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Genomics & Precision Health Database|Non-Genomics Precision Health Update Archive|Public Health Genomics and Precision Health Knowledge Base (PHGKB) Published on 09/02/2021

About Non-Genomics Precision Health Scan

This update features emerging roles of big data science, machine learning, and predictive analytics across the life span. The scan focus on various conditions including, birth defects, newborn screening, reproductive health, childhood diseases, cancer, chronic diseases, medication, family health history, guidelines and recommendations. The sweep also includes news, reviews, commentaries, tools and database. View Data Selection Criteria

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Birth Defects and Child Health

Machine learning with neuroimaging data to identify autism spectrum disorder: a systematic review and meta-analysis.
Song Da-Yea et al. Neuroradiology 2021

Artificial intelligence manages congenital cataract with individualized prediction and telehealth computing.
Long Erping et al. NPJ digital medicine 2021 3(1) 112

Classification of Children With Autism and Typical Development Using Eye-Tracking Data From Face-to-Face Conversations: Machine Learning Model Development and Performance Evaluation.
Zhao Zhong et al. Journal of medical Internet research 2021 23(8) e29328

Previous studies have shown promising results in identifying individuals with autism spectrum disorder by applying machine learning (ML) to eye-tracking data collected while participants viewed varying images (pictures, videos, and web pages). Although gaze behavior is known to differ between face-to-face interaction and image-viewing tasks, no study has investigated whether eye-tracking data from face-to-face conversations can also accurately identify individuals with ASD.

Cancer

Risk stratification of early-stage cervical cancer with intermediate-risk factor: model development and validation based on machine learning algorithm.
Chu Ran et al. The oncologist 2021

A Pipeline for Predicting the Treatment Response of Neoadjuvant Chemoradiotherapy for Locally Advanced Rectal Cancer Using Single MRI Modality: Combining Deep Segmentation Network and Radiomics Analysis Based on "Suspicious Region".
Pang Xiaolin et al. Frontiers in oncology 2021 11711747

Combination of Radiomics and Machine Learning with Diffusion-Weighted MR Imaging for Clinical Outcome Prognostication in Cervical Cancer.
Jajodia Ankush et al. Tomography (Ann Arbor, Mich.) 2021 7(3) 344-357

Deep learning radiomic nomogram to predict recurrence in soft tissue sarcoma: a multi-institutional study.
Liu Shunli et al. European radiology 2021

Evaluation of the Effectiveness of Artificial Intelligence Chest CT Lung Nodule Detection Based on Deep Learning.
Liang Fukui et al. Journal of healthcare engineering 2021 20219971325

Using Autoregressive Integrated Moving Average (ARIMA) Modelling to Forecast Symptom Complexity in an Ambulatory Oncology Clinic: Harnessing Predictive Analytics and Patient-Reported Outcomes.
Watson Linda et al. International journal of environmental research and public health 2021 18(16)

Deep Learning Analysis of CT Images Reveals High-Grade Pathological Features to Predict Survival in Lung Adenocarcinoma.
Choi Yeonu et al. Cancers 2021 13(16)

Challenges in the Use of Artificial Intelligence for Prostate Cancer Diagnosis from Multiparametric Imaging Data.
Corradini Daniele et al. Cancers 2021 13(16)

Uncovering barriers to screening for distress in patients with cancer via machine learning.
Günther Moritz Philipp et al. Journal of the Academy of Consultation-Liaison Psychiatry 2021

Evaluation of novel LCI CAD EYE system for real time detection of colon polyps.
Neumann Helmut et al. PloS one 2021 16(8) e0255955

Chronic Disease

Machine learning applications in tobacco research: a scoping review.
Fu Rui et al. Tobacco control 2021

74 studies were grouped into four domains: ML-powered technology to assist smoking cessation (n=22); content analysis of tobacco on social media (n=32); smoker status classification from narrative clinical texts (n=6) and tobacco-related outcome prediction using administrative, survey or clinical trial data (n=14). Implications of these studies and future directions for ML researchers in tobacco control were discussed.ML represents a powerful tool that could advance the research and policy decision-making of tobacco control.

Dietary Intake and Health Status of Elderly Patients With Type 2 Diabetes Mellitus: Cross-sectional Study Using a Mobile App in Primary Care.
Coleone Joane Diomara et al. JMIR formative research 2021 5(8) e27454

Detecting diabetic retinopathy through machine learning on electronic health record data from an urban, safety net healthcare system.
Ogunyemi Omolola I et al. JAMIA open 2021 4(3) ooab066

Using a Convolutional Neural Network to Predict Remission of Diabetes After Gastric Bypass Surgery: Machine Learning Study From the Scandinavian Obesity Surgery Register.
Cao Yang et al. JMIR medical informatics 2021 9(8) e25612

Deep Convolutional Neural Network Regularization for Alcoholism Detection Using EEG Signals.
Mukhtar Hamid et al. Sensors (Basel, Switzerland) 2021 21(16)

A Machine Learning Approach to Passively Informed Prediction of Mental Health Risk in People with Diabetes: Retrospective Case-Control Analysis.
Yu Jessica et al. Journal of medical Internet research 2021 23(8) e27709

Predicting 1-Year Mortality after Hip Fracture Surgery: An Evaluation of Multiple Machine Learning Approaches.
Forssten Maximilian Peter et al. Journal of personalized medicine 2021 11(8)

Deep Learning Algorithm for Management of Diabetes Mellitus via Electrocardiogram-Based Glycated Hemoglobin (ECG-HbA1c): A Retrospective Cohort Study.
Lin Chin-Sheng et al. Journal of personalized medicine 2021 11(8)

Unsupervised Machine Learning to Identify Separable Clinical Alzheimer's Disease Sub-Populations.
Prakash Jayant et al. Brain sciences 2021 11(8)

General Practice

Digital Natives' Preferences on Mobile Artificial Intelligence Apps for Skin Cancer Diagnostics: Survey Study.
Haggenmüller Sarah et al. JMIR mHealth and uHealth 2021 9(8) e22909

Machine learning powered tools for automated analysis of muscle sympathetic nerve activity recordings.
Nolde Janis M et al. Physiological reports 2021 9(16) e14996

Convolution neural network for the diagnosis of wireless capsule endoscopy: a systematic review and meta-analysis.
Qin Kaiwen et al. Surgical endoscopy 2021

Review of study reporting guidelines for clinical studies using artificial intelligence in healthcare.
Shelmerdine Susan Cheng et al. BMJ health & care informatics 2021 28(1)

A survey of extant organizational and computational setups for deploying predictive models in health systems.
Kashyap Sehj et al. Journal of the American Medical Informatics Association : JAMIA 2021

Artificial intelligence in the management and treatment of burns: a systematic review.
E Moura Francisco Serra et al. Burns & trauma 2021 9tkab022

Artificial Intelligence: Guidance for clinical imaging and therapeutic radiography professionals, a summary by the Society of Radiographers AI working group.
Malamateniou C et al. Radiography (London, England : 1995) 2021

A systematic review of machine learning and automation in burn wound evaluation: A promising but developing frontier.
Huang Samantha et al. Burns : journal of the International Society for Burn Injuries 2021

Development and Assessment of an Interpretable Machine Learning Triage Tool for Estimating Mortality After Emergency Admissions.
Xie Feng et al. JAMA network open 2021 4(8) e2118467

Predicting Risks of Machine Translations of Public Health Resources by Developing Interpretable Machine Learning Classifiers.
Xie Wenxiu et al. International journal of environmental research and public health 2021 18(16)

Psychiatry in the Digital Age: A Blessing or a Curse?
Roth Carl B et al. International journal of environmental research and public health 2021 18(16)

Assessment of Volatile Aromatic Compounds in Smoke Tainted Cabernet Sauvignon Wines Using a Low-Cost E-Nose and Machine Learning Modelling.
Summerson Vasiliki et al. Molecules (Basel, Switzerland) 2021 26(16)

Current Status and Future Perspective of Artificial Intelligence in the Management of Peptic Ulcer Bleeding: A Review of Recent Literature.
Yen Hsu-Heng et al. Journal of clinical medicine 2021 10(16)

A review on utilizing machine learning technology in the fields of electronic emergency triage and patient priority systems in telemedicine: Coherent taxonomy, motivations, open research challenges and recommendations for intelligent future work.
Salman Omar H et al. Computer methods and programs in biomedicine 2021 209106357

Radiomics: a primer on high-throughput image phenotyping.
Lafata Kyle J et al. Abdominal radiology (New York) 2021

Recommendations for Integrating the Fundamentals of Machine Learning Into Medical Curricula.
Nagirimadugu Newton V et al. Academic medicine : journal of the Association of American Medical Colleges 2021 96(9) 1230

Application of artificial intelligence in gastrointestinal disease: a narrative review.
Zhou Jun et al. Annals of translational medicine 2021 9(14) 1188

Heart, Lung, Blood and Sleep Diseases

Applications of machine learning to undifferentiated chest pain in the emergency department: A systematic review.
Stewart Jonathon et al. PloS one 2021 16(8) e0252612

Development of a machine learning-based real-time location system to streamline acute endovascular intervention in acute stroke: a proof-of-concept study.
Lim Dee Zhen et al. Journal of neurointerventional surgery 2021

Development and validation of techniques for phenotyping ST-elevation myocardial infarction encounters from electronic health records.
Somani Sulaiman et al. JAMIA open 2021 4(3) ooab068

The Role of Deep Learning-Based Echocardiography in the Diagnosis and Evaluation of the Effects of Routine Anti-Heart-Failure Western Medicines in Elderly Patients with Acute Left Heart Failure.
Chen Jinyou et al. Journal of healthcare engineering 2021 20214845792

Characterizing Mitral Regurgitation With Precision Phenotyping and Unsupervised Learning.
Ouyang David et al. JACC. Cardiovascular imaging 2021

A Machine Learning Methodology for Identification and Triage of Heart Failure Exacerbations.
Morrill James et al. Journal of cardiovascular translational research 2021

A proof of concept study for machine learning application to stenosis detection.
Jones Gareth et al. Medical & biological engineering & computing 2021

Validation of a Whole Heart Segmentation from Computed Tomography Imaging Using a Deep-Learning Approach.
Sharobeem Sam et al. Journal of cardiovascular translational research 2021

Machine learning model to predict hypotension after starting continuous renal replacement therapy.
Kang Min Woo et al. Scientific reports 2021 11(1) 17169

Deep neural network-estimated electrocardiographic age as a mortality predictor.
Lima Emilly M et al. Nature communications 2021 12(1) 5117

Infectious Diseases

Prediction of vaccine hesitancy based on social media traffic among Israeli parents using machine learning strategies.
Bar-Lev Shirly et al. Israel journal of health policy research 2021 10(1) 49

Tuberculosis detection from chest x-rays for triaging in a high tuberculosis-burden setting: an evaluation of five artificial intelligence algorithms.
Qin Zhi Zhen et al. The Lancet. Digital health 2021 3(9) e543-e554

We aimed to evaluate five commercial AI algorithms for triaging tuberculosis using a large dataset that had not previously been used to train any AI algorithms.Individuals aged 15 years or older presenting or referred to three tuberculosis screening centres in Dhaka, Bangladesh, between May 15, 2014, and Oct 4, 2016, were recruited consecutively. We found that AI algorithms can be highly accurate and useful triage tools for tuberculosis detection in high-burden regions, and outperform human readers.

A Promising Approach: Artificial Intelligence Applied to Small Intestinal Bacterial Overgrowth (SIBO) Diagnosis Using Cluster Analysis.
Hao Rong et al. Diagnostics (Basel, Switzerland) 2021 11(8)

Utility of a Short Neuropsychological Protocol for Detecting HIV-Associated Neurocognitive Disorders in Patients with Asymptomatic HIV-1 Infection.
Martinez-Banfi Martha et al. Brain sciences 2021 11(8)


Disclaimer: Articles listed in Non-Genomics Precision Health Scan are selected by the CDC Office of Genomics and Precision Public Health to provide current awareness of the scientific literature and news. Inclusion in the update does not necessarily represent the views of the Centers for Disease Control and Prevention nor does it imply endorsement of the article's methods or findings. CDC and DHHS assume no responsibility for the factual accuracy of the items presented. The selection, omission, or content of items does not imply any endorsement or other position taken by CDC or DHHS. Opinion, findings and conclusions expressed by the original authors of items included in the Clips, or persons quoted therein, are strictly their own and are in no way meant to represent the opinion or views of CDC or DHHS. References to publications, news sources, and non-CDC Websites are provided solely for informational purposes and do not imply endorsement by CDC or DHHS.
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