Haik Kalantarian

Dr. Haik Kalantarian


Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 March 2015 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
HKHaik Kalantarian
Haik Kalantarian
NANabil Alshurafa
Nabil Alshurafa
TLTuan Le
Tuan Le
MSMajid Sarrafzadeh
Majid Sarrafzadeh

1 October 2015 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
HKHaik Kalantarian
Haik Kalantarian
MSMajid Sarrafzadeh
Majid Sarrafzadeh

1 May 2016 in Artificial Intelligence in Medicine
Verified
Journal Article
Closed access
HKHaik Kalantarian
Haik Kalantarian
BMBabak Motamed
Babak Motamed
NANabil Alshurafa
Nabil Alshurafa
MSMajid Sarrafzadeh
Majid Sarrafzadeh

2 November 2015 in IEEE Sensors Journal
Verified
Journal Article
Closed access
HKHaik Kalantarian
Haik Kalantarian
NANabil Alshurafa
Nabil Alshurafa
MSMajid Sarrafzadeh
Majid Sarrafzadeh
Poor adherence to prescription medication can compromise treatment effectiveness and cost the billions of dollars in unnecessary health care expenses. Though various interventions have been proposed for estimating adherence rates, few have been shown to be effective. Digital systems are capable of estimating adherence without extensive user involvement and can potentially provide higher accuracy with lower user burden than manual methods. In this paper, we propose a smartwatch-based system for detecting several motions that may be predictors of medication adherence, using built-in triaxial accelerometers and gyroscopes. The efficacy of the proposed technique is confirmed through a survey of medication ingestion habits and experimental results on movement classification.

3 August 2017 in Sensors
Verified
Journal Article
Open access
PDF file
AHAnahita Hosseini
Anahita Hosseini
CBChris M. Buonocore
Chris M. Buonocore
SHSepideh Hashemzadeh
Sepideh Hashemzadeh
HHHannaneh Hojaiji
Hannaneh Hojaiji
HKHaik Kalantarian
Haik Kalantarian
MSMajid Sarrafzadeh
Majid Sarrafzadeh
To address the need for asthma self-management in pediatrics, the authors present the feasibility of a mobile health (mHealth) platform built on their prior work in an asthmatic adult and child. Real-time asthma attack risk was assessed through physiological and environmental sensors. Data were sent to a cloud via a smartwatch application (app) using Health Insurance Portability and Accountability Act (HIPAA)-compliant cryptography and combined with online source data. A risk level (high, medium or low) was determined using a random forest classifier and then sent to the app to be visualized as animated dragon graphics for easy interpretation by children. The feasibility of the system was first tested on an adult with moderate asthma, then usability was examined on a child with mild asthma over several weeks. It was found during feasibility testing that the system is able to assess asthma risk with 80.10 ± 14.13% accuracy. During usability testing, it was able to continuously collect sensor data, and the child was able to wear, easily understand and enjoy the use of the system. If tested in more individuals, this system may lead to an effective self-management program that can reduce hospitalization in those who suffer from asthma.

1 June 2016
Verified
Conference Paper
Closed access
AHAnahita Hosseini
Anahita Hosseini
CBChris M. Buonocore
Chris M. Buonocore
SHSepideh Hashemzadeh
Sepideh Hashemzadeh
HHHannaneh Hojaiji
Hannaneh Hojaiji
HKHaik Kalantarian
Haik Kalantarian
MSMajid Sarrafzadeh
Majid Sarrafzadeh
Asthma is the most prevalent chronic disease among pediatrics, as it is the leading cause of student absenteeism and hospitalization for those under the age of 15. To address the significant need to manage this disease in children, the authors present a mobile health (mHealth) system that determines the risk of an asthma attack through physiological and environmental wireless sensors and representational state transfer application program interfaces (RESTful APIs). The data is sent from wireless sensors to a smartwatch application (app) via a Health Insurance Portability and Accountability Act (HIPAA) compliant cryptography framework, which then sends data to a cloud for real-time analytics. The asthma risk is then sent to the smartwatch and provided to the user via simple graphics for easy interpretation by children. After testing the safety and feasibility of the system in an adult with moderate asthma prior to testing in children, it was found that the analytics model is able to determine the overall asthma risk (high, medium, or low risk) with an accuracy of 80.10±14.13%. Furthermore, the features most important for assessing the risk of an asthma attack were multifaceted, highlighting the importance of continuously monitoring different wireless sensors and RESTful APIs. Future testing this asthma attack risk prediction system in pediatric asthma individuals may lead to an effective self-management asthma program.