Author:
Krumpholz Roman,Fuchtmann Jonas,Berlet Maximilian,Hangleiter Annika,Ostler Daniel,Feussner Hubertus,Wilhelm Dirk
Abstract
Abstract
Purpose
While demand for telemedicine is increasing, patients are currently restricted to tele-consultation for the most part. Fundamental diagnostics like the percussion still require the in person expertize of a physician. To meet today’s challenges, a transformation of the manual percussion into a standardized, digital version, ready for telemedical execution is required.
Methods
In conjunction with a comprehensive telemedical diagnostic system, in which patients can get examined by a remote-physician, a series of three robotic end-effectors for mechanical percussion were developed. Comprising a motor, a magnetic and a pneumatic-based version, the devices strike a pleximeter to perform the percussion. Emitted sounds were captured using a microphone-equipped stethoscope. The 84 recordings were further integrated into a survey in order to classify lung and non-lung samples.
Results
The study with 21 participants comprised physicians, medical students and non-medical-related raters in equal parts. With 71.4% correctly classified samples, the ventral motorized device prevailed. While the result is significantly better compared to a manual or pneumatic percussion in this very setup, it only has a small edge over the magnetic devices. In addition, for all ventral versions non-lung regions were rather correctly identified than lung regions.
Conclusion
The overall setup proves the feasibility of a telemedical percussion. Despite the fact, that produced sounds differ compared to today’s manual technique, the study shows that a standardized mechanical percussion has the potential to improve the gold standard’s accuracy. While further extensive medical evaluation is yet to come, the system paves the way for future uncompromised remote examinations.
Funder
Bundesministerium für Bildung und Forschung
Publisher
Springer Science and Business Media LLC
Subject
Health Informatics,Radiology Nuclear Medicine and imaging,General Medicine,Surgery,Computer Graphics and Computer-Aided Design,Computer Science Applications,Computer Vision and Pattern Recognition,Biomedical Engineering
Reference23 articles.
1. Auenbrugger L (1761) Inventum novum, ex percus-sione thoracis humani ut signo abstrusos interni pectoris morbos detegendi, vol 1. J.T.Trattner, Vienne, p 525
2. Ayodele K, Ogunlade O, Olugbon O, Akinwale O, Kehinde L (2020) A medical percussion instrument using a wavelet-based method for archivable output and automatic classification. Comput Biol Med 127:104100
3. Bohadana A, Kraman S (1992) Consistency of sternal percussion performed manually and with mechanical thumper. Eur Respir J 5(8):1004–1008
4. Bohadana AB, Kraman SS (1989) Transmission of sound generated by sternal percussion. J Appl Physiol 66(1):273–277
5. Bohadana AB, Patel R, Kraman SS (1989) Contour maps of auscultatory percussion in healthy subjects and patients with large intrapulmonary lesions. Lung 167(1):359–372