The electronic spectrum of $$TiH2O63+$$ shows a single broad peak with a maximum at $$20$$,$$300$$ cm−$$1$$ . The crystal field stabilization energy (CFSE) of the complex ion, in kJ mol−$$1$$, is : $$1$$ kJ mol−$$1=83.7$$ cm−$$1$$

Question

The electronic spectrum of $$TiH2O63+$$ shows a single broad peak with a maximum at $$20$$,$$300$$   cm−$$1$$ . The crystal field stabilization energy (CFSE) of the complex ion, in kJ  mol−$$1$$, is : $$1$$   kJ   mol−$$1=83.7$$  cm−$$1$$

Infinity Learn · Accepted Answer

complex  $$TiH2O6+3$$ gives a peak at $$20$$,$$300$$ Gm−$$1The$$ crystal field strabilization energy is Δ$$0=hcr$$¯∴Δ$$0=6.625$$×$$10-34$$×$$3$$×$$108$$×$$20$$,$$300=4$$×$$10-19$$ $$J/$$ molecule $$=6.023$$×$$1023$$×$$4$$×$$10-19$$ $$J/mole=243005$$ $$J/mole=243$$ $$kJ/mole$$∣$$Ti-22$$[Ar]$$4s23d2Ti+3-$$[Ar]$$4s$$°$$3d1$$ $$CFSE=0.4$$Δ$$0=0.4$$×$$243$$ $$kJ/mole=97$$ $$kJ/mole$$

The electronic spectrum of ${[Ti {(H_{2} O)}_{6}]}^{3 +}$ shows a single broad peak with a maximum at $20, 300 {cm}^{- 1}$ . The crystal field stabilization energy (CFSE) of the complex ion, in kJ ${mol}^{- 1}$ , is : $(1 kJ {mol}^{- 1} = 83 .7 {cm}^{- 1})$

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The electronic spectrum of TiH2O63+ shows a single broad peak with a maximum at 20,300 cm−1 . The crystal field stabilization energy (CFSE) of the complex ion, in kJ mol−1, is : 1 kJ mol−1=83.7 cm−1

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The electronic spectrum of ${[Ti {(H_{2} O)}_{6}]}^{3 +}$ shows a single broad peak with a maximum at $20, 300 {cm}^{- 1}$ . The crystal field stabilization energy (CFSE) of the complex ion, in kJ ${mol}^{- 1}$ , is : $(1 kJ {mol}^{- 1} = 83 .7 {cm}^{- 1})$