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Conductance

Conductance is the active component of admittance. It belongs to the part of current in phase with voltage and therefore to real power consumption.

In the dielectric-loss chapter, Steinmetz also uses conductance for leakage and effective dielectric losses.

G=(Y)G = \Re(Y)

For a simple resistor:

G=1RG = \frac{1}{R}

But in a general AC circuit:

Y=1ZY = \frac{1}{Z}

so conductance is the real component of the reciprocal of the whole impedance.

Conductance is not just a flipped resistance. In Steinmetz’s AC language it is the mathematical home of real-power effects when using the admittance view, especially parallel circuits and dielectric paths.

Interpretive Boundary

Source fact: conductance is tied to power or energy components. Interpretive reading: field-centered researchers may see conductance as the measurable channel by which field processes become real power loss. That broader reading should remain labeled.

Generated evidence layer: this dossier is built from the processed concept concordance. Counts and snippets are OCR/PDF-text aids, not final quotations. Verify against scans before making exact claims.

321

Candidate occurrences tracked for this page.

11

Sources with at least one hit.

60

Sections, lectures, chapters, or report divisions to review.

Read this concept page through the linked source passages first. Use the dossier to locate Steinmetz’s wording, then add modern, mathematical, historical, and interpretive layers only with labels.

The strongest current source concentration is Theory and Calculation of Alternating Current Phenomena with 86 candidate hits across 10 sections.

The dossier is meant to turn a concept page into a research workbench: begin with Steinmetz’s source wording, then add modern interpretation, mathematical reconstruction, historical context, and any ether-field reading as separate layers.

conductance, conductances

Conductance

SourceCandidate HitsSectionsConcepts represented
Theory and Calculation of Alternating Current Phenomena8610Conductance
Theory and Calculation of Alternating Current Phenomena7910Conductance
Theory and Calculation of Alternating Current Phenomena727Conductance
Theory and Calculation of Transient Electric Phenomena and Oscillations3113Conductance
Theory and Calculation of Electric Circuits213Conductance
Elementary Lectures on Electric Discharges, Waves and Impulses, and Other Transients83Conductance
Elementary Lectures on Electric Discharges, Waves and Impulses, and Other Transients83Conductance
Theoretical Elements of Electrical Engineering84Conductance
Chapter 8: Admittance, Conductance, Susceptance - 26 candidate hits

Source: Theory and Calculation of Alternating Current Phenomena (1916)

Location: lines 4088-4673 - Tracked concepts: Conductance

Open source text - Open chapter workbench

CHAPTER VIII ADMITTANCE, CONDUCTANCE, SUSCEPTANCE 48. If in a continuous-current circuit, a number of resistances, Ti, r2, ?'3, . . ., are connected in series, their joint resistance, R, is the sum of the individual resistances, K = ri + r2 + ra + . . . If, however, a number of resistances ...
... ir joint resistance, R, cannot be expressed in a simple form, but is represented by the expression 1 R = Ti n rz Hence, in the latter case it is preferable to introduce, instead of the term resistance, its reciprocal, or inverse value, the term conductance, g = ~- If, then, a number of conductances, 9iy Qij ds, • ' ' are connected in parallel, their j...
Chapter 7: Admittance, Conductance, Susceftance - 23 candidate hits

Source: Theory and Calculation of Alternating Current Phenomena (1897)

Location: lines 3546-3871 - Tracked concepts: Conductance

Open source text - Open chapter workbench

CHAPTER VII. ADMITTANCE, CONDUCTANCE, SUSCEFTANCE. 38. If in a continuous-current circuit, a number of resistances, rj, rj, rg, . . . are connected in series, their joint resistance, Ry is the sum of the individual resistances ^ = ^1 + ^2 + 'a + • • • If, however, a number of resistance ...
... , their joint resistance, R^ cannot be expressed in a simple form, but is represented by the expression : - rx n r^ Hence, in the latter case it is preferable to introduce, in- stead of the term resistance^ its reciprocal, or inverse value, the term conductance^ g =\ J r. If, then, a number of con- ductances, gxy g%i g^y . . . are connected in paralle...
Chapter 7: Admittance, Conductance, Susceptance - 23 candidate hits

Source: Theory and Calculation of Alternating Current Phenomena (1900)

Location: lines 3132-3576 - Tracked concepts: Conductance

Open source text - Open chapter workbench

CHAPTER VII. ADMITTANCE, CONDUCTANCE, SUSCEPTANCE. 38. If in a continuous-current circuit, a number of resistances, ?\, r%, r3, . . . are connected in series, their joint resistance, R, is the sum of the individual resistances If, however, a number of resistances are connected in multiple ...
... ce, R, cannot be expressed in a simple form, but is represented by the expression : - = J_ _l_ JL + J_ + /*! /*2 ^3 Hence, in the latter case it is preferable to introduce, in- stead of the term resistance, its reciprocal, or inverse value, the term conductance, g = 1 / r. If, then, a number of con- ductances, g^, g^, gz, . . . are connected in parall...
Chapter 10: Effective Resistance And Reactance - 19 candidate hits

Source: Theory and Calculation of Alternating Current Phenomena (1900)

Location: lines 6957-8383 - Tracked concepts: Conductance

Open source text - Open chapter workbench

... of E.M.F. Total current It is called the effective resistance of the circuit, since it represents the effect, or power, expended by the circuit. The energy coefficient of current, a._ Energy component of current Total E.M.F. is called the effective conductance of the circuit. EFFECTIVE RESISTANCE AND REACTANCE. 105 In the same way, the value, _ Wattle...
... he true ohmic resistance in such way as to represent a larger expenditure of energy. In dealing with alternating-current circuits, it is necessary, therefore, to substitute everywhere the values "effective re- sistance," "effective reactance," "effective conductance," and " effective susceptance," to make the calculation appli- cable to general altern...
Chapter 10: Resistance And Reactance Of Transmission - 17 candidate hits

Source: Theory and Calculation of Alternating Current Phenomena (1916)

Location: lines 6993-9766 - Tracked concepts: Conductance

Open source text - Open chapter workbench

... ge due to a line of given resistance and reactance depends upon the phase difference in the receiver circuit, and can be varied and controlled by varying this phase difference; that is, by varying the admittance, Y = g - jh, of the receiver circuit. The conductance, g, of the receiver circuit depends upon the consumption of power - that is, upon the l...
... shunt- ing the circuit with a reactance, and will be increased by a shunted inductive reactance, and decreased by a shunted con- densive reactance. Hence, for the purpose of investigation, the receiver circuit can be assumed to consist of two branches, a conductance, g, - the non-inductive part of the circuit - shunted by a susceptance, h, which can b...
Chapter 9: Kbsistanci: And Kbactance Of Transmission Iine8 - 17 candidate hits

Source: Theory and Calculation of Alternating Current Phenomena (1897)

Location: lines 6371-8268 - Tracked concepts: Conductance

Open source text - Open chapter workbench

... due to a line of given re- sistance and inductance depends upon the phase difference in the receiver circuit, and can be varied and controlled by varying this phase difference; that is, by varying the admittance, Y = g + Jb, of the receiver circuit. The conductance, g, of the receiver circuit depends upon the consumption of power, - that is, upon the...
... a reactance, and will be increased by a shunted inductance, and decreased by a shunted con- densance. Hence, for the purpose of investigation, the 84 AL TERN A TIXG-CURRENT PHENOMENA, [§ 68 receiver circuit can be assumed to consist of two branches, a conductance, g^ - the non-inductive part of the circuit, - shunted by a susceptance, by which can be...
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