR (Susceptible, Removed, Infectious, and Recovered or Exposed) model predicts the outbreak's course. | |
| 3 | Forecast outcome of patient’s health condition | The supervised XGBoost classifier makes a simple and intuitive clinical test possible to accurately and efficiently measure the probability of death. The viability and precision of ML-based CT radiomics models for predicting stay in hospital in COVID-19 sick people are illustrated. | |
| 4 | Computational Biology and Medicines perspective | Benevolent AI was utilized to look for baricitinib, a drug that is expected to reduce the virus's capacity to infect lung cells. RFID and Hybrid Algorithms. | |
| 5 | Protein structure forecasts | Using deep neural networks, the Critical Evaluation of Approaches for Protein Structure Forecast (CASP) predicts protein properties from the genetic sequence. For dense forecasting, convolution architectures networks are detected. The residual learning system can be utilized to prepare even deeper image recognition networks even more accessible. | |
| 6 | Drug discovery | To create innovative drug composites, an AI-based drug development pipeline has been integrated. To disassociate the style and quantity of files, unsupervised grouping, visualization techniques, and dimension decrease, adversarial autoencoders have been utilized. |