Using Big Data to Investigate Trends and Drivers of HIV Viral Suppression: A Research Protocol
Received: 05-Mar-2022 / Manuscript No. icr-22-56186 / Editor assigned: 07-Mar-2022 / PreQC No. icr-22-56186 / Reviewed: 21-Mar-2022 / QC No. icr-22-56186 / Revised: 26-Mar-2022 / Manuscript No. icr-22-56186 / Published Date: 02-Apr-2022 DOI: 10.4172/icr.1000115
Given the importance of agent suppression in ending the HIV epidemic among the U.S.A. et al., an optimum prophetic model of agent standing can facilitate clinicians establish those in peril of poor agent management and inform clinical enhancements in HIV treatment and care. With an increasing availability of electronic health record (EHR) data and social environmental data, there is a novel likelihood to spice up our understanding of the dynamic pattern of agent suppression. Using a broad cohort of people living with HIV (PLWH) in South Carolina (SC), the overall goal of the projected analysis is to appear at the dynamic patterns of agent suppression, develop optimum prophetic models of varied agent suppression indicators, and translate the models to a beta version of service-ready tools for clinical decision support.
The PLWH cohort square measure attending to be familiar through the SC raised HIV/AIDS coverage System (eHARS). The SC Office of Revenue and Fiscal Affairs (RFA) will extract longitudinal EHR clinical data of all PLWH in SC from multiple health systems, get data from different state agencies, and link the patient-level data with countylevel data from multiple publicly out there data sources. victimization the identified data, the projected study will embody three operational phases: section 1: “Pattern Analysis” to identify the longitudinal dynamics of agent suppression victimization multiple agent load indicators; section 2: “Model Development” to figure out the crucial predictors of multiple agent load indicators through engineering (AI)-based modeling accounting for structure factors; and section 3: “Translational Research” to develop a fancy clinical decision system supported a risk prediction model to assist with the identification of the possibility of agent failure or agent rebound once patients gift at clinical visits [1].
With both intensive data integration and data analytics, the projected analysis will: (1) improve the understanding of the sophisticated inter-related effects of longitudinal trajectories of HIV agent suppressions and HIV treatment history whereas taking into thought structure factors; and (2) develop empirical public health approaches to appreciate ending the HIV epidemic through translating the possibility prediction model to a fancy decision system that enables the feasibility of AI-assisted clinical selections [2].
Using a data science approach, this study aims to appear at the longitudinal dynamic pattern of agent suppression, develop optimum prophetic models of varied agent suppression indicators, and translate the models to service-ready tools for clinical support and decisionmaking. Our main analysis objectives square measure threefold. the first objective is to identify the longitudinal dynamics of agent suppression among PLWH in SC victimization multiple indicators, including, but not restricted to, time to initial suppression (from designation or ART uptake), sustained suppression (e.g., virally suppressed for > 40 months), agent rebound (both time to rebound and level of agent rebound), agent blips, and different relevant VL measures (e.g., LLV). The second objective is to figure out the crucial predictors of multiple VL indicators through engineering (AI)-based modeling accounting for factors at the individual level (e.g., patient demographics, treatment programmes, and health care service utilization), structural level (e.g., geographical area, availability of treatment facility, and specialty), and socioenvironmental level (e.g., socioeconomic level) [3]. Finally, the analysis will develop a fancy decision system supported a risk prediction model to assist with the identification of the possibility of VF or agent rebound once patients gift at clinical visits.
The increasing availability of electronic data, in conjunction with electronic medical records, body databases, and public county-level data, has created a completely unique likelihood to expand our ability to measure HIV-related health and clinical outcomes. The projected study will integrate data from every individual-level and county-level. Victimization the integrated data, we are going to examine patients’ risk factors at the individual and county levels lengthwise and generate new data of HIV agent suppression. Data sources square measure delineate in larger detail below [4].
DAODAS is that the SC workplace accountable for providing services to prevent or cut back consequences of substance use and addictions. DAODAS contracts with 32 native alcohol and habit authorities to create positive that bar and treatment services square measure out there across all 46 counties in SC. DAODAS data embrace shopper data on admissions/intake assessment, history of use, transfer, services provided, and discharge data related to alcohol and substance use among individual patients.
The ACS may be a nationwide survey from a sample of the population within the U.S.A. and Puerto law. The ACS collects data like age, race, income, education, and different socioeconomic/ demographic information. All ACS information square measure survey estimates, and every estimate encompasses a margin of error printed by the U.S.A. agency. ACS estimates square measure amount estimates that describe the typical of characteristics of the population and housing over a amount of knowledge assortment.
AHRF may be a public county-level dataset from HRSA that contains files in eight domains namely: Health Care Professions, Health Facilities, Population Characteristics, Economics, Health Professions coaching, Hospital Utilization, Hospital Expenditures, and setting [5]. AHRF was designed to be employed by policymakers, researchers, et al. curious about the nation’s health supplying systems and factors that will impact health standing and health care within the US.
Considering the multiple VL indicators, we have a tendency to anticipate many tasks for prediction. Task one involves prediction of VL standing among PLWH in SC. infectious agent load standing, together with infectious agent suppression, LLV, rebound, blip and VF, is that the primary outcome of interest. All infectious agent loads standing are outlined as a binary outcome, and a supervised RNN are used to construct the classification model of infectious agent load standing. Task a pair of involves the length of suppression. Tasks three and four involve the time to suppression (failure) or rebound at intervals 3 to 9 months since PLWH in SC can have their regular check-ups each VI months. We are going to summarize the length in suppression or time to suppression (failure) or rebound supported five quantiles, together with minimum, twenty fifth centile, fiftieth centile, seventy fifth centile, and most. In line with these timeframes, we are going to style the time windows for modeling. This converts time into associate ordinal multiclass classification downside. The Cohen’s linear weighted alphabetic character is accustomed live correlation between ordered things.
The increasing accessibility of electronic information, together with electronic medical records, body databases, and public countylevel information, has created a singular chance to expand our ability to live HIV-related health and clinical outcomes. With the integrated information, we will examine patients’ risk factors at the individual and county levels lengthwise and generate new information of HIV infectious agent suppression. However, these integrated information sources square measure characterized by high volume and variation, and there square measure many information analytic challenges within the integrated organization, together with mismatched time scales and construction risk predictors. The recent developments in massive information analytics, like artificial neural network, LSTM Neural Network, random forest, support vector machine, and deep learning approach like CNN, create it possible to handle these method challenges and predict virologic outcomes victimization information from multiple domains.
Over fitting will be a haul in deep neural networks with an outsized variety of parameters. To avoid this downside, we are going to use the dropout methodology that may be a common regularization technique for reducing over fitting in neural networks. The key plan is to indiscriminately drop some neurons (along with their connections) from the neural network throughout coaching. This prevents the neural units from over co-adapting (note that dropout is disabled in testing, i.e., the entire network is employed for estimation). For the integrated information we would have continual observations at the one purpose or missing data at a specific live. If there's over one worth on the market throughout a specific time purpose, the mean of the values throughout {that time that purpose} point are calculated. If there's no worth reported throughout a specific time, a missing worth are set. We are going to use mean and variance to remodel real values into categorical values; missing values are allotted to a special class. Betting on the modeling approach, we are going to input the missing values.
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Citation: Wu H (2022) Using Big Data to Investigate Trends and Drivers of HIV Viral Suppression: A Research Protocol. Immunol Curr Res, 6: 115. DOI: 10.4172/icr.1000115
Copyright: © 2022 Wu H. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
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