BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITY

Investigation of apatite piezoelectricity was conducted in order to assess piezoelectric properties of bone. In the first stage, mineralogical analysis of different apatite crystals, regarding their purity and fitness for the experiments was performed. After the crystals had been chosen, 0.8 mm-thic...

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Main Author: M. Pawlikowski
Format: Article
Language:Russian
Published: Vreden Russian Research Institute of Traumatology and Orthopedics 2016-09-01
Series:Travmatologiâ i Ortopediâ Rossii
Subjects:
Online Access:https://journal.rniito.org/jour/article/view/158
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spelling doaj-a3c5beb27b5f4ebeb891437d4ff783282021-07-29T08:01:16ZrusVreden Russian Research Institute of Traumatology and OrthopedicsTravmatologiâ i Ortopediâ Rossii2311-29052542-09332016-09-0102576310.21823/2311-2905-2016-0-2-57-63155BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITYM. Pawlikowski0AGH University of Science and Technology, Lab. Biomineralogy, Department of Mineralogy, Petrography and Geochemistry, Faculty of Geology, Geophysics and Environmental Protection, al. Mickiewicza 30, 30-059 Kraków, PolandInvestigation of apatite piezoelectricity was conducted in order to assess piezoelectric properties of bone. In the first stage, mineralogical analysis of different apatite crystals, regarding their purity and fitness for the experiments was performed. After the crystals had been chosen, 0.8 mm-thick plates were cut, perpendicular and parallel to the crystallographic Z axis. The plates were then polished and dusted with gold. Electrodes were attached to the opposite surfaces of the plates with conductive glue. So prepared plates were hooked up to the EEG machine used for measuring electrical activity in the brain. The plates were then gently tapped to observe and register currents generated in them. Acquired data was processed by subtracting from the resulting graphs those generated by a hand movement, without tapping the plate. Results indicate that apatite plates have weak piezoelectric properties. Observed phenomenon may be translated to bone apatite, which would explain, at least partially, piezoelectric properties of bone. Acquired results suggest that there is a relation between the mechanical workload of bones (bone apatite) and theirelectrical properties. Considering the massive internal surface of bones, they may be treated as a kind of internal “antenna” reacting not only to mechanical stimuli, but to changes in electromagnetic field as well. Observed phenomena no doubt significantly influence the biological processes occurring in bones and the whole human body.https://journal.rniito.org/jour/article/view/158apatite piezoelectricitybone
collection DOAJ
language Russian
format Article
sources DOAJ
author M. Pawlikowski
spellingShingle M. Pawlikowski
BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITY
Travmatologiâ i Ortopediâ Rossii
apatite piezoelectricity
bone
author_facet M. Pawlikowski
author_sort M. Pawlikowski
title BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITY
title_short BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITY
title_full BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITY
title_fullStr BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITY
title_full_unstemmed BIOMINERALOGICAL INVESTIGATION OF APATITE PIEZOELECTRICITY
title_sort biomineralogical investigation of apatite piezoelectricity
publisher Vreden Russian Research Institute of Traumatology and Orthopedics
series Travmatologiâ i Ortopediâ Rossii
issn 2311-2905
2542-0933
publishDate 2016-09-01
description Investigation of apatite piezoelectricity was conducted in order to assess piezoelectric properties of bone. In the first stage, mineralogical analysis of different apatite crystals, regarding their purity and fitness for the experiments was performed. After the crystals had been chosen, 0.8 mm-thick plates were cut, perpendicular and parallel to the crystallographic Z axis. The plates were then polished and dusted with gold. Electrodes were attached to the opposite surfaces of the plates with conductive glue. So prepared plates were hooked up to the EEG machine used for measuring electrical activity in the brain. The plates were then gently tapped to observe and register currents generated in them. Acquired data was processed by subtracting from the resulting graphs those generated by a hand movement, without tapping the plate. Results indicate that apatite plates have weak piezoelectric properties. Observed phenomenon may be translated to bone apatite, which would explain, at least partially, piezoelectric properties of bone. Acquired results suggest that there is a relation between the mechanical workload of bones (bone apatite) and theirelectrical properties. Considering the massive internal surface of bones, they may be treated as a kind of internal “antenna” reacting not only to mechanical stimuli, but to changes in electromagnetic field as well. Observed phenomena no doubt significantly influence the biological processes occurring in bones and the whole human body.
topic apatite piezoelectricity
bone
url https://journal.rniito.org/jour/article/view/158
work_keys_str_mv AT mpawlikowski biomineralogicalinvestigationofapatitepiezoelectricity
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