GATE

Second-order rate constant for the reaction between [Co(NH3)5X]n+ (n = 3 for X = NH3 and H2O

Second-order rate constant for the reaction between [Co(NH3)5X]n+ (n = 3 for X = NH3 and H2O

Q. Second-order rate constant for the reaction between [Co(NH3)5X]n+ (n = 3 for X = NH3 and H2O; n = 2 for X = Cl–) and [Cr(H2O)6]2+ at room temperature varies with the X as (A) NH3 > H2O > Cl–                  (B) Cl– > H2O > NH3 (C) NH3 > Cl– > H2O                    (D) H2O >

Second-order rate constant for the reaction between [Co(NH3)5X]n+ (n = 3 for X = NH3 and H2O Read More »

Generally, the coordination number and the nature of the electronic absorption band (f → f transition)

Generally, the coordination number and the nature of the electronic absorption band (f → f transition)

Q. Generally, the coordination number and the nature of the electronic absorption band (f → f transition) of lanthanide(III) ion in their complexes are, respectively, (A) greater than 6 and sharp                            (B) 6 and broad (C) less than 6 and sharp                    (D) greater than 6 and broad Ans: greater than 6 and sharp

Generally, the coordination number and the nature of the electronic absorption band (f → f transition) Read More »

Spectroscopic ground state term symbols of cobalt ions in [Co(H2O)6]2+ and [CoCl4]2–

Spectroscopic ground state term symbols of cobalt ions in [Co(H2O)6]2+ and [CoCl4]2–

Q. Spectroscopic ground state term symbols of cobalt ions in [Co(H2O)6]2+ and [CoCl4]2–, respectively, are (A) 2T1g and 4A2                                                 (B) 4T1g and 4A2 (C) 4T2g and 4T1                                 (D) 2T1 and 4A1 Ans: 4T1g and 4A2

Spectroscopic ground state term symbols of cobalt ions in [Co(H2O)6]2+ and [CoCl4]2– Read More »

The coordination geometries around the copper ion of plastocyanin (a blue-copper protein) in oxidized and reduced form

The coordination geometries around the copper ion of plastocyanin (a blue-copper protein) in oxidized and reduced form

Q. The coordination geometries around the copper ion of plastocyanin (a blue-copper protein) in oxidized and reduced form, respectively, are (A) tetrahedral and square-planar (B) square-planar and tetrahedral (C) distorted tetrahedral for both (D) ideal tetrahedral for both Ans: distorted tetrahedral for both

The coordination geometries around the copper ion of plastocyanin (a blue-copper protein) in oxidized and reduced form Read More »

Scroll to Top