default search action
P. M. Nabeel
Person information
Refine list
refinements active!
zoomed in on ?? of ?? records
view refined list in
export refined list as
showing all ?? records
2020 – today
- 2024
- [c75]Navya Rose George, V. V. Girish, Ganapathy Jaganathan, Raj Kiran V., P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Wearable Accelerometer System for Jugular Venous Pulse Quantification: A Pilot Study. MeMeA 2024: 1-5 - [c74]Navya Rose George, Rahul Manoj, Raj Kiran V., P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Assessment of Local Venous Pulse Wave Velocity Using Single-Site Methods- A Pilot Study. MeMeA 2024: 1-6 - [c73]Ganapathy Jaganathan, Rahul Manoj, Raj Kiran V., P. M. Nabeel, Jayaraj Joseph:
Impact of Physical (In)Activity on Carotid-Femoral PWV and Central Blood Pressure in Young and Middle-Aged Adults: A Pilot Study using ARTSENS Plus. MeMeA 2024: 1-6 - [c72]Ganapathy Jaganathan, Rahul Manoj, Raj Kiran V., P. M. Nabeel, Jayaraj Joseph:
Estimating Left Ventricular Contractility Through Carotid Artery Distension: A Portable Device Utilizing A-Mode Ultrasound and Surrogate Marker Analysis. MeMeA 2024: 1-6 - [c71]Arjun R. Krishna, V. Raj Kiran, P. M. Nabeel, Jayaraj Joseph:
a-STEP: Oscillometry-Augmented Auscultation Method for Improved Blood Pressure Measurement. MeMeA 2024: 1-6 - [c70]Ishwarya S, Raj Kiran V., Rahul Manoj, P. M. Nabeel, Jayaraj Joseph:
Acoustic Plethysmography for Aortic Pulse Wave Velocity Measurement: In-Vitro and In-Vivo Feasibility Study. MeMeA 2024: 1-5 - [c69]Ishwarya S, Raj Kiran V., Rahul Manoj, P. M. Nabeel, Jayaraj Joseph:
Bilateral Carotid Pulse Wave Velocity: A Proof of Concept. MeMeA 2024: 1-6 - 2023
- [c68]Navya Rose George, Rahul Manoj
, Raj Kiran V., P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Ultrasound for Venous Local Pulse Wave Velocity: Comparison of Pulse Transit Time Methods. EMBC 2023: 1-4 - [c67]Navya Rose George, Rahul Manoj
A Pilot Observational Cohort Study to Investigate the Effect of Valsalva Maneuver on Internal Jugular Venous Diameter. EMBC 2023: 1-4 - [c66]V. V. Girish, Raj Kiran V., P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Wearable Ambulatory Accelerometer System for Estimating Arterial Stiffness: A Pilot Study. EMBC 2023: 1-4 - [c65]Rahul Manoj
Arterial Wave Separation Analysis and Reflection Wave Transit Time Estimation using a Double Rayleigh Flow Rate Model. EMBC 2023: 1-4 - [c64]Nimmi Sudarsan
Assessment of Endothelial Reactivity by Measurement of Vascular Material Response to Shear Stress: A Feasibility Study. EMBC 2023: 1-4 - [c63]Nimmi Sudarsan
Normalization of Flow-mediated Dilation to Brachial Artery Material Property: A Feasibility Study. EMBC 2023: 1-4 - [c62]Navya Rose George, V. Raj Kiran, P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Assessment of Local Venous Pulse Wave Velocity: A Pilot Feasibility Study. MeMeA 2023: 1-6 - [c61]V. V. Girish, V. Raj Kiran, P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Acceleration Plethysmography for Ambulatory Vascular Monitoring: A Pilot Study. MeMeA 2023: 1-6 - [c60]V. Raj Kiran, Nimmi Sudarsan
Repeatability and Reproducibility of Flow Mediated Dilation Measured using ARTSENS. MeMeA 2023: 1-6 - [c59]Rahul Manoj
Measurement of Local Pulse Wave Velocity: Agreement Among Various Methodologies. MeMeA 2023: 1-6 - [c58]Ishwarya S, M. Shankar, V. Raj Kiran, P. M. Nabeel, Jayaraj Joseph:
A Photoplethysmograph-Based Device for Carotid Femoral Pulse Wave Velocity Measurement: Inter and Intraoperator Study. MeMeA 2023: 1-6 - [c57]Nimmi Sudarsan
Assessment of Endothelial Reactivity using Brachial Pulse Wave Velocity Response to Shear. MeMeA 2023: 1-6 - [c56]Raj Kiran V., Rahul Manoj
Effect of Fiduciary Point Choice on Pulse Wave Velocity-based Cuffless Pulse Pressure Estimation: Ex-vivo Study. MeMeA 2023: 1-6 - 2022
- [c55]Rahul Manoj
Estimation of Characteristic Impedance using Multi-Gaussian Modelled Flow Velocity Waveform: A Virtual Subjects Study. EMBC 2022: 2274-2277 - [c54]Raj Kiran V., Rahul Manoj
Comparison of Approximated and Actual Bramwell-Hill Equation Implementation for Local Pulse Wave Velocity: Ex-vivo Study. EMBC 2022: 3989-3992 - [c53]Nimmi Sudarsan
Association of Local Arterial Stiffness and Windkessel Model Parameters with Ageing in Normotensives and Hypertensives. EMBC 2022: 3997-4000 - [c52]Rahul Manoj
Evaluation of Pulse Contour Markers using an A-Mode Ultrasound: Association with Carotid Stiffness Markers and Ageing. EMBC 2022: 4010-4013 - [c51]Raj Kiran V., Rahul Manoj
Operator Variabilities in Carotid Pulse Wave Velocity Measured by an Image-free Ultrasound Device. EMBC 2022: 4018-4021 - [c50]Navya Rose George, V. Raj Kiran, P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
High Frame-Rate A-Mode Ultrasound System for Jugular Venous Pulse Tracking: A Feasibility Study. EMBC 2022: 4022-4025 - [c49]Navya Rose George, Raj Kiran V., P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Jugular Venous Diameter Measurement Using A-Mode Ultrasound: A Feasibility Study. MeMeA 2022: 1-6 - [c48]Rahul Manoj
Assessment of Arterial Reflection Markers using an A-Mode Ultrasound Device. MeMeA 2022: 1-6 - [c47]Rahul Manoj
Variation in Pulse Contour Markers on an Anesthetized Porcine During Pressure Perturbation: Association with Local and Regional Stiffness. MeMeA 2022: 1-6 - [c46]Ishwarya S, Rahul Manoj
Hydrostatic Pressure Compensator for Evaluation of Carotid Stiffness using A-Mode Ultrasound: Design, Characterization, and In-Vivo Validation. MeMeA 2022: 1-6 - [c45]Nimmi Sudarsan
Association of Windkessel Model Parameters with Local and Regional Aortic Stiffness Indices. MeMeA 2022: 1-6 - 2021
- [c44]Rahul Manoj
Separation of Forward-Backward Waves in the Arterial System using Multi-Gaussian Approach from Single Pulse Waveform. EMBC 2021: 5547-5550 - [c43]Rahul Manoj
Evaluation of Nonlinear Wave Separation Method to Assess Reflection Transit Time: A Virtual Patient Study. EMBC 2021: 5551-5554 - [c42]Arathy R, P. M. Nabeel
Evaluation of Vascular Pulse Contour Indices over the Physiological Blood Pressure Ranges in an Anesthetized Porcine Model. EMBC 2021: 5594-5597 - [c41]Raj Kiran V., P. M. Nabeel
Gaussian-Mixture Modelling of A-Mode Radiofrequency Scans for the Measurement of Arterial Wall Thickness. EMBC 2021: 5598-5601 - [c40]P. M. Nabeel
High-Framerate A-Mode Ultrasound for Vascular Structural Assessments: In-Vivo Validation in a Porcine Model. EMBC 2021: 5602-5605 - [c39]Raj Kiran V., P. M. Nabeel
Phantom Assessment of an Image-free Ultrasound Technology for Online Local Pulse Wave Velocity Measurement. EMBC 2021: 5610-5613 - [c38]V. Raj Kiran, P. M. Nabeel, Mohanasankar Sivaprakasam, Jayaraj Joseph:
Phantom Evaluation of a Time Warping Based Automated Arterial Wall Recognition and Tracking Method. MeMeA 2021: 1-6 - [c37]Rahul Manoj
Multi-Gaussian Model for Estimating Stiffness Surrogate using Arterial Diameter Waveform. MeMeA 2021: 1-6 - [c36]P. M. Nabeel, V. Raj Kiran, Malay Ilesh Shah, Abhidev V. V., Rahul Manoj
An Image-Free Ultrasound Device for Simultaneous Measurement of Local and Regional Arterial Stiffness Indices. MeMeA 2021: 1-6 - 2020
- [j4]Raj Kiran V., Jayaraj Joseph
Automated measurement of compression-decompression in arterial diameter and wall thickness by image-free ultrasound. Comput. Methods Programs Biomed. 194: 105557 (2020) - [c35]Arathy R
Repeatability Study of Local Vascular Stiffness Measurement Using Carotid Surface Acceleration Plethysmogram. EMBC 2020: 2699-2702 - [c34]Rahul Manoj
Demonstration of Pressure-Dependent Inter and Intra-Cycle Variations in Local Pulse Wave Velocity Using Excised Bovine Carotid Artery. EMBC 2020: 2707-2710 - [c33]Prashanth Ramakrishna, P. M. Nabeel
Cuffless Blood Pressure Estimation Using Features Extracted from Carotid Dual-Diameter Waveforms. EMBC 2020: 2719-2722 - [c32]P. M. Nabeel
High-Throughput Vascular Screening by ARTSENS Pen During a Medical Camp for Early-Stage Detection of Chronic Kidney Disease. EMBC 2020: 2752-2755 - [c31]Jayaraj Joseph
Carotid Stiffness Variations in the Presence of Established Risk Factors: Observations from a Clinical Study Using ARTSENS. MeMeA 2020: 1-6 - [c30]Rahul Manoj
A Bi-modal Probe Integrated with A-mode Ultrasound and Force Sensor for Single-site Assessment of Arterial Pressure-Diameter Loop. MeMeA 2020: 1-6 - [c29]Poojitha Uthappa P, Keerthi Ram, P. M. Nabeel
Blood Pressure Estimation using Arterial Diameter: Exploring Different Machine Learning Methods. MeMeA 2020: 1-6 - [c28]Arathy R
Feasibility Study of Arterial Stiffness Monitoring based on Reflected Wave Transit Time using Carotid Acceleration Plethysmogram. MeMeA 2020: 1-6 - [c27]Raj Kiran V., Jayaraj Joseph
A Dynamic Time Warping Method for Improved Arterial Wall-Tracking using A-mode Ultrasound Frames: A Proof-of-Concept. MeMeA 2020: 1-6
2010 – 2019
- 2019
- [c26]V. Raj Kiran, P. M. Nabeel
Incorporating Arterial Viscoelastic Modelling for the Assessment of Changes in Pulse Wave Velocity Within a Cardiac Cycle Using Bramwell-Hill Equation. CinC 2019: 1-4 - [c25]P. M. Nabeel
Determination of Incremental Local Pulse Wave Velocity Using Arterial Diameter Waveform: Mathematical Modeling and Practical Implementation. CinC 2019: 1-4 - [c24]Arathy R
Evaluation of Arterial Diameter by Mathematical Transformation of APG for Ambulatory Stiffness. CinC 2019: 1-4 - [c23]Prashanth Ramakrishna, P. M. Nabeel
Novel Geometric Representation for One-Dimensional Model of Arterial Blood Pulse Wave Propagation. EMBC 2019: 506-509 - [c22]Raj Kiran V., P. M. Nabeel
Multimodal Image-Free Ultrasound Technique for Evaluation of Arterial Viscoelastic Properties: A Feasibility Study. EMBC 2019: 5034-5037 - [c21]Arathy R
Continuous Assessment of Carotid Diameter using an Accelerometer Patch Probe for Ambulatory Arterial Stiffness Monitoring. EMBC 2019: 5038-5041 - [c20]V. Raj Kiran, Jayaraj Joseph
Analytic Phase Based Approach for Arterial Diameter Evaluation Using A-Mode Ultrasound Frames. MeMeA 2019: 1-5 - [c19]V. Raj Kiran, P. M. Nabeel
Methodological and Measurement Concerns of Local Pulse Wave Velocity Assessment. MeMeA 2019: 1-6 - [c18]V. Raj Kiran, Abhidev V. V., P. M. Nabeel
Arterial Stiffness in Elastic and Muscular Arteries: Measurement using ARTSENS Pen. MeMeA 2019: 1-5 - [c17]Rahul Manoj
Cuffless Evaluation of Arterial Pressure Waveform using Flexible Force Sensor: A Proof of Principle. MeMeA 2019: 1-6 - [c16]P. M. Nabeel
Deep Learning for Blood Pressure Estimation: an Approach using Local Measure of Arterial Dual Diameter Waveforms. MeMeA 2019: 1-6 - 2018
- [j3]P. M. Nabeel
Bi-Modal Arterial Compliance Probe for Calibration-Free Cuffless Blood Pressure Estimation. IEEE Trans. Biomed. Eng. 65(11): 2392-2404 (2018) - [j2]P. M. Nabeel
Arterial Blood Pressure Estimation From Local Pulse Wave Velocity Using Dual-Element Photoplethysmograph Probe. IEEE Trans. Instrum. Meas. 67(6): 1399-1408 (2018) - [c15]R. Arathy
Carotid Local Pulse Wave Velocity Measurement using Dual- Element Accelerometric Patch Probe. EMBC 2018: 4571-4574 - [c14]Raj Kiran V., P. M. Nabeel
An In-Vivo Study on Intra-Day Variations in Vascular Stiffness using ARTSENS Pen. EMBC 2018: 4575-4578 - [c13]Jayaraj Joseph
Live Demonstration of ARTSENS® Pen-An Image-Free Ultrasound Device for Automated Evaluation of Vascular Stiffness. IEEE SENSORS 2018: 1 - [c12]R. Arathy
Vascular Wall Stiffness Indices Detection Using an Accelerometer-Based System. MeMeA 2018: 1-6 - [c11]Raj Kiran V., P. M. Nabeel
Evaluation of Local Pulse Wave Velocity using an Image Free Ultrasound Technique. MeMeA 2018: 1-6 - [c10]P. M. Nabeel
Non-Invasive Assessment of Local Pulse Wave Velocity as Function of Arterial Pressure. MeMeA 2018: 1-6 - [c9]Raj Kiran V., P. M. Nabeel
Measurement of Arterial Young's Elastic Modulus using ARTSENS Pen. MeMeA 2018: 1-6 - 2017
- [j1]P. M. Nabeel
A Magnetic Plethysmograph Probe for Local Pulse Wave Velocity Measurement. IEEE Trans. Biomed. Circuits Syst. 11(5): 1065-1076 (2017) - [c8]Raj Kiran V., P. M. Nabeel
Brachial artery stiffness estimation using ARTSENS. EMBC 2017: 262-265 - [c7]P. M. Nabeel
Measurement of carotid blood pressure and local pulse wave velocity changes during cuff induced hyperemia. EMBC 2017: 1700-1703 - [c6]P. M. Nabeel
Experimental validation of dual PPG local pulse wave velocity probe. MeMeA 2017: 408-413 - [c5]Arathy R
An accelerometer probe for local pulse wave velocity measurement. MeMeA 2017: 426-431 - 2016
- [c4]P. M. Nabeel
Single source photoplethysmograph transducer for local pulse wave velocity measurement. EMBC 2016: 4256-4259 - [c3]Jayaraj Joseph
Arterial compliance probe for calibration free pulse pressure measurement. MeMeA 2016: 1-6 - 2015
- [c2]P. M. Nabeel
Arterial compliance probe for local blood pulse wave velocity measurement. EMBC 2015: 5712-5715 - 2014
- [c1]P. M. Nabeel
Magnetic plethysmograph transducers for local blood pulse wave velocity measurement. EMBC 2014: 1953-1956
Coauthor Index
Jayaraj Joseph
aka: Joseph Jayaraj
aka: Joseph Jayaraj
[c75] [c74] [c73] [c72] [c71] [c70] [c69] [c68] [c67] [c66] [c65] [c64] [c63] [c62] [c61] [c60] [c59] [c58] [c57] [c56] [c55] [c54] [c53] [c52] [c51] [c50] [c49] [c48] [c47] [c46] [c45] [c44] [c43] [c42] [c41] [c40] [c39] [c38] [c37] [c36] [j4] [c35] [c34] [c33] [c32] [c31] [c30] [c29] [c28] [c27] [c26] [c25] [c24] [c22] [c21] [c20] [c19] [c18] [c17] [c16] [j3] [j2] [c15] [c14] [c13] [c12] [c11] [c10] [c9] [j1] [c8] [c7] [c6] [c5] [c4] [c3] [c2] [c1]
[c75] [c74] [c68] [c67] [c66] [c65] [c62] [c61] [c59] [c55] [c53] [c52] [c50] [c49] [c48] [c47] [c45] [c44] [c43] [c42] [c41] [c40] [c39] [c38] [c37] [c36] [j4] [c35] [c34] [c33] [c32] [c31] [c30] [c29] [c28] [c27] [c26] [c25] [c24] [c23] [c22] [c21] [c20] [c19] [c18] [c17] [c16] [j3] [j2] [c15] [c14] [c13] [c12] [c11] [c10] [c9] [j1] [c8] [c7] [c6] [c5] [c4] [c3] [c2] [c1]
Raj Kiran V.
aka: V. Raj Kiran
aka: V. Raj Kiran
[c75] [c74] [c73] [c72] [c71] [c70] [c69] [c68] [c67] [c66] [c65] [c64] [c63] [c62] [c61] [c60] [c59] [c58] [c57] [c56] [c55] [c54] [c52] [c51] [c50] [c49] [c48] [c47] [c46] [c44] [c43] [c42] [c41] [c40] [c39] [c38] [c37] [c36] [j4] [c34] [c33] [c32] [c30] [c29] [c27] [c26] [c25] [c22] [c20] [c19] [c18] [c17] [c16] [c14] [c13] [c11] [c10] [c9] [c8]
manage site settings
To protect your privacy, all features that rely on external API calls from your browser are turned off by default. You need to opt-in for them to become active. All settings here will be stored as cookies with your web browser. For more information see our F.A.Q.
Unpaywalled article links
Add open access links from to the list of external document links (if available).
Privacy notice: By enabling the option above, your browser will contact the API of unpaywall.org to load hyperlinks to open access articles. Although we do not have any reason to believe that your call will be tracked, we do not have any control over how the remote server uses your data. So please proceed with care and consider checking the Unpaywall privacy policy.
Archived links via Wayback Machine
For web page which are no longer available, try to retrieve content from the of the Internet Archive (if available).
Privacy notice: By enabling the option above, your browser will contact the API of archive.org to check for archived content of web pages that are no longer available. Although we do not have any reason to believe that your call will be tracked, we do not have any control over how the remote server uses your data. So please proceed with care and consider checking the Internet Archive privacy policy.
Reference lists
Add a list of references from ,
, and
to record detail pages.
load references from crossref.org and opencitations.net
Privacy notice: By enabling the option above, your browser will contact the APIs of crossref.org, opencitations.net, and semanticscholar.org to load article reference information. Although we do not have any reason to believe that your call will be tracked, we do not have any control over how the remote server uses your data. So please proceed with care and consider checking the Crossref privacy policy and the OpenCitations privacy policy, as well as the AI2 Privacy Policy covering Semantic Scholar.
Citation data
Add a list of citing articles from and
to record detail pages.
load citations from opencitations.net
Privacy notice: By enabling the option above, your browser will contact the API of opencitations.net and semanticscholar.org to load citation information. Although we do not have any reason to believe that your call will be tracked, we do not have any control over how the remote server uses your data. So please proceed with care and consider checking the OpenCitations privacy policy as well as the AI2 Privacy Policy covering Semantic Scholar.
OpenAlex data
Load additional information about publications from .
Privacy notice: By enabling the option above, your browser will contact the API of openalex.org to load additional information. Although we do not have any reason to believe that your call will be tracked, we do not have any control over how the remote server uses your data. So please proceed with care and consider checking the information given by OpenAlex.
last updated on 2024-10-07 22:14 CEST by the dblp team
all metadata released as open data under CC0 1.0 license
see also: Terms of Use | Privacy Policy | Imprint
dblp was originally created in 1993 at:
since 2018, dblp has been operated and maintained by:
the dblp computer science bibliography is funded and supported by: