Literature DB >> 31516957

Simultaneously acquired data from contactless and wearable devices for direct and indirect heart-rate measurement.

Paola Pierleoni1, Ennio Gambi1, Manola Ricciuti1, Agnese Sbrollini1, Lorenzo Palma1, Alberto Belli1, Micaela Morettini1, Laura Burattini1.   

Abstract

The proposed dataset provides a complete set of simultaneously acquired data from contactless and wearable devices for direct and indirect heart-rate measurement. Data were acquired on a total of 20 healthy white Caucasian subjects wearing no makeup (10 males and 10 females; age: 22.50 ± 1.57 years; height: 173 ± 10 cm; weight: 62.80 ± 9.52 kg) and consisted of: i) videos of the subject's face acquired by a RGB-D (Red, Green, Blue and Depth) camera (Microsoft Kinect v2), which is a contactless device; ii) electrocardiographic (ECG) recordings acquired by a clinical Holter ECG recorder (Global Instrumentation's M12R Holter), which is a wearable device; and iii) heart-rate measurements acquired from a commercial smartwatch (Moto 360 smartwatch by Motorola), which is also a wearable device. ECG recordings were processed to extract the R-peaks position and obtain a reference indirect measurement of the heart rate. A direct measurement of the heart rate was provided by the commercial smartwatch. The dataset here presented could be useful to develop new algorithms for heart-rate detection from contactless devices and to validate contactless heart-rate estimation in comparison to reference heart rate from clinical wearable devices and to heart rate from commercial wearable devices.

Entities:  

Keywords:  Contactless sensing; Heart-rate measurement; Holter electrocardiography; RGB-D sensors; Wearable sensor

Year:  2019        PMID: 31516957      PMCID: PMC6736776          DOI: 10.1016/j.dib.2019.104436

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications Table Data are useful to support development of algorithms for heart-rate measurement from videos of human face acquired using contactless devices. Researchers and algorithms developers can benefit from these data to validate the output of their algorithms against heart rate measured by clinical and commercial wearable sensors. Further experiments could involve subjects of different ethnicities, wearing different makeup under different light conditions. Additional value of these data consists in the simultaneous acquisition of data from different type of devices.

Data

This article provides a dataset for direct and indirect heart-rate measurement organized in three main folders: Data, DemographicFeatures and LightConditions. Data contains a folder for each subject (Sn, where n = 1, 2, …20 indicates the subject). Inside each subject's folder, there are three subfolders containing data simultaneously acquired with a contactless RGB-D camera (R), a clinical wearable Holter ECG recorder (H), and a commercial wearable Smartwatch (S) for indirect (R and H) and direct heart-rate measurement. R subfolder contains videos (RGB color: three channels with 256 pixel levels each; frame rate: 30 fps; frame size: 492x276 pixels) of the subject's face called Sn_m.avi, where m = 1, 2, …, 5 indicates the test repetition. H subfolder contains MATLAB files called Sn_m.mat relative to the standard 12 lead electrocardiogram (ECG) organized in a MATLAB structure having fourteen fields: H.Rpeaks (R-peaks position vector; samples); H.sf (sampling frequency; Hz); H.I to H.III (leads I to III; μV); H.V1 to H.V6 (leads V1 to V6; μV); H.aVR (lead aVR; μV); H.aVF (lead aVF; μV); and H.aVL (lead aVL; μV). S subfolder contains a text file called Sn.txt composed of five rows, each representing the heart-rate value (bpm) provided by the smartwatch for each test repetition. DemographicFeatures contains a text file (DemograficFeatures.txt) with the demographic characteristics of all the subjects involved: gender, age, weight, height, smoking and fitness status. LightConditions contains a text file called Ln.txt, composed of five rows each representing the illuminance value (lx) during each test repetition.

Experimental design, materials, and methods

The experiment was performed on 20 healthy white Caucasian subjects wearing no makeup (age: 22.50 ± 1.57 years; height: 173 ± 10 cm; weight: 62.80 ± 9.52 kg) and was carried out in accordance with the Declaration of Helsinki. Each subject signed an informed written consent before participating. During the test, illuminance of the room was kept constant; the subject was sitting on a chair in front of a Microsoft Kinect v2 RGB-D camera (1-m distance) and worn two different wearable devices: a Global Instrumentation's M12R Holter ECG recorder [2] and a Moto 360 smartwatch by Motorola. A single test lasted 40 s during which the three measurement devices acquired data simultaneously. Five test repetitions, each characterized by its illuminance value, were performed for each subject. RGB videos (256 levels) of the subject were acquired with a frame rate of 30 fps through the Complete Viewer v2.0 capture software [3]. Size of the video frames, originally equal to 1920x1080 pixels, was reduced to 492x276 pixels to contain only the subject's face identified by a MATLAB face-detection algorithm [4]. Eyes were obscured to avoid identification of the subject. Standard 12 leads ECG signals (μV) were acquired using ten electrodes placed on the body surface of the subject according to the Mason-Likar configuration [5]. Signals, originally sampled at 1 kHz, were down-sampled at 200 Hz. R-peaks positions (samples) were extracted using the Pan and Tompkins algorithm [6] applied to aVR lead. Heart-rate measurement (in bpm) was provided by the LG Pulse app, analyzing the photoplethysmographic signal [7] acquired by the commercial smartwatch.

Specifications Table

SubjectBiomedical, Electrical and Electronic Engineering
Specific subject areaContactless and wearable devices for heart-rate measurement
Type of dataVideos (.avi)Matlab data files (.mat)Text files (.txt)
How data were acquiredRGB-D Camera (Kinect v2, Microsoft)Clinical Holter ECG recorder (M12A, Global Instrumentation)Smartwatch (Moto 360, Motorola)
Data formatRaw and processed
Parameters for data collectionData were acquired on a total of 20 healthy white Caucasian subjects (10 males and 10 females; age: 22.50 ± 1.57 years; height: 173 ± 10 cm; weight: 62.80 ± 9.52 kg) wearing no makeup and consisted of videos of the subject's face, electrocardiographic (ECG) recordings and heart-rate measurements.
Description of data collectionDuring the test, illuminance of the room was kept constant; the subject was sitting on a chair in front of a Microsoft Kinect v2 RGB-D camera (1-m distance) and worn two different wearable devices: a Global Instrumentation's M12R Holter ECG recorder and a Moto 360 smartwatch by Motorola. A single test lasted 40 s during which the three measurement devices acquired data simultaneously. Five test repetitions, each characterized by its illuminance value, were performed for each subject.
Data source locationDepartment of Information Engineering, Università Politecnica delle Marche, Ancona, Italy
Data accessibilityData is publicly available on Mendeley data public repository.Link: https://data.mendeley.com/datasets/rryh4gbp7g/draft?a=a8c34b20-a718-4623-824d-ade44eb29173https://doi.org/10.17632/rryh4gbp7g.1Elsevier credentials are needed to download data.
Related research articleEnnio Gambi, Angela Agostinelli, Alberto Belli, Laura Burattini, Enea Cippitelli, Sandro Fioretti, Paola Pierleoni, Manola Ricciuti, Agnese Sbrollini, and Susanna SpinsanteHeart Rate Detection Using Microsoft Kinect: Validation and Comparison to Wearable DevicesSensors 2017, 17 (8)10.3390/s17081776 [1]
Value of the data

Data are useful to support development of algorithms for heart-rate measurement from videos of human face acquired using contactless devices.

Researchers and algorithms developers can benefit from these data to validate the output of their algorithms against heart rate measured by clinical and commercial wearable sensors.

Further experiments could involve subjects of different ethnicities, wearing different makeup under different light conditions.

Additional value of these data consists in the simultaneous acquisition of data from different type of devices.

  4 in total

Review 1.  Photoplethysmography and its application in clinical physiological measurement.

Authors:  John Allen
Journal:  Physiol Meas       Date:  2007-02-20       Impact factor: 2.833

Review 2.  Recommendations for the standardization and interpretation of the electrocardiogram: part II: electrocardiography diagnostic statement list a scientific statement from the American Heart Association Electrocardiography and Arrhythmias Committee, Council on Clinical Cardiology; the American College of Cardiology Foundation; and the Heart Rhythm Society Endorsed by the International Society for Computerized Electrocardiology.

Authors:  Jay W Mason; E William Hancock; Leonard S Gettes; James J Bailey; Rory Childers; Barbara J Deal; Mark Josephson; Paul Kligfield; Jan A Kors; Peter Macfarlane; Olle Pahlm; David M Mirvis; Peter Okin; Pentti Rautaharju; Borys Surawicz; Gerard van Herpen; Galen S Wagner; Hein Wellens
Journal:  J Am Coll Cardiol       Date:  2007-03-13       Impact factor: 24.094

3.  A real-time QRS detection algorithm.

Authors:  J Pan; W J Tompkins
Journal:  IEEE Trans Biomed Eng       Date:  1985-03       Impact factor: 4.538

4.  Heart Rate Detection Using Microsoft Kinect: Validation and Comparison to Wearable Devices.

Authors:  Ennio Gambi; Angela Agostinelli; Alberto Belli; Laura Burattini; Enea Cippitelli; Sandro Fioretti; Paola Pierleoni; Manola Ricciuti; Agnese Sbrollini; Susanna Spinsante
Journal:  Sensors (Basel)       Date:  2017-08-02       Impact factor: 3.576

  4 in total
  1 in total

1.  Artificial intelligence opportunities in cardio-oncology: Overview with spotlight on electrocardiography.

Authors:  Daniel Sierra-Lara Martinez; Peter A Noseworthy; Oguz Akbilgic; Joerg Herrmann; Kathryn J Ruddy; Abdulaziz Hamid; Ragasnehith Maddula; Ashima Singh; Robert Davis; Fatma Gunturkun; John L Jefferies; Sherry-Ann Brown
Journal:  Am Heart J Plus       Date:  2022-04-01
  1 in total

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