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Dive into the research topics where Mark Zdeblick is active.

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Featured researches published by Mark Zdeblick.


IEEE Transactions on Biomedical Engineering | 2015

An ingestible sensor for measuring medication adherence.

Hooman Hafezi; Timothy Robertson; Greg Moon; Kit Yee Au-Yeung; Mark Zdeblick; George Savage

In this paper, we describe the design and performance of the first integrated-circuit microsensor developed for daily ingestion by patients. The ingestible sensor is a device that allows patients, families, and physicians to measure medication ingestion and adherence patterns in real time, relate pharmaceutical compliance to important physiologic metrics, and take appropriate action in response to a patients adherence pattern and specific health metrics. The design and theory of operation of the device are presented, along with key in-vitro and in-vivo performance results. The chemical, toxicological, mechanical, and electrical safety tests performed to establish the devices safety profile are described in detail. Finally, aggregate results from multiple clinical trials involving 412 patients and 5656 days of system usage are presented to demonstrate the devices reliability and performance as part of an overall digital health feedback system.


Wireless Health 2010 on | 2010

A networked system for self-management of drug therapy and wellness

Kit Yee Au-Yeung; Timothy Robertson; Hooman Hafezi; Gregory Moon; Lorenzo DiCarlo; Mark Zdeblick; George Savage

Background: A networked wellness system is under development to document actual ingestions of oral medications, to differentiate types/doses of drugs taken simultaneously, and to provide these data along with other metrics to patients and providers for individually tailored care. Methods: After ingestion, an edible sensor (embedded in drug) is activated by stomach fluid and communicates to a wearable monitor that identifies the sensor as unique and records ingestion time/date. The monitor also collects physiologic data and communicates via mobile phone to a secure server that integrates the data with other wireless devices (e.g. blood pressure, weight). Summary reports are generated periodically for patient and physician review. Results: No adverse effects were observed in animals using repeated, exaggerated doses of sensors. Two drug-sensor form factors have been tested in 3392 human ingestions with no major and very few minor adverse effects. Sensitivity was 97.0% and specificity was 97.7% when compared to directly observed ingestion. The system identified and differentiated up to 4 simultaneously ingested sensors with an identification accuracy of 100%. Data integration with multiple devices and report generation have been piloted successfully. Conclusions: Pre-clinical and early clinical system safety appear satisfactory; data integration and communication appear to be feasible. By providing context-rich information and fostering communication, this system may enhance patient-provider relationship and care coordination.


IEEE Pulse | 2012

A Digital Health Solution for Using and Managing Medications: Wirelessly Observed Therapy

Lorenzo DiCarlo; Greg Moon; Allison Intondi; Robert Duck; Jeremy Frank; Hooman Hafazi; Yashar Behzadi; Timothy Robertson; Ben Costello; George Savage; Mark Zdeblick

Several approaches are currently used to assess medication taking. The most reliable method is directly observed therapy (DOT), which consists of a clinician observing and documenting the date and time of the patients swallowing each dose of medication. In some cases, this is done by video recording of the patient taking the medication. Other indirect methods for monitoring adherence include patient questioning, patient pill diaries, pill counts, daily weighing of pill containers, and prescription refill rates. Electronically documenting the date and time when the cover of a pill container has been opened is another option. Each of these methods, however, is limited in scope and provides only an estimated measure of actual drug intake, as none of them reliably record whether the patient has actually ingested the medication.


Archive | 2006

Pharma-Informatics System

Mark Zdeblick; Andrew Thompson; Aleksandr Pikelny; Timothy Robertson


Archive | 2006

Medical Diagnostic and Treatment Platform Using Near-Field Wireless Communication of Information Within a Patient's Body

Mark Zdeblick; Timothy Robertson


Archive | 2009

Body-associated receiver and method

Timothy Robertson; Fataneh Omidvar; Yashar Behzadi; Lawrence Arne; Kenneth Rowberry; James Hutchison; Robert Leichner; George Savage; Andrew Thompson; Mark Zdeblick; Marc Kreidler; Hooman Hafezi; Robert Duck


Archive | 2006

Implantable Zero-Wire Communications System

Mark Zdeblick; Timothy Robertson


Archive | 2003

Method and system for monitoring and treating hemodynamic parameters

Mark Zdeblick; George Savage


Archive | 2005

Implantable Addressable Segmented Electrodes

Marc Jensen; Benedict Costello; Todd Thompson; Mark Zdeblick; Jeremy Frank; Dino Lei; Olivier Colliou; George Savage


Archive | 2004

Implantable pressure sensors

Mark Zdeblick; Benedict Costello

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