Binary Operations

Czes Law Byli´nski
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Abstract

In this paper we define binary and unary operations on domains. number of schemes useful in justifying the existence of the operations are proved. The articles [3], [1], and [2] provide the notation and terminology for this paper. The arguments of the notions defined below are the following: f which is an object of the type Function; a, b which are objects of the type Any. The functor f .(a, b), with values of the type Any, is defined by it = f .a, b. One can prove the following proposition (1) for f being Function for a,b being Any holds f .(a, b) = f .a, b. In the sequel A, B, C will denote objects of the type DOMAIN. The arguments of the notions defined below are the following: A, B, C which are objects of the type reserved above; f which is an object of the type Function of [:A, B:], C; a which is an object of the type Element of A; b which is an object of the type Element of B. Let us note that it makes sense to consider the following functor on a restricted area. Then f .(a, b) is Element of C.
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二元运算
本文定义了定义域上的二元和一元运算。证明了若干有助于证明运算存在性的方案。文章[3]、[1]和[2]提供了本文的符号和术语。下面定义的概念的实参如下:f是函数类型的对象;a, b,它们是Any类型的对象。具有Any类型值的函子f .(a, b)由它= f .a, b来定义。可以证明下列命题(1):f为a,b为Any的函数,使f .(a, b) = f .a, b成立。在续集a,b, C表示类型为DOMAIN的对象。下面定义的概念的实参如下:A, B, C,它们是上述保留类型的对象;f是类型为Function of [:A, B:], C;a是a的要素类型的对象;b是b的Element类型的对象,让我们注意到在受限区域上考虑以下函子是有意义的。那么f (a, b)是C的元素。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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