Skip to main content
added 8 characters in body
Source Link
Sándor Kovács
  • 42.9k
  • 2
  • 109
  • 155

If the fibers are compact Kähler manifolds, then the Hodge numbers of the fibers are constant and hence by Grauert's theorem, the direct images of the relative Hodge bundles are locally free (i.e., vector bundles). In other words, in this case $R^q\pi_*\Omega_W^p$ is a vector bundle for every $p,q\in \mathbb N$.

If the fibers are Kähler manifolds, then the Hodge numbers of the fibers are constant and hence by Grauert's theorem, the direct images of the relative Hodge bundles are locally free (i.e., vector bundles). In other words, in this case $R^q\pi_*\Omega_W^p$ is a vector bundle for every $p,q\in \mathbb N$.

If the fibers are compact Kähler manifolds, then the Hodge numbers of the fibers are constant and hence by Grauert's theorem, the direct images of the relative Hodge bundles are locally free (i.e., vector bundles). In other words, in this case $R^q\pi_*\Omega_W^p$ is a vector bundle for every $p,q\in \mathbb N$.

Source Link
Sándor Kovács
  • 42.9k
  • 2
  • 109
  • 155

If the fibers are Kähler manifolds, then the Hodge numbers of the fibers are constant and hence by Grauert's theorem, the direct images of the relative Hodge bundles are locally free (i.e., vector bundles). In other words, in this case $R^q\pi_*\Omega_W^p$ is a vector bundle for every $p,q\in \mathbb N$.