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Page 21

J u l y 2 3 - 2 4 , 2 0 1 8 | R o m e , I t a l y

allied

academies

Joint Event on

Cardiology Congress 2018 & Microbe Infection 2018

Biomedical Research

|

ISSN: 0976-1683

|

Volume 29

2

nd

World Congress on

CARDIOLOGY

MICROBIOLOGY AND MICROBIAL INFECTION

&

39

th

Annual Congress on

Merab Beraia et al., Biomed Res 2018, Volume 29 | DOI: 10.4066/biomedicalresearch-C1-002

ELECTROMAGNETIC PROPERTIES OF THE

ARTERIAL BLOOD FLOW

Merab Beraia

1

and

Beraia G

2

1

Institute of Clinical Medicine, Georgia

2

Tbilisi State Medical University, Georgia

Introduction:

Blood flow acceleration increases from the left ventricular

outflow tract, to the sinotubular junction and the ascending aorta, while

it must be decreasing due to the flow turbulences in the Valsalva sinuses

and increased diameter of the vessel. Total energy of the pulse wave in the

arterioles is up to 7.2 times higher, than in the ascending aorta, while it must

be low due to the energy dissipation in the viscous flow, with the distance

from the heart. Work made by the left ventricle, at least 2.0-2.5 times lower

to the work needed for the blood displacement, in the systemic capillaries.

Purpose:

The purpose of the study is identifying the additional possible

energy source, for the arterial blood flow.

Methods & Materials:

12 healthy volunteer students (male) underwent

echocardiography, ECG gated MRI of the heart for the visualization

intracavitary flow in the ventricles, MR angiography of the aorta. Blood flow

velocities and acceleration were studied in the different sites of the heart and

the aorta.

Results:

With the DU in the left ventricular outflow tract blood acceleration is

1430±120 cm/sec

2

, in the sinotubular junction and ascending aorta 2395±195

cm/sec

2

, at the aortic arch 1390±225 cm/sec

2

, isthmus of aorta 2180±135

cm/sec

2

, middle thoracic aorta 1260±140m/sec

2

. With the MRI (TrueFisp.

mean curve), blood acceleration from the left ventricular outflow tract to

the sinotubular junction is 3.5±0.3 times higher and to the ascending aorta

2.5±0.2 times higher. Systolic blood pressure from the ascending aorta to the

femoral and saphenous elastic arteries enhancing 1.3±0.1 times, increasing

energy transmitted to the blood. Direction of the electric charge in the heart’s

ventricles from the circulating erythrocytes and in the fibres of the Purkinje

(ECG), mathematically are coincident.

Conclusion:

Availability of the heart, as the possible single tool for the blood

flow, looks imperfect. Electric oscillate field from the heart dipoles can be

impact to the blood charged particles. Erythrocyte forms the modulated

naturally ultrasound vibration and associated with it colloid vibration current

propagating distally to the all cell membranes. Blood motion in the heart

chambers and arteries has the additional basis, besides the heart contraction:

rotating blood particles in the heart chambers and in the arterial branching

sites or the high resistive areas, with the concomitant oscillating electric field

triggered from the heart, creates to the additional electromagnetic repulsing

force, providing to the flow. Modulating ac electric field, transmitting by the

oscillate blood particles, besides the flow, creates additional energy/signal

Merab Beraia has been graduated from Tbilisi State

Medical University in 1986, as a Medical Doctor, with

the specialty of Internal Medicine and took a Diploma

in Neurology from the Institute of Clinical and Exper-

imental Neurology Tblisi, Georgia. Later he obtained

his post-graduation diploma in Radiology from Univer-

sity of Graz, Austria and then started working at The

Institute of Clinical Medicine Tbilisi, Georgia, where he

has continued his research. Presently he is working at

the Tbilisi.

mberaia@hotmail.com

BIOGRAPHY

source, enabling the spontaneous chemical

reactions proceed across the cell membranes.

Electromagnetism can be affect gas exchange

in the systemic and pulmonary capillaries due

to the different affinity of the oxygen and carbon

dioxide in the diamagnetic/paramagnetic

haemoglobin.