Proposed Nomenclature for Steady Shear Flow and Linear Viscoelastic Behavior

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Proposed Nomenclature for Steady Shear Flow and Linear Viscoelastic Behavior C. L. Sieglaff Citation: Transactions of the Society of Rheology 20, 311 (1976); doi: 10.1122/1.549415 View online: https://doi.org/10.1122/1.549415 View Table of Contents: https://sor.scitation.org/toc/tsr/20/2 Published by the The Society of Rheology

TRANSACTIONS OF THE SOCIETY OF RHEOLOGY 20:2, 311-317 (1976) Proposed Nomenclature for Steady Shear Flow and Linear Viscoelastic Behavior C. L. SIEGLAFF, Diamond Shamrock Co., Painesville, Ohio 44077 Eighteen years ago Leaderman [Trans. Soc. Rheol., 1,213 (1957)] published a nomenclature for linear viscoelasticity. Since that time the science of rheology has matured and its use in other disciplines has grown. In order to facilitate communication between these diverse disciplines, a systematic organization of names and symbols is very desirable. In 1970, F. R. Eirich, as vice-president of the Society of Rheology, formed an ad hoc committee to review the status of rheological nomenclature. This committee first convened at the Princeton Annual Society meeting. The committee then agreed that a uniform system of nomenclature for material properties, such as moduli, viscosities, etc., was needed. It was also agreed that the existing prevalent usages should serve as guide lines for proposed nomenclature. Subsequent to the original meeting, several approaches to a uniform system of nomenclature were explored. The results were distilled down to the nomenclature list proposed in the Rheology Bulletin, Vol. 43. Several corrections and comments have been included in the final nomenclature published in this report. A major addition is the use of SI units, as well as the cgs system. The committee recommends that the Society of Rheology members adopt this nomenclature in their communications to the Society. The committee expressly recommends standardization of those symbols and notations representing material constants, material functions, and notations for the directions of shearing flow. The present committee did not consider it necessary or advisable to develop a dictionary of (phenomenological) behavior. A dictionary of this type by M. Reiner and G. W. Scott Blair is currently 311 1976 by The Society of Rheology, Inc. Published by John Wiley & Sons, Inc.

<:>:l t:; Nomenclature for Simple Steady Sheaf Flow v'" = f(y) or Vi = }(X2) Units SI System egg System Symbol Name Definition Name Symbol Dimensions Name Units x,l geometric direction of flow - - t:r:l y,2 direction of velocity change >- z,3 neutral direction CD 0 t"4 tr == trn shear stress in simple steady Pascal Pa m-l.kg 8-2 dyne ern"? shear flow i' shear rate dv,,fdy S-1 S-I 8-1 S-1." viscosity tr/i' Pascal second Pa s m-1 kg s-l Poise dyne-s. cm-z or (N s/m 2 ) NI first normal stress function trll - 1722 Pascal Pa m-l.kg s-2 dyne cm-! Nz second normal stress function 0'22-0'13 Pascal Pa m- 1 kg s-2 dyne cm-t or (N/m)

'V1 first normal stress coefficient Nl/t" Pa's ll m-l.kg dyne-s ll-cm"""2 'l'2 second normal stress Pa-s ll m v-kg dyne. Sll. cm"""2 coefficient 'If) limiting viscosity at lim (ult) Pascal second Pa-s m-1 kg-s-1 Poise dyne-a-em"? zero shear rate.yo 1')co limiting viscosity at lim (u/i') Pascal second Pa s m-1 kg s-1 Poise dyne-a-cm"? infinite shear rate.:yal viscosity of solvent or Pascal second Pa s m-1 kg s-1 Poise dyne-8' cm? 178 0 continuous medium "'tl 0 00 'Ilr relative viscosity 11111. dimenaionless dirnensionless tr.l '"0 118p specific viscosity 71r - 1 dimensionless dimensionless Z 0 [11] intrinsic viscosity lim (71r-l) m 3 kg-1 g-1'cm 3 or co tjj c specified Z units of con- o centration :> a t:i... cv cv

Nomenclature for Small Amplitude Oscillatory Motion Units SI System cgs System Symbol Name Name Symbol Dimensions Name Units w T '1* 'I' 'I" B* B' B" B(t) D* angular frequency time relaxation time or retardation time complex dynamic shear viscosity dynamic viscosity out-of-phase component of '1* bulk dynamic complex compliance bulk storage compliance bulk loss compliance bulk creep compliance tensile dynamic complex compliance D' tensile storage compliance D" tensile loss compliance D(t) tensile creep compliance hertz or radians per second second second Pascal second Hz S-I rad/s s second s second Pa-s mr--kg-s" poise or N -s/m! Pa-I m kg-ls' or (m'/n) Pa-I m kg-i s' or (m'/n) S-I s s dyne-s -cm? ems dyne'? ems dyne"!... "" "'"... rn trj o""l ""l

E* tensile dynamic complex modulus Pascal Pa m-l.kg s-2 dyne cm"? or (N/m Z ) E' tensile storage modulus Ell tensile loss modulus E(t) tensile relaxation modulus G* complex dynamic shear modulus Pascal Pa m-l.kg s-ll dyne cm-ll or (N/m S ) G' shear storage modulus G II shear loss modulus G(t) shear relaxation modulus J* complex dynamic shear compliance Pa-1 m kg- 1 s2 cm 2 dyne"? UJ. or (m 2 t?::l / N ) tl J' shear storage compliance Z J" shear loss compliance 0 J(t) shear creep compliance K* bulk dynamic complex modulus Pascal Pa m- 1 kg s-2 dyne cm-2 tj:j Z 0 t"4 K' bulk storage modulus > K" bulk loss modulus d K(t) bulk relaxation modulus ;:c t;ij IJ.* complex dynamic Poisson's ratio dimensionless IJ.' in-phase component of IJ.* IJ." out-of-phase component of p.* ;:c 0 ""d 0 c.n

Nomenclature for Small Deformation Linear Elasticity Q)... Units SI System egg System Symbol Name Name Symbol Dimensions Name Units Simple Shear G shear modulus; modulus of rigidity Pascal Pa m-l kg 8 dyne cm-i J shear compliance Pa- 1 m-kg'? -S2 Bulk (Isotropic) Compression cm! dyne"? or (m 2 j N ) H tr.l K bulk modulus Pascal Pa m-l.kg s-z dyne ern"? tr: Cl t"'i >- t:t:j l-rj B bulk compliance - Pa-1 m_kg-1. g2 - cm! dyne< or (m 2jN) Tensile Extension E Young's modulus (tensile modulus) Pascal Pa m-l.kg-s---2 dyne cm---2 D tensile compliance Pa-1 m kg-1 s ll cm 2 dyne"! or (m 2/N) J. Poisson's ratio dimensionless

PROPOSED NOMENCLATURE 317 available (Rheology, ITol. 4, Academic Press, New York, 1967). Also, the systemization of non-linear nomenclature was considered to be premature. A future committee should be organized to consider this vital area of rheology. The chairman wished to thank the committee members: R. B. Bird R. A. Dickie }'. R. Eirich H. Markovitz R. R. Myers for their diligent efforts in compiling the nomenclature list. Also, the committee wishes to express its gratitude to the Society members who made many thoughtful inputs to this endeavor.