🗊Презентация Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine

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Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №1Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №2Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №3Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №4Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №5Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №6Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №7Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №8Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №9Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №10Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №11Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №12Interaction of electromagnetic field with bioobjects. Application of lasers in biology and medicine, слайд №13
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Слайды и текст этой презентации

Слайд 1


INTERACTION OF ELECTROMAGNETIC FIELD WITH BIOOBJECTS. APPLICATION OF LASERS IN BIOLOGY AND MEDICINE
Описание слайда:
INTERACTION OF ELECTROMAGNETIC FIELD WITH BIOOBJECTS. APPLICATION OF LASERS IN BIOLOGY AND MEDICINE

Слайд 2


Four essentially varioys theraputic ways of EHF-radiation 1. Action of electromagneyic irradiation on EHF-range of freqencies which appropriate to character of fuctional disorder for adaptive precesses growth stimulation is used 2. Influence on frequencies reflection specificity of a concrete antigen 3. Influence at the frequncies that activate immune cells, but don`t activate the nonspecific cells to concrete antigen. 4. EHF-radiation action joined with factors, that distroy the irreversibly changed tissues, with infiltration in organism of activated by EHF-radiation healthy tissues
Описание слайда:
Four essentially varioys theraputic ways of EHF-radiation 1. Action of electromagneyic irradiation on EHF-range of freqencies which appropriate to character of fuctional disorder for adaptive precesses growth stimulation is used 2. Influence on frequencies reflection specificity of a concrete antigen 3. Influence at the frequncies that activate immune cells, but don`t activate the nonspecific cells to concrete antigen. 4. EHF-radiation action joined with factors, that distroy the irreversibly changed tissues, with infiltration in organism of activated by EHF-radiation healthy tissues

Слайд 3


The interaction of electromagnetic fields with substaces Substace in an electrical field. All bodies consist of molecules, molecule from atoms, and each atom from the positively chargednucleus and rotatinf around of it electrons, having a negative charge. Usually, bodies electrical are neutral, as with a high degree of accracy the amount of electric negative charges is equal to amount of electric field essntioally depends, how these charges are connected among themselves.
Описание слайда:
The interaction of electromagnetic fields with substaces Substace in an electrical field. All bodies consist of molecules, molecule from atoms, and each atom from the positively chargednucleus and rotatinf around of it electrons, having a negative charge. Usually, bodies electrical are neutral, as with a high degree of accracy the amount of electric negative charges is equal to amount of electric field essntioally depends, how these charges are connected among themselves.

Слайд 4


Value which shows in how many times the intensity of electric field in dielectric Eτ less than intensity of external electric field E is named as dielectric permeablility or dielectric constant έ. Thus total electric field intensity can be expressed by the following formula Value which shows in how many times the intensity of electric field in dielectric Eτ less than intensity of external electric field E is named as dielectric permeablility or dielectric constant έ. Thus total electric field intensity can be expressed by the following formula
Описание слайда:
Value which shows in how many times the intensity of electric field in dielectric Eτ less than intensity of external electric field E is named as dielectric permeablility or dielectric constant έ. Thus total electric field intensity can be expressed by the following formula Value which shows in how many times the intensity of electric field in dielectric Eτ less than intensity of external electric field E is named as dielectric permeablility or dielectric constant έ. Thus total electric field intensity can be expressed by the following formula

Слайд 5


The amount of charges on unit area is directly proportional to value of intensity of EF and of dielectric permeability The amount of charges on unit area is directly proportional to value of intensity of EF and of dielectric permeability
Описание слайда:
The amount of charges on unit area is directly proportional to value of intensity of EF and of dielectric permeability The amount of charges on unit area is directly proportional to value of intensity of EF and of dielectric permeability

Слайд 6


The size refers to as electric displacement or induction of an electric field and is designated as D The size refers to as electric displacement or induction of an electric field and is designated as D
Описание слайда:
The size refers to as electric displacement or induction of an electric field and is designated as D The size refers to as electric displacement or induction of an electric field and is designated as D

Слайд 7


The size refers to as electric displacement or induction of an electric field and is designated as D The size refers to as electric displacement or induction of an electric field and is designated as D
Описание слайда:
The size refers to as electric displacement or induction of an electric field and is designated as D The size refers to as electric displacement or induction of an electric field and is designated as D

Слайд 8


Density of dispacement current is equal to speed of change of density of charge. Density of dispacement current is equal to speed of change of density of charge.
Описание слайда:
Density of dispacement current is equal to speed of change of density of charge. Density of dispacement current is equal to speed of change of density of charge.

Слайд 9


Density of a current of conductivity depends on intensity of EF in substance and coefficient of proportionality between them refers to as specific conductivity Density of a current of conductivity depends on intensity of EF in substance and coefficient of proportionality between them refers to as specific conductivity
Описание слайда:
Density of a current of conductivity depends on intensity of EF in substance and coefficient of proportionality between them refers to as specific conductivity Density of a current of conductivity depends on intensity of EF in substance and coefficient of proportionality between them refers to as specific conductivity

Слайд 10


The amount of absorbed energy per one second of substance with a surface area in 1 is directly proportional to a square power of frequency v and intensity E of electric field The amount of absorbed energy per one second of substance with a surface area in 1 is directly proportional to a square power of frequency v and intensity E of electric field
Описание слайда:
The amount of absorbed energy per one second of substance with a surface area in 1 is directly proportional to a square power of frequency v and intensity E of electric field The amount of absorbed energy per one second of substance with a surface area in 1 is directly proportional to a square power of frequency v and intensity E of electric field

Слайд 11


The value of a total magnetic field induction B in paramagnetics also is described by the formula The value of a total magnetic field induction B in paramagnetics also is described by the formula
Описание слайда:
The value of a total magnetic field induction B in paramagnetics also is described by the formula The value of a total magnetic field induction B in paramagnetics also is described by the formula

Слайд 12


The energy of a magnetic field in unit of valume W of diamagnetic or paremagnetic is expressed by the formula The energy of a magnetic field in unit of valume W of diamagnetic or paremagnetic is expressed by the formula
Описание слайда:
The energy of a magnetic field in unit of valume W of diamagnetic or paremagnetic is expressed by the formula The energy of a magnetic field in unit of valume W of diamagnetic or paremagnetic is expressed by the formula

Слайд 13


Reactions, the infience on which MF renders are distributed in biological systems. Thre are processes of electrons transport on a cytochromes chain and connected to them reactions of oxdation phosphorylation, free radicals paricipating in cancerogenesis, electrons transport in Kerbs cycle reactions, many fermentation reactions selection in MF of products containing magnetic isotopes, etc
Описание слайда:
Reactions, the infience on which MF renders are distributed in biological systems. Thre are processes of electrons transport on a cytochromes chain and connected to them reactions of oxdation phosphorylation, free radicals paricipating in cancerogenesis, electrons transport in Kerbs cycle reactions, many fermentation reactions selection in MF of products containing magnetic isotopes, etc

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