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Magnetism, Hysteresis, And Core Loss

Routes formulas for magnetic materials, flux, loss, effective resistance, and hysteresis behavior.

38

candidate records in this family.

27

reviewable relation candidates.

6

sources represented.

#1Theory and Calculation of Electric CircuitsChapter 5: Magnetism- line 9202
Pi’actically non-magnetic, lowers the permeability to /x = 1.4.
#2Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 6282
- 1.12, jB= - 1.0: the rising magnetization curve B ’” then passes
#3Theoretical Elements of Electrical EngineeringTheory Section 1: Magnetism and Electric Current- line 820
9. (3) What is the- total magnetic flux per I = 1000 m. length,
#4Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 6841
and B = +13.6, and a given value of flux density, such as B =
#5Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 6884
ing amplitude, with ff = 1, as mean value, the flux density gradu-
#6Theory and Calculation of Electric CircuitsChapter 4: Magnetism- line 8975
Bi = -|- 12,000 and -Bg = -4000, the increase of the hysteresis
#7Theory and Calculation of Electric CircuitsChapter 5: Magnetism- line 9076
paramagnetic metals, is /x = 1.003; the permeability of bismuth,
#8Theory and Calculation of Electric CircuitsChapter 5: Magnetism- line 9127
silicon steel, a = 0.04 X 10”^, and the coefficient of hysteresis of
#9Theory and Calculation of Electric CircuitsChapter 5: Magnetism- line 9417
""I = coefficient of hysteresis, in the 1.6*^ power law.
#10Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 6804
flux density, B2 = 2.6. If, however, this field strength ff = 1
#11Theory and Calculation of Alternating Current PhenomenaChapter 1: Introduction- line 1072
If now 4> = the magnetic flux produced by, and inter-
#12Theoretical Elements of Electrical EngineeringTheory Section 1: Magnetism and Electric Current- line 751
The permeability of air = 1 and is constant.
#13Theoretical Elements of Electrical EngineeringTheory Section 1: Magnetism and Electric Current- line 889
in the yoke. The permeability of sheet iron is m = 2550 at
#14Theoretical Elements of Electrical EngineeringTheory Section 1: Magnetism and Electric Current- line 890
5i = 6880, MS = 2380 at B3 = 5950. The permeability of cast
#15Theoretical Elements of Electrical EngineeringTheory Section 3: Generation of E.m.f.- line 1082
T = 90°, or at the position of zero inclosure of magnetic flux
#16Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 6805
is left on the magnetic circuit, the flux does not remain at B2 =
#17Theory and Calculation of Electric CircuitsChapter 4: Magnetism- line 7594
but beyond B = 12, the flux carried by the magnetite rapidly
#18Radiation, Light and IlluminationLecture 10: Light Flux And Distribution- line 9569
The light flux in the space from the downward direction </> = 0
#19Theoretical Elements of Electrical EngineeringTheory Section 4: Power and Effective Values- line 1403
14 miles = 22,400 m. The magnetic flux produced by /
#20Theoretical Elements of Electrical EngineeringTheory Section 1: Magnetism and Electric Current- line 500
therefore of flux $> = 4 xw, assuming a uniform distribution in
#21Theoretical Elements of Electrical EngineeringTheory Section 2: Magnetism and E.m.f.- line 985
cylinder, if the magnetic flux of the electromagnet is <£ = 25
#22Theoretical Elements of Electrical EngineeringTheory Section 3: Generation of E.m.f.- line 1192
15 rev. per sec., this flux is cut 4 X 15 = 60 times per second by
#23Theory and Calculation of Alternating Current PhenomenaChapter 4: Graphic Representation- line 2212
3> = maximum value of magnetic flux, in webers.
#24Theory and Calculation of Alternating Current PhenomenaChapter 4: Graphic Befrisxintation- line 2623
4> = maximum value of magnetic flux, in webers.
#25Theory and Calculation of Electric CircuitsChapter 4: Magnetism- line 7593
As seen, the magnetite carries practically no flux up to £ = 10,
#26Theory and Calculation of Electric CircuitsChapter 5: Magnetism- line 9129
con steel, 77 = 0.6 X 10”’. Hardness and hysteresis loss seem
#27Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 6256
back to B = 0, but a residual or remanent flux is left, in Fig. 25 :
#28Theoretical Elements of Electrical EngineeringTheory Section 2: Magnetism and E.m.f.- line 990
12.5 X 108 lines of magnetic flux per second. Hence the gener-
#29Theory and Calculation of Alternating Current PhenomenaChapter 3: Iiaw Of Eucctbo-Maonimc Induction- line 1999
of ’ the flux inclosed by the turns, times 10~*.
#30Theory and Calculation of Alternating Current PhenomenaChapter 3: Iiaw Of Eucctbo-Maonimc Induction- line 2085
flux X number of turns X 10~^
#31Theory and Calculation of Alternating Current PhenomenaChapter 3: Law Of Electromagnetic Induction- line 2115
flux X number of turns X 10”^
#32Theoretical Elements of Electrical Engineeringsource index- line 269
10. Hysteresis and Effective Resistance. 48
#33Theory and Calculation of Alternating Current PhenomenaChapter 3: Law Of Electro-Magnetic Induction- line 1632
of the flux inclosed by the turns, times 10~8.
#34Theory and Calculation of Alternating Current PhenomenaChapter 3: Law Of Electro-Magnetic Induction- line 1703
flux X number of turns X 10~8
#35Theory and Calculation of Alternating Current PhenomenaChapter 4: Graphic Representation- line 2247
The resultant magnetic flux, 4>, which in the secondary
#36Theory and Calculation of Alternating Current PhenomenaChapter 4: Graphic Befrisxintation- line 2658
The resultant magnetic flux, 4>, which in the secondary
#37Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 5801
Fig. 23 shows an average magnetization curve, of good standard
#38Theory and Calculation of Electric CircuitsChapter 3: Magnetism- line 6853
flux density decreasing, to Po, slower to P2 and then still slower,