| Literature DB >> 33110743 |
Amir Masoud Rahmani1,2,3, Seyedeh Yasaman Hosseini Mirmahaleh4.
Abstract
BACKGROUND ANDEntities:
Keywords: COVID-19; Detection; Prevention; Systematic literature review (SLR); Treatment
Year: 2020 PMID: 33110743 PMCID: PMC7578778 DOI: 10.1016/j.scs.2020.102568
Source DB: PubMed Journal: Sustain Cities Soc ISSN: 2210-6707 Impact factor: 10.696
A summary of the related works.
| Reference | Main topic | Publication month | Covered years |
|---|---|---|---|
| ( | Background disease (cardiovascular) | March | 2020 |
| ( | Background disease (diabetes and hypertension) | June | 2020 |
| ( | History of COVID-19 | May | 2020 |
| ( | Detection tools | March | 2020 |
| ( | Detection with laboratory tests | June | 2020 |
| ( | Detection of the infections (CT) | July | 2020 |
| ( | Detection of the infections (CT and radiologic) | February | 2020 |
| ( | Health safety | May | 2020 |
| ( | COVID-19’s injuries | July | 2020 |
| ( | COVID-19’s symptoms and injuries | March | 2020 |
Fig. 1The stages of our research method.
Fig. 2The number of referred papers depending on digital library.
Fig. 3A taxonomy tree for classifying the case studies.
The analyzing treatment methods.
| References | Main context | Case study | Advantage | Weakness | New finding |
|---|---|---|---|---|---|
| ( | INF-α lopinavir/ritonavir ribavirin chloroquine arbidol | Therapy | -Treatment | -Uncertainty for therapy all of the patients with COVID-19 | -Ten days for the patient's recovery |
| ( | type 1 interferons (INF-1) | Therapy | -Treatment | -Uncertainty for therapy with INF-β | -Antiviral effects of interferons |
| -detection | |||||
| - antiviral effects | |||||
| ( | Hydroxychloroquine Chloroquine | Therapy | -Treatment | -Uncertainty for therapy all of the patients with COVID-19 | -The harmony between the therapeutic and toxic dose |
| - antiviral effects | - The narrowing margin between the therapeutic and toxic | ||||
| ( | Hydroxychloroquine (HCQ) | Therapy | -Treatment | -High risk for people with congenital disorder QT | -Cardiac monitoring in regularly |
| Azithromycin (AZ) | -Effective for patients with background diseases | ||||
| HCQ + AZ | |||||
| ( | Plasmapheresis | Therapy | -Treatment | -Uncertainty for therapy all of the patients with COVID-19 | - Plasmapheresis |
| Lymphocytes counts | -Detection | -Need to plasma | |||
| Leukocytes counts | |||||
| GGO | |||||
| ( | Tocilizumab | Therapy | -Treatment | -Uncertainty for therapy all of the patients with COVID-19 | -Therapy method without noticeable adverse reactions |
| Lymphocytes counts | -Detection | -Without obvious adverse reactions | |||
| CRP | |||||
| ( | Neural networks (NNs) | NNs-based detection | -Accurate detection | - X-rays | -Detection under 5 seconds |
| nCoVnet | -Rapid detection | ||||
| Chest CT | |||||
| ( | Artificial intelligence (AI) | AI-based detection | -Accurate detection | - X-rays | -Infection segmentation deep network (Inf-Net) |
| Inf-Net | -Rapid detection | ||||
| Multi-class labelling | |||||
| Chest CT | |||||
| ( | Artificial intelligence | AI-based detection | -Accurate detection | - X-rays | -Binary classification |
| DarkNet | -Rapid detection | ||||
| Binary classification | |||||
| Multi-class classification | |||||
| Chest CT | |||||
| ( | Ultrasound | Ultrasound and CT-based detection | -Detection | -Computational complexity | -Accurate detection with ultrasound |
| MLUS | -Low cost | ||||
| HRCT | |||||
| ( | Ultrasound | Ultrasound-based detection | -Non-move the patient from ICU | -Highly efficiency in ICU | -Accurate detection with ultrasound |
| Point-of-care | -Increasing health safety in hospital | ||||
| ICU | - Not use ionizing radiation | ||||
| -Low cost | |||||
| ( | Laboratory tests | Laboratory tests-based detection | -Accurate detection | -Costly | -Transferring plasma after 7 days of the infected person's recovery |
| CBC | -Time overhead | ||||
| CRP | |||||
| ( | Laboratory tests | Laboratory tests-based detection | -Accurate detection | -Costly | -Distinguish between acute and non-acute COVID-19 |
| PCT | -Time overhead | ||||
| REM | |||||
| ( | Nutritional supplementations | Side therapy | -Side treatment | - Nutritional supplementations | -The negative impact of malnutrition before and during the disease |
| -Accelerate recovery | - A pragmatic protocol | ||||
| ( | Psychiatry | Side therapy | -Side treatment | -Always not access online psychiatrist | -Detecting ARDS in ICU for patients with COVID-19 |
| ARDS | - Psychiatry in ICU | ||||
| ICU | |||||
| Melatonin | |||||
| Suvorexant | |||||
| Guanfacine Haloperidol | |||||
| Valproic acid |
Comparison of the existing evaluation factors in treatment methods.
| References | Cost | Accuracy | Treatment ability | Detection ability | Direct COVID-19 treatment | Time overhead |
|---|---|---|---|---|---|---|
| ( | ✗ | ✗ | √ | ✗ | √ | ✗ |
| ( | ✗ | ✗ | √ | ✗ | √ | ✗ |
| ( | ✗ | ✗ | √ | ✗ | √ | ✗ |
| ( | ✗ | ✗ | √ | ✗ | √ | ✗ |
| ( | ✗ | ✗ | √ | √ | √ | ✗ |
| ( | ✗ | ✗ | √ | √ | √ | ✗ |
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| ( | √ | √ | ✗ | √ | ✗ | √ |
| ( | √ | √ | ✗ | √ | ✗ | √ |
| ( | ✗ | ✗ | √ | ✗ | ✗ | ✗ |
| ( | ✗ | ✗ | √ | √ | ✗ | ✗ |
The analyzing prevention methods.
| References | Main context | Case study | Advantage | Weakness | New finding |
|---|---|---|---|---|---|
| ( | Antibody | Prevention | -Likely to prevent COVID-19 | -Uncertainty for preventing COVID-19 | -Suitable time for seroconversion |
| IgG/IgM Rapid Test | |||||
| POC | -Detection | −3 weeks to develop antibody | |||
| LFIA | |||||
| Seroprevalence | |||||
| ( | Antibody | Prevention | -Likely to prevent COVID-19 | -Uncertainty for preventing COVID-19 | -Increasing during the time of seroprevalence for the low-risk group |
| Categorization | |||||
| Seroprevalence | -Detection | ||||
| ( | Antibody | Prevention | -Determining a time to begin to return to work | -Uncertainty for the issue | -Risk-based classifying workforce |
| Plasma | -Detection | ||||
| ( | Social distancing | Prevention | -Managing social distancing and quarantine | - Dependency on cultural factors | -Relationship between health resource and social distancing |
| Health resource | |||||
| Statistical calculations | |||||
| ( | Social distancing | Prevention | -Managing social distancing and quarantine | - Dependency on cultural and economic factors | -Relationship between social distancing, cultural and economic infrastructures |
| Cultural and economic | |||||
| Health-caring | |||||
| ( | Social distancing | Prevention | - Managing the gathering of people | -Dependency on cultural factors | - Relationship between managing the gathering of people and social distancing |
| Cultural and demographic factors | -Facing the COVID-19 outbreak | ||||
| GDP | |||||
| ( | Social distancing | Prevention | -Determining the safe distance margin | -Dependency on individual habits | - Relationship between environmental factors and safe distance margin |
| Environmental factors | |||||
| RH | |||||
| ( | Social distancing | Prevention | -Prediction-based social distancing | -Dependency on community factors | -Intelligent social distancing |
| Quarantine | |||||
| Mobile network | |||||
| ( | Social distancing | Prevention | - Reducing the probability of getting the disease | -Dependency on cultural factors and age suffering | -Relationship between age suffering and social distancing |
| Quarantine | |||||
| Multiple linear regression | |||||
| ( | Social distancing | Prediction | - Reducing the probability of getting the disease | -Computational complexity | -Creating good study platform |
| Weibull distribution | - Accurate and real-time predicting | ||||
| Cloud computing | |||||
| ( | Social distancing | Prediction | - Reducing the probability of getting the disease | - Dependency on cultural factors and economic | -Relationship between cultural factors and social distancing |
| ICT | |||||
| ( | Social distancing | Prediction | - Reducing the probability of getting the disease | -Online learning resource constraints | -Distance learning and dermatology trainees |
| Distance learning | |||||
| Online resources | |||||
| ( | Social distancing | Prediction | - Reducing the probability of getting the disease | -Online resource constraints | -Relationship between social distancing rules and risky patients |
| Distance advice | |||||
| Risky patients | |||||
| ( | Social distancing | Prediction | - Reducing the probability of getting the disease | -Personal privacy law | -Relationship between moving infection things and the virus outbreak |
| RFID | |||||
| IoT | |||||
| Blockchain | |||||
| ( | Prediction | Prediction | -Prediction | -Dependency on demographic factors | -Machine learning-based prediction model |
| Self-caring | -Detection | ||||
| Deep learning | -Managing the disease outbreak | ||||
| Machine learning | |||||
| ( | Prediction | Prediction | -Prediction | - Power consumption | -Nanotechnology-based tools |
| Artificial intelligence | -Detection | ||||
| IoT | -Rapid and accurate prediction | ||||
| IoMT | |||||
| ( | Quarantine | Prevention | -Detection | -Dependency on economic damages | -Relationship between quarantine and OCD |
| OCD | - Online consultations | ||||
| Y-BOCS | - Digital psychiatric | ||||
| ( | Psychotherapy | Prevention | -Detection | -Dependency on individual habits | -Relationship between Psychological parameters and prevention |
| DASS-21 | - Reducing the probability of getting the disease | ||||
| PNI |
Comparison of the existing evaluation factors in prevention methods.
| References | Definitive prevention | Detection ability | Prediction ability | Time overhead | Negative impact |
|---|---|---|---|---|---|
| ( | ✗ | √ | ✗ | √ | ✗ |
| ( | ✗ | √ | ✗ | ✗ | ✗ |
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| ( | √ | ✗ | ✗ | ✗ | √ |
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| ( | √ | ✗ | ✗ | ✗ | √ |
| ( | √ | ✗ | ✗ | ✗ | ✗ |
| ( | √ | ✗ | ✗ | ✗ | ✗ |
| ( | √ | √ | √ | ✗ | ✗ |
| ( | √ | √ | √ | ✗ | ✗ |
| ( | √ | √ | √ | ✗ | √ |
| ( | √ | √ | √ | ✗ | √ |
| ( | √ | √ | √ | ✗ | ✗ |
The analyzing effective parameters in the spread of COVID-19.
| References | Main context | Case study | Advantage | Weakness | New finding |
|---|---|---|---|---|---|
| ( | Geographical factors, Behavioral factors, Economic factors | All effective parameters in the spread of COVID-19 | -Reducing the probability of COVID-19 outbreak | -Dependency on economic factors | -Relationship between epidemic and geographical, behavioral, or economic factors |
| Numerical test | |||||
| ( | Migration | Environmental effective parameters in spread of COVID-19 | -Reducing the probability of COVID-19 outbreak | -Dependency on communications and migrations | -Relationship between epidemic and restricting trade and wildlife migration |
| Restricting large gatherings | |||||
| Restricting trade and wildlife migration | |||||
| ( | Migration | The migration and quarantine’s role in the COVID-19 outbreak | -Reducing the probability of COVID-19 outbreak | -Dependency on communications and migrations | - Predicting the relationship between epidemic, migration, and removing quarantine restrictions |
| Quarantine | |||||
| Social distancing | |||||
| Artificial intelligence | |||||
| ( | Migration | The migration’s role of asymptomatic carriers and patients without acute symptoms | -Reducing the probability of COVID-19 outbreak | -Dependency on communications and migrations | -Relationship between epidemic and asymptomatic carriers and patients without acute symptoms migrations |
| Quarantine | |||||
| Social distancing | |||||
| Mathematical model | |||||
| ( | Migration | The migration’s role of asymptomatic carriers and patients without acute symptoms | -Reducing the probability of COVID-19 outbreak | -Dependency on communications and migrations | -Relationship between epidemic and asymptomatic carriers and patients without acute symptoms migrations |
| Quarantine | |||||
| Periodically tests | |||||
| ( | Migration | The migration’s role of asymptomatic carriers and patients without acute symptoms | -Reducing the probability of COVID-19 outbreak | -Dependency on communications and migrations | -Relationship between epidemic and asymptomatic carriers, patients without acute symptoms migrations, and workplaces |
| Quarantine | |||||
| HCW tests | |||||
| ( | National culture | National culture effective parameters in spread of COVID-19 | -Reducing the probability of COVID-19 outbreak | -Dependency on harmful individual | -Relationship between epidemic and national culture |
| Cultural psychology | |||||
| Harmful individual | |||||
| ( | Weather condition | Weather conditions’ impact on COVID-19 outbreak | -Reducing the probability of COVID-19 outbreak | -Dependency on weather condition | -Relationship between epidemic and weather condition |
| Environmental parameters | |||||
| HVAC | |||||
| ( | Economic damages | Facing economic damages caused by quarantine | -Reducing the economic damages and management it | -Dependency on power economic | -Improving lockdown coverage with dynamic clustering |
| Management | |||||
| Machine learning algorithm |
Comparison of the existing evaluation factors in effective parameters in the spread of COVID-19.
| References | Cultural factors | Environmental factors | Individual factors | Prevention ability | Management ability |
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| ( | √ | √ | √ | √ | √ |
| ( | ✗ | √ | ✗ | √ | √ |
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Comparison of the existing literature's based on treatment, prevention, and detection.
| References | Prevention | Treatment ability | Detection ability | Direct COVID-19 treatment |
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| ( | ✗ | √ | ✗ | √ |
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Fig. 4COVID-19 new cases mapping in all the world (Anonymous, 2020a) (a) Displaying the severity of the disease based on color (b) The statistic of COVID-19 new cases on the world map.
Fig. 5Effective parameters in the spread of COVID-19 (%).
Fig. 6The impact of the categorized prevention methods against COVID-19 outbreak (%).
Fig. 7The impact of the categorized methods against COVID-19 outbreak (%).
Fig. 8The Statistics of the detected new cases of patients with COVID-19 in all the world (Anonymous, 2020a).
Fig. 9The Statistics of the dead people with COVID-19 in all the world (Anonymous, 2020a).