321872 \({\mathrm{\left[\mathrm{ML}_{6}\right]^{\mathrm{n+}}}}\) is an octahedral complex. Its crystal field splitting energy \({\mathrm{\left(\Delta_{0}\right)}}\) is 1.8 eV . If same metal ion \({\mathrm{\left(\mathrm{M}^{\mathrm{n}+}\right)}}\) forms a tetrahedral complex with same ligands ( \({\mathrm{L}}\) ), then the crystal field splitting energy \({\mathrm{\left(\Delta_{t}\right)}}\) of \({\mathrm{\left[\mathrm{ML}_{4}\right]^{\mathrm{n}+}}}\) in eV is ____ .
321872 \({\mathrm{\left[\mathrm{ML}_{6}\right]^{\mathrm{n+}}}}\) is an octahedral complex. Its crystal field splitting energy \({\mathrm{\left(\Delta_{0}\right)}}\) is 1.8 eV . If same metal ion \({\mathrm{\left(\mathrm{M}^{\mathrm{n}+}\right)}}\) forms a tetrahedral complex with same ligands ( \({\mathrm{L}}\) ), then the crystal field splitting energy \({\mathrm{\left(\Delta_{t}\right)}}\) of \({\mathrm{\left[\mathrm{ML}_{4}\right]^{\mathrm{n}+}}}\) in eV is ____ .
321872 \({\mathrm{\left[\mathrm{ML}_{6}\right]^{\mathrm{n+}}}}\) is an octahedral complex. Its crystal field splitting energy \({\mathrm{\left(\Delta_{0}\right)}}\) is 1.8 eV . If same metal ion \({\mathrm{\left(\mathrm{M}^{\mathrm{n}+}\right)}}\) forms a tetrahedral complex with same ligands ( \({\mathrm{L}}\) ), then the crystal field splitting energy \({\mathrm{\left(\Delta_{t}\right)}}\) of \({\mathrm{\left[\mathrm{ML}_{4}\right]^{\mathrm{n}+}}}\) in eV is ____ .
321872 \({\mathrm{\left[\mathrm{ML}_{6}\right]^{\mathrm{n+}}}}\) is an octahedral complex. Its crystal field splitting energy \({\mathrm{\left(\Delta_{0}\right)}}\) is 1.8 eV . If same metal ion \({\mathrm{\left(\mathrm{M}^{\mathrm{n}+}\right)}}\) forms a tetrahedral complex with same ligands ( \({\mathrm{L}}\) ), then the crystal field splitting energy \({\mathrm{\left(\Delta_{t}\right)}}\) of \({\mathrm{\left[\mathrm{ML}_{4}\right]^{\mathrm{n}+}}}\) in eV is ____ .