By Simo J.C.

A formula and algorithmic therapy of static and dynamic plasticity at finite lines according to the multiplicative decomposition is gifted which inherits the entire gains of the classical types of infinitesimal plasticity. the foremost computational implication is that this: the closest-point-projection set of rules of any classical simple-surface or multi-surface version of infinitesimal plasticity contains over to the current finite deformation context with out amendment. particularly, the algorithmic elastoplastic tangent moduli of the infinitesimal conception stay unchanged. For the static challenge, the proposed classification of algorithms safeguard precisely plastic quantity adjustments if the yield criterion is strain insensitive. For the dynamic challenge, a category of time-stepping algorithms is gifted which inherits precisely the conservation legislation of overall linear and angular momentum. the particular functionality of the technique is illustrated in a couple of consultant huge scale static and dynamic simulations.

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Then element x appears exactly n times in b, where n is: n1+n2 if Op is union plus n1*n2 if Op is intersection star Note: SQL supports union plus but not true bag union. It does not support intersection star. Examples: Let b1 and b2 be the bags (w,w,x,x,y) and (x,y,y,y,z,z), respectively. Then the following expressions yield the indicated results: b1 UNION b2 = (w,w,x,x,y,y,y,z,z) b1 INTERSECT b2 = (x,y) b1 MINUS b2 = (w,w,x) b2 MINUS b1 = (y,y,z,z) b1 TIMES b2 = (

V. We assume throughout this dictionary that databases are always relational, barring explicit statements to the contrary. Note: The term database is also used in nonrelational contexts to mean a variety of other things: for example, a collection of data as physically stored. It’s also used, all too frequently, to mean a DBMS, but this particular usage is strongly deprecated. ) database constraint 1. ). Note: These two definitions aren’t meant to be equivalent in any sense—they refer to two distinct concepts.

Let operators OpM and OpD be monadic and dyadic, respectively, and assume for definiteness that OpD is expressed in infix style. Then OpM distributes over OpD if and only if, for all x and y, OpM(x OpD y) = (OpM(x)) OpD (OpM(y)). 2. Let operators OpC and OpD both be dyadic, and assume for definiteness that they’re expressed in infix style. Then OpC distributes over OpD if and only if, for all x, y, and z, x OpC (y OpD z) = (x OpC y) OpD (x OpC z). Examples: 1. (Monadic over dyadic) In ordinary arithmetic, nonnegative square root (“√”) distributes over multiplication (“*”), because √ ( x * y ) = √ ( x ) * √ ( y ) for all x and y.