moscow, 2012
DESCRIPTION
EFFECTS OF LONG-TERM WEAK ELECTROMAGNETIC SHIELDING IN INVERTEBRATES. Temuryants N.A. , Kostyuk A.S. , Tumanyants K.N. , Yarmolyuk N.S., Demtsun N.A. Taurida V.I. Vernadsky National University , Simferopol, Crimea, Ukraine. MOSCOW, 2012. Goal of the project:. - PowerPoint PPT PresentationTRANSCRIPT
MOSCOW, 2012
EFFECTS OF LONG-TERM WEAK EFFECTS OF LONG-TERM WEAK ELECTROMAGNETIC SHIELDINGELECTROMAGNETIC SHIELDING
IN INVERTEBRATESIN INVERTEBRATES
Temuryants N.A., Kostyuk A.S., Tumanyants K.N.,
Yarmolyuk N.S., Demtsun N.A.
Taurida V.I. Vernadsky National University,
Simferopol, Crimea, Ukraine
1
Goal of the project:Goal of the project:
To discover changes that are conferred by electromagnetic shielding on
regenerative processes in planarias and on nociceptive reactions in snails.
2
Research subject– planaria Dugesia tigrina
Research subject– planaria Dugesia tigrina
Studied parameters:
Regeneration indexRegeneration rateMovement velocityCoefficient of effectivenessInfradian rhythmicity
4
Studied parameters:
Threshold and latent period of avoidance of the thermal stimulusCoefficient of effectivenessInfradian rhythmicity
Research object– nociception of land snails Helix albescens
5
Dynamics of the efficiency coefficient of electromagnetic shielding (%), calculated of RI (----) and MV (- - -)
Note: solid dots– valid differences
Day of experiment
Eff
icie
ncy
Co
effi
cien
t (%
)
Spectra of infradian rhythms of the regeneration index in intact planaria and animals regenerating under
electromagnetic shielding, spring period
7
Dynamics of the efficiency coefficient (%) of electromagnetic shielding during various seasons
of the year.
Note:* – validity of differences between coefficient of electromagnetic shielding and the values in the control group of snails: * – (р<0,001), ** – (р<0,01), *** – (р<0,05)
**
*
Spectra of infradian rhythms of the latent periodSpectra of infradian rhythms of the latent period in in intact snails and animals under electromagnetic intact snails and animals under electromagnetic
shieldingshielding, , various seasons of the yearvarious seasons of the year
8
0
0,01
0,02
0,03
0,04
0,05
0,06
0,07
0,08
0,09
2,21-2,42 2,67 3,37 3,76 4,57 6,40 7,53 9,14
Period (days)
Am
plit
ude
(uni
ts)
Control
EMS
Spring
0
0,01
0,02
0,03
0,04
0,05
0,06
0,07
0,08
0,09
2,33 2,61-2,91 3,66-3,88 5,57 7,53
Period (days)
Am
plit
ud
e (u
nit
s)
ControlEMS
Summer
0
0,01
0,02
0,03
0,04
0,05
0,06
0,07
0,08
0,09
2,37-2,46 2,67-2,91 3,12-3,46 4,13-4,41 5,12 6,10 7,11 9,14
Period (days)
Am
plitu
de (u
nits
)
Control
EMS
,
Fall
0
0,01
0,02
0,03
0,04
0,05
0,06
0,07
0,08
0,09
2,37 2,72-2,91 3,37-3,88 4,13-4,92 5,12 8 9,85
Period (days)
Am
plitu
de (u
nits
)
Control
EMS
Winter
9
Dynamics of efficiency coefficient (%) of variable magnetic field, electromagnetic shielding and their
combination
Note: solid dots– valid differences between efficiency coefficient in snails under isolated variable magnetic field and electromagnetic shielding relative to the combined effects of electromagnetic factors.
VMF EMS VMF+EMS
10
Inter-relation of changes in physiological parameters affected by the electromagnetic factors and changes
in melatonin secretion
Adaptation reactionsAdaptation reactions
Pain modulationPain modulation
Time sensorTime sensor
CytoskeletonCytoskeleton ( (cilia)cilia)
Proliferative activityProliferative activity Index ofIndex of regenerationregeneration
Velocity of movement
InfradianInfradianrhythmicityrhythmicity
Anti-nociceptionAnti-nociception
Effect Effect Under VMFUnder VMF
Opiod systemOpiod system
SpectrumSpectrumreconstructionreconstruction
Increase inIncrease invelocityvelocity
Stimulation ofStimulation ofregenerationregeneration
Modulation ofModulation ofnociceptionnociception
MELATONINMELATONIN
Thanks For Attention