On the de rham cohomology of algebraic varieties

On the de rham cohomology of algebraic varieties
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DOI:
10.1007/bf02684298
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发表时间:
1975-12
期刊:
Publications Mathématiques de l'Institut des Hautes Études Scientifiques
影响因子:
--
通讯作者:
R. Hartshorne
R. Hartshorne
中科院分区:
其他
文献类型:
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作者:
R. Hartshorne

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使用微分形式和积分来定义代数簇的数值不变量的想法可以追溯到Picard和Lefschetz。最近,Atiyah和Hodge [2]和Grothendieck [16]证明了代数微分形式可以用来计算C上光滑格式的奇异上同调。这个代数拓扑比较定理已由Lieberman和Herrera [29]和Deligne(未发表)推广到包括C上奇异格式的情况。Lieberman和Herrera还证明了一阶微分算子的对偶定理,其中我们的定理(II. 5.(1)是一个特殊的情况。另一个比较定理参见Lieberman [49]。在另一个上下文中,代数微分形式被证明在研究一族复簇的单值性时是有用的,使用高斯-马宁联络。[34]见KatzandOda [34],Katz [32]和[33],Deligne [10]和Brieskorn [8]。在纯解析的背景下,Reiffen [44]和Bloom和Herrera [5]研究了奇异解析空间上的全纯微分。最后,在研究特征p中的簇时,代数微分形式在Monsky的形式上同调[38]中很重要,并且是Grothendieck的结晶上同调的动机([18]和[4])。
The idea of using differential forms and their integrals to define numerical invariants of algebraic varieties goes back to Picard and Lefschetz. More recently, Atiyah and Hodge [2] and Grothendieck [16] showed that algebraic differential forms could be used to calculate the singular cohomology of a smooth scheme over C. This algebraictopological comparison theorem has been generalized by Lieberman and Herrera [29] and by Deligne (unpublished) to include the case of singular schemes over C. Lieberman and Herrera also proved a duality theorem for first order differential operators, of which our Theorem (II. 5. i) is a special case. See also Lieberman [49] for another comparison theorem.In another context, algebraic differential forms have proved to be useful in the study of the monodromy of a family of complex varieties, using the Gauss-Manin connection. SeeKatzandOda [34], Katz ([32] and [33]), Deligne [10], and Brieskorn [8]. In the purely analytic context, holomorphic differentials on a singular analytic space have been studied by Reiffen [44] and Bloom and Herrera [5]. Finally in the study of varieties in characteristic p, algebraic differential forms are important in Monsky's formal cohomology [38], and as motivation for Grothendieck's crystalline cohomology ([18] and [4]).