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Ryan Bokan Phones & Addresses

  • 1627 E Braemere Rd, Boise, ID 83702 (208) 345-3424
  • Long Beach, CA
  • Cleveland, OH

Work

Company: Cardioinsight, inc May 2013 Position: Manager, field clinical development

Education

Degree: Bachelor of Science (BS) School / High School: Case Western Reserve University 2007 to 2012 Specialities: Biomedical Engineering

Skills

Medical Devices • Biomedical Engineering • Management • Medical Imaging • Design Control • Fda • Matlab • Entrepreneurship • Biotechnology • Iso 13485 • Biomaterials • Biomechanics • R&D • Signal Processing

Industries

Medical Devices

Resumes

Resumes

Ryan Bokan Photo 1

Research Development Consultant

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Location:
1627 east Braemere Rd, Boise, ID 83702
Industry:
Medical Devices
Work:
CardioInsight, Inc since May 2013
Manager, Field Clinical Development

CardioInsight, Inc - Cleveland, OH since Sep 2011
Field Clinical Engineer

Miach Medical Innovations - Cleveland, OH since Jun 2010
Entrepreneur

Medtronic - Greater Minneapolis-St. Paul Area Jun 2011 - Aug 2011
Design Engineer Intern

Case Western Reserve University - Cleveland, OH Mar 2009 - Aug 2010
Undergraduate Admissions Intern
Education:
Case Western Reserve University 2007 - 2012
Bachelor of Science (BS), Biomedical Engineering
Skills:
Medical Devices
Biomedical Engineering
Management
Medical Imaging
Design Control
Fda
Matlab
Entrepreneurship
Biotechnology
Iso 13485
Biomaterials
Biomechanics
R&D
Signal Processing

Publications

Us Patents

Channel Integrity Detection

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US Patent:
20130304407, Nov 14, 2013
Filed:
May 8, 2013
Appl. No.:
13/890058
Inventors:
CHARULATHA RAMANTHAN - SOLON OH, US
PING JIA - SOLON OH, US
QINGGUO ZENG - SOLON OH, US
VENKATESH VASUDEVAN - BEACHWOOD OH, US
MARIA STROM - MORELAND HILLS OH, US
RYAN BOKAN - LAKEWOOD OH, US
REMI DUBOIS - MERIGNAC, FR
Assignee:
CARDIOINSIGHT TECHNOLOGIES, INC. - CLEVELAND OH
International Classification:
G01R 25/00
US Classification:
702 72
Abstract:
A computer-implemented method can include determining an amplitude for each of a plurality of input channels, corresponding to respective nodes. A measure of similarity can be computed between the input channel of each node and the input channel of its neighboring nodes. The method can also include comparing an amplitude for each node relative to other nodes to determine temporary bad channels. For each of the temporary bad channels, a measure of similarity can be computed between the input channel of each node and the input channel of its neighboring nodes. Channel integrity can then be identified based on the computed measures of similarity.

Late Activation Of Cardiac Signals

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US Patent:
20220287615, Sep 15, 2022
Filed:
Feb 11, 2022
Appl. No.:
17/669832
Inventors:
- Independence OH, US
TIMOTHY G. LASKE - SHOREVIEW MN, US
QINGGUO ZENG - SOLON OH, US
RYAN M. BOKAN - BOISE ID, US
KOONLAWEE NADEMANEE - LOS ANGELES CA, US
International Classification:
A61B 5/364
A61B 5/367
A61B 5/355
A61B 5/00
A61B 5/339
G16H 20/30
G16H 40/63
Abstract:
In a described example, a method includes identifying, by a processor, negative deflections of at least one unipolar signal representing cardiac electrical activity on a surface of interest during a respective interval of the at least one signal. The method also includes determining, by a processor, an activation time for a last identified negative deflection in the respective interval. The method also includes detecting, by the processor, an instance of late activation based on comparing the activation time to a temporal threshold.

Localization Of Objects Within A Conductive Volume

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US Patent:
20200170540, Jun 4, 2020
Filed:
Feb 11, 2020
Appl. No.:
16/787828
Inventors:
- INDEPENDENCE OH, US
QINGGUO ZEN - SOLON OH, US
CHARULATHA RAMANATHAN - SOLON OH, US
RYAN BOKAN - CLEVELAND OH, US
International Classification:
A61B 5/06
A61B 5/053
Abstract:
An example method includes applying a localization signal to a source electrode positioned within a conductive volume and a ground electrode at a known location. Electrical activity is sensed at a plurality of sensor electrodes distributed across an outer surface of the conductive volume. The locations of each of the sensor electrodes and the location of the ground electrode being stored in memory as part of geometry data. The electrical activity sensed at each of the sensor electrodes is stored in the memory as electrical measurement data. The method also includes computing a location of the source electrode by minimizing a difference between respective pairs of source voltages determined for the plurality of sensor electrodes. The source voltage for each of the sensor electrodes is determined based on the electrical measurement data and the geometry data.

Detecting Conduction Timing

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US Patent:
20200163570, May 28, 2020
Filed:
Jan 28, 2020
Appl. No.:
16/774662
Inventors:
- INDEPENDENCE OH, US
MEREDTH E. STONE - STRONGSVILLE OH, US
QINGGUO ZENG - SOLON OH, US
JEFFREY B. ADAIR - CUYAHOGA FALLS OH, US
CONNOR S. EDEL - INDEPENDENCE OH, US
PING JIA - SOLON OH, US
KEVIN R. PONZIANI - ROCKY RIVER OH, US
BRIAN P. GEORGE - CLEVELAND OH, US
RYAN M. BOKAN - CLEVELAND OH, US
MATTHEW J. SABO - INDEPENDENCE OH, US
VLADIMIR A. TUROVSKIY - STRONGSVILLE OH, US
KETAL C. PATEL - INDEPENDENCE OH, US
CHARULATHA RAMANATHAN - SOLON OH, US
International Classification:
A61B 5/0468
A61B 5/00
A61B 5/04
A61B 5/0408
G16H 50/30
G16H 40/63
A61B 5/0432
A61B 5/044
A61B 5/0472
Abstract:
An example method includes analyzing morphology and/or amplitude of each of a plurality of electrophysiological signals across a surface of a patient's body to identify candidate segments of each signal satisfying predetermined conduction pattern criteria. The method also includes determining a conduction timing parameter for each candidate segment in each of the electrophysiological signals.

Detection Of Regions Exhibiting Irregular Electrophysiological Activity

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US Patent:
20190336023, Nov 7, 2019
Filed:
May 4, 2018
Appl. No.:
15/971559
Inventors:
- Independence OH, US
JEFFREY B. ADAIR - CUYAHOGA FALLS OH, US
QINGGUO ZENG - SOLON OH, US
PING JIA - SOLON OH, US
RYAN BOKAN - CLEVELAND OH, US
CONNOR EDEL - AKRON OH, US
RAHSEAN ELLIS - INTERCESSION CITY FL, US
BRIAN P. GEORGE - CLEVELAND OH, US
RAJA GHANEM - LADERA RANCH CA, US
TIMOTHY G. LASKE - SHOREVIEW MN, US
International Classification:
A61B 5/04
A61B 5/044
Abstract:
For example, one or more non-transitory computer-readable media includes executable instructions to perform a method. The method includes defining a plurality of spatial regions distributed across a geometric surface. At least one wave front that propagates across the geometric surface is detected based on electrical data representing electrophysiological signals for each of a plurality of nodes distributed on the geometric surface over at least one time interval. An indication of conduction velocity of the wave front is determined for at least one spatial region of the plurality of spatial regions during the time interval based on a duration that the wave front resides within the at least one spatial region. Slow conduction activity is identified for the at least one spatial region based on comparing the indication of conduction velocity relative to a threshold. Conduction data is stored in memory to represent each slow conduction event.

Localization And Tracking Of An Object

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US Patent:
20190271531, Sep 5, 2019
Filed:
May 17, 2019
Appl. No.:
16/415732
Inventors:
- Independence OH, US
PING JIA - SOLON OH, US
CHARULATHA RAMANATHAN - SOLON OH, US
LIJUN YU - CLEVELAND OH, US
JEFF BURRELL - EUCLID OH, US
BRIAN GEORGE - MEDINA OH, US
QING LOU - POWELL OH, US
RYAN BOKAN - CLEVELAND OH, US
SONIYA BHOJWANI - CLEVELAND OH, US
International Classification:
G01B 7/00
A61B 5/06
Abstract:
This disclosure relates to localization and tracking of an object. As one example, measurement data can be stored in memory to represent measured electrical signals at each of a plurality of known measurement locations in a given coordinate system in response to an applied signal at an unknown location in the given coordinate system. A dipole model cost function has parameters representing a dipole location and moment corresponding to the applied signal. A boundary condition can be imposed on the dipole model cost function. The unknown location in the given coordinate system, corresponding to the dipole location, can then be determined based on the stored measurement data and the dipole model cost function with the boundary condition imposed thereon.

Connectivity Analysis For Arrhythmia Drivers

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US Patent:
20180310850, Nov 1, 2018
Filed:
Apr 27, 2017
Appl. No.:
15/498992
Inventors:
- INDEPENDENCE OH, US
QING LOU - POWELL OH, US
RYAN M. BOKAN - CLEVELAND OH, US
PING JIA - SOLON OH, US
CONNOR S. EDEL - INDEPENDENCE OH, US
CHARULATHA RAMANATHAN - SOLON OH, US
International Classification:
A61B 5/04
A61B 5/0452
A61B 5/044
Abstract:
One or more non-transitory computer-readable media have instructions executable by a processor and programmed to perform a method. The method includes analyzing the electrical data to locate one or more wave front lines over a given time interval. The electrical data represents electrophysiological signals distributed across a cardiac envelope for one or more time intervals. A respective trajectory is determined for each wave end of each wave front line that is located across the cardiac envelope over the given time interval. A set of connected trajectories are identified based on a duration that the trajectories are connected to each other by a respective wave front line during the given time interval. A connectivity association is characterized for the trajectories in the set of connected trajectories.

Detection And Analysis Of Cardiac Waveforms

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US Patent:
20170319088, Nov 9, 2017
Filed:
Apr 27, 2017
Appl. No.:
15/498719
Inventors:
- INDEPENDENCE OH, US
MEREDITH E. STONE - STRONGSVILLE OH, US
QINGGUO ZENG - SOLON OH, US
QING LOU - POWELL OH, US
CONNOR S. EDEL - INDEPENDENCE OH, US
PING JIA - SOLON OH, US
JEFFREY B. ADAIR - CUYAHOGA FALLS OH, US
VLADIMIR A. TUROVSKIY - STRONGSVILLE OH, US
MATTHEW J. SABO - INDEPENDENCE OH, US
RYAN M. BOKAN - CLEVELAND OH, US
KETAL C. PATEL - INDEPENDENCE OH, US
CHARULATHA RAMANATHAN - SOLON OH, US
JOHN E. ANDERSON - CHAGRIN FALLS OH, US
ANDREW E. HOOVER - INDEPENDENCE OH, US
CHENG YAO - INDEPENDENCE OH, US
International Classification:
A61B 5/0456
A61B 5/04
A61B 5/0408
A61B 5/0452
Abstract:
An example method includes performing amplitude-based detection to determine location of R-peaks for a plurality of electrograms. The method also includes performing wavelet-based detection to determine location of R-peaks for the plurality of electrograms. The method also includes adjusting the location of the R-peaks determined by the wavelet-based detection of R-peaks based on the location of R-peaks determined by the amplitude-based detection of R-peaks. The method also includes storing, in memory, R-peak location data to specify R-peak locations for the plurality of electrograms based on the adjusting.
Ryan M Bokan from Boise, ID, age ~35 Get Report