Two new 1,4-dioxane-Td-type clathrates of the form Cd(CPA)2M(CN)4.2C4H8O2 (CPA= cyclopentylamine; M = Cd or Hg) have been prepared in powder form and their FT-IR (400-4000 cm-1), FT-Raman (70-4000 cm-1), far-IR (50-400 cm-1) spectra, X-ray diffraction (XRD) and elemental analyses are reported. The spectral data suggest that the host frameworks of these compounds are similar to those of the Hofmann-Td-type benzene clathrates.
1. H. Yuge, T. Iwamoto, Different coordination behaviour of
1,2-diaminoethane (en) and tetracyanonickelate(II) upon
accommodation of polar guest molecules in their metalcomplex
hosts crystal-structures of [M(en)2Ni(CN)4].2phNH2
(M= Ni, Cu, Zn or Cd) and [Cd(en)2(en)(Ni(CN)4)2].4phOH, J.
Incl. Phenom., 14 (1992) 217-235.
2. R. Kuroda, A new type clathrate compound: the crystal
structure of Cd(NH3)2Hg(CN)4.2C6H6, Inorg. Nucl. Chem. Lett.,
9 (1973) 13-17.
3. T. Iwamoto, Past, present and future of the clathrate
inclusion compounds built of cyanometallate hosts, J. Incl.
Phenom., 24 (1996) 61-132.
4. Z. Kantarcı, C. Bayrak, Infrared spectroscopic and
gravimetric studies on the cyclopentylaminemetal(II)
tetracyanonickellate (II) host-aromatic guest systems, J. Incl.
Phenom., 45 (2003) 59-67.
5. E. Kasap, Z. Kantarcı, Vibrational spectroscopic studies
on the Hofmann-Td-type clathrates: M(ethylenediamine)
M(CN)4.2C6H6 (M= Mn or Cd, M= Cd or Hg), J. Incl. Phenom.,
20 (1995) 33-44.
6. V.F. Kalasinsky, T.S. Little, Vibrational spectra and structure
of cyclopentylamine, J. Raman Spectrosc. 9 (1980) 224-229.
7. S. Akyüz, J.E.D. Davies, Solid-state vibrational spectroscopy:
Part 11. An infrared and raman vibrational spectroscopic
study of metal(II) halide aniline complexes, J. Mol. Struct.,
95 (1982) 157-168.
8. D.A. Thornton, Metal complexes of aniline: Infrared and
Raman spectra, J. Coord. Chem., 24 (1991) 261-289.
9. Z. Kantarcı, M. M. Bülbül, Infrared spectroscopic and
gravimetric studies on the cyclohexylaminemetal(II)
tetracyanonickellate(II)host-aromatic guest systems, J. Incl.
Phenom. 40 (2001) 105-116.
10. Z. Kantarcı, M. Karabacak, M.M. Bülbül, Infrared
spectroscopic study on the Td-type clathrates:
Cd(cyclohexylamine)2M(CN).2C6H6 (M= Cd or Hg), J. Inclusion
Phenom., 40 (2001) 317-321.
11. H. Yuge, T. Iwamoto, Cyano-linked structures in polymeric
cadmium cyanide–pyridine (py) and –isoquinoline (iquin)
complexes: crystal structures of [Cd(py)2][Cd(CN)4], [{Cd(CN)
(py)2}3][Cd2(CN)7] and [Cd(iquin)2][Cd(CN)3(iquin)2]2, J. Chem.
Soc. Dalton Trans., (1993) 2841-2847.
12. L.H. Jones, Vibrational spectra and structures of metal
cyanide complexes in the solid state V. K2Zn(CN)4, K2Cd(CN)4
and K2Hg(CN)4, Spectrochim. Acta., 17 (1961) 188.
13. B. Ziegler, D. Babel, Die kristallstructur des Cyanospinelles
K2Cd(CN)4, Z. Naturforsch. 46B (1991) 47-49.
14. P.N. Gerlach, B.M. Powell, Crystal structure and phase
transition of the cyanospinel K2Hg(CN)4, J. Chem. Phys., 85
(1986) 6004-6010.
15. Z. Kantarcı, C. Bayrak, Vibrational spectroscopic studies on
the tn-Td-Type: Mn(tn) Zn(CN)4.2C6H6 a nd t he c helated t n-
Td-Type Zn(tn)Zn(CN)4.2C6H6 clathrates, J. Incl. Phenom., 30
(1998) 59-68.
16. Z. Kantarcı, C. Bayrak, E. Kasap, An infrared
and Raman spectroscopic study of pn-Td-type
dipropylenendiaminemetal(II)teracyanometallate(II)
benzene clathrates: M(dl-pn)M′(CN)4.2C6H6 (M= Mn, M′= Zn,
Cd or Hg; M= Cd, M′= Cd or Hg; 1≤n≤1.5), J. Incl. Phenom.,
33 (1999) 285-294.
17. S. Bayarı, Z. Kantarcı, S. Akyüz, An infrared and Raman
spectroscopic study of the Td-type 4,4′-bipyridylcadmium(II)
tetracyanometallate(II)benzene(1/2) clathrates: Cd(C10H8N2)
Cd(CN)4.2C6H6 and Cd(C10H8N2)Hg(CN)4.2C6H6, J. Incl.
Phenom., 17 (1994) 291-302.
18. Z. Kantarcı, N. Karacan, B. Davarcıoğlu, Infrared
spectroscopic studies on the Hofmann-Td-type complexes:
Mn(pyridine)2Cd(CN)4 and Mn(pyridine)2Hg(CN)4, J. Mol.
Struct., 323 (1994) 53-58.
19. Z. Kantarcı, C. Bayrak, S. Bayarı, An Infrared and Raman
spectroscopic study on the Hofmann-Td-type complexes:
ML2M’(CN)4, M= Mn or Zn, Cd or Hg, L= pyridine, α-,ß- or
γ-picoline, J. Mol. Struct., 407 (1997) 155-163.
20. M. Davis, O. Hassel, Electron diffraction investigation of
molecules c ontaining a c yclohexane t ype s ix-membered
ring, Acta Chem. Scand. 17 (1963) 1181.
21. R.J. W. Le Fevre, A. Sundaram, R.K. Pierens, Molecular
polarizability: the anisotropy of the carbon–oxygen link, J.
Chem. Soc., (1963) 479-488.
22. O.H. Ellestad, P. Klaboe, G. Hagen, The vibrational spectra
of 1,4-dioxane-do, Spectrochim. Acta, 27 (1971) 1025-1048.
23. E. Kendi, D. Ülkü, The crystal structure of the cadmiumnickel
dioxane clathrate, Z. Kristallogr., 144 (1976) 91-96.
24. T. Zengin, Z. Kantarcı, E. Kasap, An infrared and Raman
spectroscopic study on the Hofmann-Td-type 1,4-dioxane cl
athrates:M(NH3)2M′(CN)4·2C4H8O2 (M=Mn or Cd, M′= Hg; M=
Cd, M′= Cd), J. Mol. Strcut., 482-483 (1999) 81-85.
25. A.B. Dempster, H. Uslu, Infrared spectra and stability of
Hofmann-type dioxane clathrates, Spectrochim. Acta, 34
(1978) 71-75.
26. C. Parlak, Ö. Alver, M. Şenyel, Vibrational spectroscopic
study of the Hofmann-Td-type clathrates: Ni(4-
phenylpyridine)2M(CN)4.2G (M= Cd or Hg, G= 1,4-dioxane),
Spectrochim. Acta, 78 (2011)1487-1491.
27. E. Ruiz, J.J. Novoa, S. Alvarez, Ab initio study of the
intermolecular interactions in the Hofmann clathrates, J.
Phys.Chem., 99 (1995) 2296-2306.
Year 2019,
Volume: 47 Issue: 1, 99 - 106, 01.02.2019
1. H. Yuge, T. Iwamoto, Different coordination behaviour of
1,2-diaminoethane (en) and tetracyanonickelate(II) upon
accommodation of polar guest molecules in their metalcomplex
hosts crystal-structures of [M(en)2Ni(CN)4].2phNH2
(M= Ni, Cu, Zn or Cd) and [Cd(en)2(en)(Ni(CN)4)2].4phOH, J.
Incl. Phenom., 14 (1992) 217-235.
2. R. Kuroda, A new type clathrate compound: the crystal
structure of Cd(NH3)2Hg(CN)4.2C6H6, Inorg. Nucl. Chem. Lett.,
9 (1973) 13-17.
3. T. Iwamoto, Past, present and future of the clathrate
inclusion compounds built of cyanometallate hosts, J. Incl.
Phenom., 24 (1996) 61-132.
4. Z. Kantarcı, C. Bayrak, Infrared spectroscopic and
gravimetric studies on the cyclopentylaminemetal(II)
tetracyanonickellate (II) host-aromatic guest systems, J. Incl.
Phenom., 45 (2003) 59-67.
5. E. Kasap, Z. Kantarcı, Vibrational spectroscopic studies
on the Hofmann-Td-type clathrates: M(ethylenediamine)
M(CN)4.2C6H6 (M= Mn or Cd, M= Cd or Hg), J. Incl. Phenom.,
20 (1995) 33-44.
6. V.F. Kalasinsky, T.S. Little, Vibrational spectra and structure
of cyclopentylamine, J. Raman Spectrosc. 9 (1980) 224-229.
7. S. Akyüz, J.E.D. Davies, Solid-state vibrational spectroscopy:
Part 11. An infrared and raman vibrational spectroscopic
study of metal(II) halide aniline complexes, J. Mol. Struct.,
95 (1982) 157-168.
8. D.A. Thornton, Metal complexes of aniline: Infrared and
Raman spectra, J. Coord. Chem., 24 (1991) 261-289.
9. Z. Kantarcı, M. M. Bülbül, Infrared spectroscopic and
gravimetric studies on the cyclohexylaminemetal(II)
tetracyanonickellate(II)host-aromatic guest systems, J. Incl.
Phenom. 40 (2001) 105-116.
10. Z. Kantarcı, M. Karabacak, M.M. Bülbül, Infrared
spectroscopic study on the Td-type clathrates:
Cd(cyclohexylamine)2M(CN).2C6H6 (M= Cd or Hg), J. Inclusion
Phenom., 40 (2001) 317-321.
11. H. Yuge, T. Iwamoto, Cyano-linked structures in polymeric
cadmium cyanide–pyridine (py) and –isoquinoline (iquin)
complexes: crystal structures of [Cd(py)2][Cd(CN)4], [{Cd(CN)
(py)2}3][Cd2(CN)7] and [Cd(iquin)2][Cd(CN)3(iquin)2]2, J. Chem.
Soc. Dalton Trans., (1993) 2841-2847.
12. L.H. Jones, Vibrational spectra and structures of metal
cyanide complexes in the solid state V. K2Zn(CN)4, K2Cd(CN)4
and K2Hg(CN)4, Spectrochim. Acta., 17 (1961) 188.
13. B. Ziegler, D. Babel, Die kristallstructur des Cyanospinelles
K2Cd(CN)4, Z. Naturforsch. 46B (1991) 47-49.
14. P.N. Gerlach, B.M. Powell, Crystal structure and phase
transition of the cyanospinel K2Hg(CN)4, J. Chem. Phys., 85
(1986) 6004-6010.
15. Z. Kantarcı, C. Bayrak, Vibrational spectroscopic studies on
the tn-Td-Type: Mn(tn) Zn(CN)4.2C6H6 a nd t he c helated t n-
Td-Type Zn(tn)Zn(CN)4.2C6H6 clathrates, J. Incl. Phenom., 30
(1998) 59-68.
16. Z. Kantarcı, C. Bayrak, E. Kasap, An infrared
and Raman spectroscopic study of pn-Td-type
dipropylenendiaminemetal(II)teracyanometallate(II)
benzene clathrates: M(dl-pn)M′(CN)4.2C6H6 (M= Mn, M′= Zn,
Cd or Hg; M= Cd, M′= Cd or Hg; 1≤n≤1.5), J. Incl. Phenom.,
33 (1999) 285-294.
17. S. Bayarı, Z. Kantarcı, S. Akyüz, An infrared and Raman
spectroscopic study of the Td-type 4,4′-bipyridylcadmium(II)
tetracyanometallate(II)benzene(1/2) clathrates: Cd(C10H8N2)
Cd(CN)4.2C6H6 and Cd(C10H8N2)Hg(CN)4.2C6H6, J. Incl.
Phenom., 17 (1994) 291-302.
18. Z. Kantarcı, N. Karacan, B. Davarcıoğlu, Infrared
spectroscopic studies on the Hofmann-Td-type complexes:
Mn(pyridine)2Cd(CN)4 and Mn(pyridine)2Hg(CN)4, J. Mol.
Struct., 323 (1994) 53-58.
19. Z. Kantarcı, C. Bayrak, S. Bayarı, An Infrared and Raman
spectroscopic study on the Hofmann-Td-type complexes:
ML2M’(CN)4, M= Mn or Zn, Cd or Hg, L= pyridine, α-,ß- or
γ-picoline, J. Mol. Struct., 407 (1997) 155-163.
20. M. Davis, O. Hassel, Electron diffraction investigation of
molecules c ontaining a c yclohexane t ype s ix-membered
ring, Acta Chem. Scand. 17 (1963) 1181.
21. R.J. W. Le Fevre, A. Sundaram, R.K. Pierens, Molecular
polarizability: the anisotropy of the carbon–oxygen link, J.
Chem. Soc., (1963) 479-488.
22. O.H. Ellestad, P. Klaboe, G. Hagen, The vibrational spectra
of 1,4-dioxane-do, Spectrochim. Acta, 27 (1971) 1025-1048.
23. E. Kendi, D. Ülkü, The crystal structure of the cadmiumnickel
dioxane clathrate, Z. Kristallogr., 144 (1976) 91-96.
24. T. Zengin, Z. Kantarcı, E. Kasap, An infrared and Raman
spectroscopic study on the Hofmann-Td-type 1,4-dioxane cl
athrates:M(NH3)2M′(CN)4·2C4H8O2 (M=Mn or Cd, M′= Hg; M=
Cd, M′= Cd), J. Mol. Strcut., 482-483 (1999) 81-85.
25. A.B. Dempster, H. Uslu, Infrared spectra and stability of
Hofmann-type dioxane clathrates, Spectrochim. Acta, 34
(1978) 71-75.
26. C. Parlak, Ö. Alver, M. Şenyel, Vibrational spectroscopic
study of the Hofmann-Td-type clathrates: Ni(4-
phenylpyridine)2M(CN)4.2G (M= Cd or Hg, G= 1,4-dioxane),
Spectrochim. Acta, 78 (2011)1487-1491.
27. E. Ruiz, J.J. Novoa, S. Alvarez, Ab initio study of the
intermolecular interactions in the Hofmann clathrates, J.
Phys.Chem., 99 (1995) 2296-2306.
Bayrak, C. (2019). Vibrational Spectroscopic Study on the Hofmann-Td-type 1,4-Dioxane Clathrates. Hacettepe Journal of Biology and Chemistry, 47(1), 99-106.
AMA
Bayrak C. Vibrational Spectroscopic Study on the Hofmann-Td-type 1,4-Dioxane Clathrates. HJBC. February 2019;47(1):99-106.
Chicago
Bayrak, Celal. “Vibrational Spectroscopic Study on the Hofmann-Td-Type 1,4-Dioxane Clathrates”. Hacettepe Journal of Biology and Chemistry 47, no. 1 (February 2019): 99-106.
EndNote
Bayrak C (February 1, 2019) Vibrational Spectroscopic Study on the Hofmann-Td-type 1,4-Dioxane Clathrates. Hacettepe Journal of Biology and Chemistry 47 1 99–106.
IEEE
C. Bayrak, “Vibrational Spectroscopic Study on the Hofmann-Td-type 1,4-Dioxane Clathrates”, HJBC, vol. 47, no. 1, pp. 99–106, 2019.
ISNAD
Bayrak, Celal. “Vibrational Spectroscopic Study on the Hofmann-Td-Type 1,4-Dioxane Clathrates”. Hacettepe Journal of Biology and Chemistry 47/1 (February 2019), 99-106.
JAMA
Bayrak C. Vibrational Spectroscopic Study on the Hofmann-Td-type 1,4-Dioxane Clathrates. HJBC. 2019;47:99–106.
MLA
Bayrak, Celal. “Vibrational Spectroscopic Study on the Hofmann-Td-Type 1,4-Dioxane Clathrates”. Hacettepe Journal of Biology and Chemistry, vol. 47, no. 1, 2019, pp. 99-106.
Vancouver
Bayrak C. Vibrational Spectroscopic Study on the Hofmann-Td-type 1,4-Dioxane Clathrates. HJBC. 2019;47(1):99-106.