Experiment about relationship between magnetic repulsive force and flux density.

1.Experimental result of repulsive force and flux density

 f:id:omata-yoshiaki6475:20200725065138p:plain

X-Axis : flux density  (Wb/m2)     Y-Axis : repulsive force (g)

 

f:id:omata-yoshiaki6475:20200625072505p:plain

 

2.method of experiment

2-1.The measurement of repulsive force and attractive force.

f:id:omata-yoshiaki6475:20200625061841p:plain

 

2-2.The method of measurment of flux

  f:id:omata-yoshiaki6475:20200625071658p:plain

 

3.Experimental result of attractive force and flux density

f:id:omata-yoshiaki6475:20200625071822p:plain

 X-Axis : flux density  (Wb/m2)     Y-Axis :attractive force (g)

 

f:id:omata-yoshiaki6475:20200625072057p:plain

 

4.Comparison between repulsive force and attractive force

4-1.Electromagnet

f:id:omata-yoshiaki6475:20200625061924p:plain

 

4-2.U -shaped magnet

                                         f:id:omata-yoshiaki6475:20200625055111p:plain

                           f:id:omata-yoshiaki6475:20200625055246p:plain

                                 

5. Difference of electromagnetic force by presence or absence of lead

            f:id:omata-yoshiaki6475:20200625083921p:plain

 

6.Experiment about relationship between transmission rate of magnetic field and relative permeability of core of electromagnet, on the two electromagnet. It is addition in July, 2022.

The experimental result say that the transmission rate of magnetic field is influenced by magnetic flux B which is made by the magnetic field .

 

6-1 Method of experiment

 ・Layout of the electromagnet A and electromagnet B      

         

  ・Specification of electromagnets

     

 *1 electromagnet A : 2.34Ω  electromagnet B : 2.31Ω

        OD: outer diameter

       ID: inner diameter

      TH: thickness

      MT: material

      ERP: estimated relative permeability

     WN: winding number

      R: resistance

 

・Wiring when only the electromagnet A is connected

                   

               IC : input current

               av : the voltage to work to the electromagnet A

              acv : the voltage that is induced to the electromagnet A

                      acv=(av2―(IC×Ra)2)0.5

               Ra : the resistance of the electromagnet A

    bcv : the voltage that is induced to the electromagnet B

    haa : the magnetic field by the electromagnet A, at the electromagnet A

              hab : the magnetic field by the electromagnet A ,at the electromagnet B

 

・Wiring when the two electromagnets are connected.            

           

           IV : input voltage

          IC : input current

           AV : the voltage to work to the electromagnet A

         ACV : the voltage that is induced to the electromagnet A

                      ACV=(AV2―(IC×Ra)2)0.5

               Ra : the resistance of the electromagnet A

           BV : the voltage to work to the electromagnet B

    BCV : the voltage that is induced to the electromagnet B

                      BCV=(BV2―(IC×Rb)2)0.5

               Rb : the resistance of the electromagnet B

    Haa : the magnetic field by the electromagnet A, at the electromagnet A

         Hab : the magnetic field by the electromagnet A ,at the electromagnet B

         Hbb : the magnetic field by the electromagnet B, at the electromagnet B

         Hba : the magnetic field by the electromagnet B ,at the electromagnet A

         Hba/Hbb=Hab/Haa=KH

   KH : transmission rate of the magnetic field    

 

6-2.Calculation of KH

        ACV=Kh×(Haa+Hba)  Kh:constant of proportionality

               Hba=KH×Hbb   

        ACV=Kh×(Haa+KH×Hbb)

              Haa=Hbb=Kc×IC     Kc:constant of proportionality

      ACV=Kh×(Kc×IC+KH×Kc×IC) 

      =Kh×Kc×IC×(1+KH)

     acv=Kh×haa=Kh×Kc×ic

              Kh×Kc=acv/ic

      ACV=(acv/ic)×IC×(1+KH)

   (1+KH)=ACV/((acv/ic) ×IC)

          1+KH=(ACV/IC)×(ic/acv)

       KH=(ACV/IC)×(ic/acv)-1

 

6-3. The experimental result of the KH   

       

        bcv=Kh×hab=Kh×(KH×haa)

           acv=Kh×haa

           bcv/acv= Kh×(KH×haa)/(Kh×haa)=KH

 

The photographs of the line of the magnetic force and the line (Blue) of the magnetic force of H from Haa.

    Repulsive              bcv/acv             attractive              

       :  the line of the magnetic force of H that I imagined

                                                                                                       In CASE2, GUP 20mm.

 

6-4.The details of the experimental results

(1)Case 1

(1)-1 Gap 0mm

        ・only the electromagnet A is connected

         

         ・the two electromagnets are connected.

            Attraction        

            

                Repulsion

         

(1)-2 Gap 5mm

       ・only the electromagnet A is connected

         

       ・the two electromagnets are connected.

             Attraction

         

               Repulsion

         

(1)-3 Gap 10mm

        ・only the electromagnet A is connected

         

       ・the two electromagnets are connected.

              Attraction

         

                  Repulsion

         

(1)-4 Gap 20mm

       ・only the electromagnet A is connected

           

      ・the two electromagnets are connected.

                      Attraction

         

                     Repulsion

         

(1)-5 Gap 30mm

       ・only the electromagnet A is connected

         

      ・the two electromagnets are connected.

                    Attraction

         

                   Repulsion

         

 

(2)Case-2

(2)-1 Gap 0mm

       ・only the electromagnet A is connected

         

       ・the two electromagnets are connected.

                     Attraction

         

                    Repulsion

         

(2)-2 Gap 5mm

        ・only the electromagnet A is connected

       

     ・the two electromagnets are connected.

                     Attraction

                                Repulsion

             (2)-3 Gap 10mm

      ・only the electromagnet A is connected

       

    ・the two electromagnets are connected.

                   Attraction

     

                   Repulsion

       

(2)-4 Gap 20mm

      ・only the electromagnet A is connected

       

    ・the two electromagnets are connected.

                 Attraction

       

                  Repulsion

       

(2)-5 Gap 30mm

      ・only the electromagnet A is connected

       

      ・the two electromagnets are connected.

                   Attraction

       

                   Repulsion

       

 

6-5 Calculation of the permeability               

           Φ=V/(2×π×Hz×N )

    B=Φ/S

       H=n×I

       μ=B/H

 

  1. Experiment about KH of the two air-core coils which are wound up to a bobbin together and with no current coil. It is addition in August, 2022.

           No current coil       

      

       A-coil        B-coil

 

   Specification of coil

       

          OD : outer diameter

                      ID : inner diameter

                                   W : width

                              EWN : estimated winding number

                                    R : resistance value

                                WD :  diameter of wire

                              NCC : no current coil

 

・only the A-coil is connected

           

 

 ・only the B-coil is connected

           

 

・the A-coil and B-coil are connected.

        Attraction     

              AKH:KH from B-coil to A-coil

                 BKH:KH from A-coil to B-coil

 

     Repulsion

           

                 NV:voltage of no current coil

            AKH:KH from B-coil to A-coil

               BKH:KH from A-coil to B-coil

 

8. Experiment about KH of the two air-core coils which are wound up to a bobbin in two layers and with no current coil each. It is addition in August, 2022. 

 

 Specification of coil 

   

             OD : outer diameter

               ID : inner diameter

               W : width

             WN : winding number

                R : resistance valu

            WD : diameter of wire

            NCC : no current coil

 

・only the A-coil is connected

     

            anv : voltage of no current coil of A-coil

 

・only the B-coil is connected

     

              Bnv : voltage of no current coil of B-coil

 

・the A-coil and B-coil are connected.

           Attraction

 

Repulsion

 

9.Ideas about space

9-1. The measuring method of the speed of the solar system through space

             f:id:omata-yoshiaki6475:20200625095404p:plain

he frequency of the light from the star at space=f0

The speed of the solar system througu space=Vx

The revolution speed of the earth=v

The speed of light=c

The frequency of the light from the star at the earth=f+

      when the speed of the earth through space=Vx+v.

The frequency of the light from the star at the earth=f-

     when the speed of the earth through space=Vx-v.

 

 f+=f0×(1+(Vx+v)/c)×(1-(1-(Vx+v)^2/c^2)^-0.5

 f-=f0×(1+(Vx-v)/c)×(1-(1-(Vx-v)^2/c^2)^-0.5

 You can calculate f0 and Vx with these equations.

 

In addition, if f0s of other stars which are in the direction that the solar system moves are diffrent and Vxs are the same, I think that Vx is the speed of the solar system through space.

 

9-2. Vx and CBR anistropy

 If Vx were the speed of the solar system which move relative to CBR, space would have the black body radiation . And we can not find the difference between CBR and the black body radiation of space. 

 

9-3.Source of black body radiaion and the black body radiation of material on the earth

Source of black body radition has myriad of harmonic oscillator. But material on the earth does not have myriad of harmonic oscilltor. So, source of black body radition of the material on the earth may be the space in the material on the earth. So, black body radition of the material on the earth may have anisotropy which is the same of the anistropy of CBR.