Theory and Calculation of Electric Circuits Formula Map

Formula Map

Review layer: these are OCR/PDF-text formula candidates. Promote only after scan verification, mathematical transcription, and notation review.

300

Formula and equation candidates.

102

Strong formula candidates.

99

Reviewable relation candidates.

Read source textOpen the processed text reader for this source.Use chapter workbenchSee equations beside concepts, figures, glossary hits, and source snippets.Open visual mapSee promoted crops, figure candidates, and modern guide diagrams for the same source.Open equation atlasCompare this source against the full formula-family map.

Formula Families

Family	Candidates
General Equation Candidates	246
Magnetism, Hysteresis, And Core Loss	16
Symbolic AC And Complex Quantities	12
Inductance, Capacity, And Stored Energy	10
Power, Energy, Work, And Efficiency	6
Waves, Lines, Radiation, And Frequency	5
Engineering Mathematics Foundations	5

Highest-Priority Candidates

Candidate	Family	OCR/PDF text	Routes
theory-calculation-electric-circuits-eq-candidate-0053 strong-formula-candidate	general-equation-candidates	Pi = 6i i = c -y/i {I + 8)	source workbench
theory-calculation-electric-circuits-eq-candidate-0097 strong-formula-candidate	general-equation-candidates	Pi = 0.102 + 0.059 H (7)	source workbench
theory-calculation-electric-circuits-eq-candidate-0105 strong-formula-candidate	general-equation-candidates	of soft material of reluctivity pi (ferrite) and g = 1 - p of hard	source workbench
theory-calculation-electric-circuits-eq-candidate-0106 strong-formula-candidate	symbolic-ac	P2 = a2 + fT^H J	source workbench
theory-calculation-electric-circuits-eq-candidate-0115 strong-formula-candidate	general-equation-candidates	p = 0.80 : pi = 0.082 + 0.0477 H,	source workbench
theory-calculation-electric-circuits-eq-candidate-0117 strong-formula-candidate	symbolic-ac	inward bend of J?i below H = 2, are best shown (“Engineering	source workbench
theory-calculation-electric-circuits-eq-candidate-0135 strong-formula-candidate	symbolic-ac	J? = 1, may give any value of flux density between B = -4.6	source workbench
theory-calculation-electric-circuits-eq-candidate-0195 strong-formula-candidate	general-equation-candidates	log w = log 7} + n log B, (19)	source workbench
theory-calculation-electric-circuits-eq-candidate-0244 strong-formula-candidate	magnetism-hysteresis	Pi’actically non-magnetic, lowers the permeability to /x = 1.4.	source workbench
theory-calculation-electric-circuits-eq-candidate-0283 strong-formula-candidate	general-equation-candidates	PI = ^ \ . ^ gram-cm. (22)	source workbench
theory-calculation-electric-circuits-eq-candidate-0296 strong-formula-candidate	symbolic-ac	FJ = j^ = -J- gram-cm. (29)	source workbench
theory-calculation-electric-circuits-eq-candidate-0065 strong-formula-candidate	general-equation-candidates	It seems as if the terminal drop, a = 36 volts with carbon, con-	source workbench
theory-calculation-electric-circuits-eq-candidate-0122 strong-formula-candidate	symbolic-ac	Ai, at ff = - 1.5, J5 = -4, and then again reverse, we get a ris-	source workbench
theory-calculation-electric-circuits-eq-candidate-0124 strong-formula-candidate	magnetism-hysteresis	- 1.12, jB= - 1.0: the rising magnetization curve B ’” then passes	source workbench
theory-calculation-electric-circuits-eq-candidate-0188 strong-formula-candidate	general-equation-candidates	rj = 0.824 X 10-3 fQj. ^i^Q medium range, where n = 1.6	source workbench
theory-calculation-electric-circuits-eq-candidate-0190 strong-formula-candidate	general-equation-candidates	n = 1.6 for the medium range, where ij = 0.0824 X 10-‘	source workbench
theory-calculation-electric-circuits-eq-candidate-0191 strong-formula-candidate	general-equation-candidates	Ml = 2 for the low range, where in = 0.0457 X 10”*	source workbench
theory-calculation-electric-circuits-eq-candidate-0230 strong-formula-candidate	general-equation-candidates	^^ lower intrinsic saturation value. Thus, if S = 21 X 10’ is	source workbench
theory-calculation-electric-circuits-eq-candidate-0179 strong-formula-candidate	general-equation-candidates	from log B = 3; B = 1000, to log B = 4; B = 10,000, with slope	source workbench
theory-calculation-electric-circuits-eq-candidate-0180 strong-formula-candidate	general-equation-candidates	1.6006, and for low densities, up to log B = 2.6; B = 400, with	source workbench
theory-calculation-electric-circuits-eq-candidate-0004 strong-formula-candidate	general-equation-candidates	r = roT (1)	source workbench
theory-calculation-electric-circuits-eq-candidate-0013 strong-formula-candidate	general-equation-candidates	i = ’-^^^ (2)	source workbench
theory-calculation-electric-circuits-eq-candidate-0045 strong-formula-candidate	general-equation-candidates	r = roS-”^ (3)	source workbench
theory-calculation-electric-circuits-eq-candidate-0052 strong-formula-candidate	general-equation-candidates	e = a + 7T- (4)	source workbench
theory-calculation-electric-circuits-eq-candidate-0054 strong-formula-candidate	general-equation-candidates	ei = 7T- (5)	source workbench
theory-calculation-electric-circuits-eq-candidate-0064 strong-formula-candidate	general-equation-candidates	by equation (4), and approaches for i = the value 6 = 28 volts.	source workbench
theory-calculation-electric-circuits-eq-candidate-0076 strong-formula-candidate	symbolic-ac	= a + 1.5 ^SL+J) (9)	source workbench
theory-calculation-electric-circuits-eq-candidate-0077 strong-formula-candidate	general-equation-candidates	ei = d (10)	source workbench
theory-calculation-electric-circuits-eq-candidate-0086 strong-formula-candidate	general-equation-candidates	M = a(S - B) (1)	source workbench
theory-calculation-electric-circuits-eq-candidate-0088 strong-formula-candidate	general-equation-candidates	for B = Oy equation (1) gives	source workbench