In this article we further develop field theory in Mizar [1], [2], [3] towards splitting fields. We deal with algebraic extensions [4], [5]: a field extension E of a field F is algebraic, if every element of E is algebraic over F. We prove amongst others that finite extensions are algebraic and that field extensions generated by a finite set of algebraic elements are finite. From this immediately follows that field extensions generated by roots of a polynomial over F are both finite and algebraic. We also define the field of algebraic elements of E over F and show that this field is an intermediate field of E|F
Using a constructive field-ideal correspondence it is shown how to compute the transcendence degree ...
The algebraic closure of R is C, which is a finite extension. Are there other fields which are not a...
AbstractLet T be an intermediate over the field K. We say that K has the Extension Property if every...
In this article we further develop field theory in Mizar [1], [2], [3] towards splitting fields. We ...
In [6], [7] we presented a formalization of Kronecker’s construction of a field extension of a field...
This is the fourth part of a four-article series containing a Mizar [3], [2], [1] formalization of K...
Abstract. The norm and trace can be defined for any finite field extension. In this paper, we shall ...
AbstractA general criterion which may be viewed as a natural generalization of Eisenstein's criterio...
AbstractUsing a constructive field-ideal correspondence it is shown how to compute the transcendence...
An algebraic number field is a finite extension of Q; an algebraic number is an element of an algebr...
An algebraic number field is a finite extension of Q; an algebraic number is an element of an algebr...
Several mathematical results and new computational methods are presented for primitive elements and ...
In [6], [7] we presented a formalization of Kronecker’s construction of a field extension of a field...
Given a field F and elements \alpha and \beta not in F, then F(\alpha, \beta) is the smallest field ...
In this report, we revised some important definitions with examples and results of ring theory such ...
Using a constructive field-ideal correspondence it is shown how to compute the transcendence degree ...
The algebraic closure of R is C, which is a finite extension. Are there other fields which are not a...
AbstractLet T be an intermediate over the field K. We say that K has the Extension Property if every...
In this article we further develop field theory in Mizar [1], [2], [3] towards splitting fields. We ...
In [6], [7] we presented a formalization of Kronecker’s construction of a field extension of a field...
This is the fourth part of a four-article series containing a Mizar [3], [2], [1] formalization of K...
Abstract. The norm and trace can be defined for any finite field extension. In this paper, we shall ...
AbstractA general criterion which may be viewed as a natural generalization of Eisenstein's criterio...
AbstractUsing a constructive field-ideal correspondence it is shown how to compute the transcendence...
An algebraic number field is a finite extension of Q; an algebraic number is an element of an algebr...
An algebraic number field is a finite extension of Q; an algebraic number is an element of an algebr...
Several mathematical results and new computational methods are presented for primitive elements and ...
In [6], [7] we presented a formalization of Kronecker’s construction of a field extension of a field...
Given a field F and elements \alpha and \beta not in F, then F(\alpha, \beta) is the smallest field ...
In this report, we revised some important definitions with examples and results of ring theory such ...
Using a constructive field-ideal correspondence it is shown how to compute the transcendence degree ...
The algebraic closure of R is C, which is a finite extension. Are there other fields which are not a...
AbstractLet T be an intermediate over the field K. We say that K has the Extension Property if every...