Benchmarking acid and base dopants with respect to enabling the ice V to XIII and ice VI to XV hydrogen-ordering phase transitions (original) (raw)

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Research Article| June 28 2018

Alexander Rosu-Finsen;

Department of Chemistry, University College London

, 20 Gordon Street, London WC1H 0AJ,

United Kingdom

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Christoph G. Salzmann

Department of Chemistry, University College London

, 20 Gordon Street, London WC1H 0AJ,

United Kingdom

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J. Chem. Phys. 148, 244507 (2018)

Doping the hydrogen-disordered phases of ice V, VI, and XII with hydrochloric acid (HCl) has led to the discovery of their hydrogen-ordered counterpart ices XIII, XV, and XIV. Yet, the mechanistic details of the hydrogen-ordering phase transitions are still not fully understood. This includes, in particular, the role of the acid dopant and the defect dynamics that it creates within the ices. Here we investigate the effects of a wide range of acid and base dopants on the hydrogen ordering of ices V and VI with calorimetry and X-ray diffraction. Surprisingly, lithium-hydroxide doping achieves a performance comparable to hydrofluoric-acid doping in ice V, but it is ineffective in the case of ice VI. Ice V is therefore the first phase of ice that can be hydrogen-ordered with both acid and base doping. Hydrobromic-acid doping facilitates hydrogen ordering of ice VI, but it is ineffective in the case of ice V. HCl is reaffirmed to be the most effective for both phases which is attributed to a favorable combination of high solubility and strong acid properties. Sodium-hydroxide, potassium-hydroxide (as previously shown), and perchloric-acid doping are ineffective for both phases. These findings highlight the need for future computational studies but also raise the question why lithium hydroxide is the best-performing alkali hydroxide for hydrogen-ordering ice V whereas potassium-hydroxide doping is most effective for the “ordinary” ice I_h_.

REFERENCES

L.

Pauling

,

J. Am. Chem. Soc.

57

,

2680

(

1935

).

E. O.

Wollan

,

W. L.

Davidson

, and

C. G.

Shull

,

Phys. Rev.

75

,

1348

(

1949

).

W. F.

Giauque

and

J. W.

Stout

,

J. Am. Chem. Soc.

58

,

1144

(

1936

).

C. G.

Salzmann

,

P. G.

Radaelli

,

B.

Slater

, and

J. L.

Finney

,

Phys. Chem. Chem. Phys.

13

,

18468

(

2011

).

J. D.

Londono

,

W. F.

Kuhs

, and

J. L.

Finney

,

J. Chem. Phys.

98

,

4878

(

1993

).

C.

Lobban

,

J. L.

Finney

, and

W. F.

Kuhs

,

J. Chem. Phys.

112

,

7169

(

2000

).

L. G.

MacDowell

,

E.

Sanz

,

C.

Vega

, and

J. L. F.

Abascal

,

J. Chem. Phys.

121

,

10145

(

2004

).

E.

Whalley

,

J. B. R.

Heath

, and

D. W.

Davidson

,

J. Chem. Phys.

48

,

2362

(

1968

).

S. W.

Rabideau

,

E. D.

Finch

,

G. P.

Arnold

, and

A. L.

Bowman

,

J. Chem. Phys.

49

,

2514

(

1968

).

S. J.

La Placa

and

W. C.

Hamilton

,

J. Chem. Phys.

58

,

567

(

1973

).

E.

Whalley

,

D. W.

Davidson

, and

J. B. R.

Heath

,

J. Chem. Phys.

45

,

3976

(

1966

).

W. F.

Kuhs

,

J. L.

Finney

,

C.

Vettier

, and

D. V.

Bliss

,

J. Chem. Phys.

81

,

3612

(

1984

).

J. D.

Jorgensen

,

R. A.

Beyerlein

,

N.

Watanabe

, and

T. G.

Worlton

,

J. Chem. Phys.

81

,

3211

(

1984

).

J. D.

Jorgensen

and

T. G.

Worlton

,

J. Chem. Phys.

83

,

329

(

1985

).

S.

Klotz

,

K.

Komatsu

,

H.

Kagi

,

K.

Kunc

,

A.

Sano-Furukawa

,

S.

Machida

, and

T.

Hattori

,

Phys. Rev. B

95

,

174111

(

2017

).

V. F.

Petrenko

and

R. W.

Whitworth

,

Physics of Ice

(

Oxford University Press

,

Oxford

,

1999

).

C. G.

Salzmann

,

I.

Kohl

,

T.

Loerting

,

E.

Mayer

, and

A.

Hallbrucker

,

Phys. Chem. Chem. Phys.

5

,

3507

(

2003

).

C. G.

Salzmann

,

E.

Mayer

, and

A.

Hallbrucker

,

Phys. Chem. Chem. Phys.

6

,

1269

(

2004

).

C. G.

Salzmann

,

P. G.

Radaelli

,

J. L.

Finney

, and

E.

Mayer

,

Phys. Chem. Chem. Phys.

10

,

6313

(

2008

).

J. J.

Shephard

and

C. G.

Salzmann

,

Chem. Phys. Lett.

637

,

63

(

2015

).

J. J.

Shephard

and

C. G.

Salzmann

,

J. Phys. Chem. Lett.

7

,

2281

(

2016

).

Y.

Tajima

,

T.

Matsuo

, and

H.

Suga

,

Nature

299

,

810

(

1982

).

Y.

Tajima

,

T.

Matsuo

, and

H.

Suga

,

J. Phys. Chem. Solids

45

,

1135

(

1984

).

T.

Matsuo

and

H.

Suga

,

J. Phys. Colloq.

48

,

C1-477

(

1987

).

A. J.

Leadbetter

,

R. C.

Ward

,

J. W.

Clark

,

P. A.

Tucker

,

T.

Matsuo

, and

H.

Suga

,

J. Chem. Phys.

82

,

424

(

1985

).

R.

Howe

and

R. W.

Whitworth

,

J. Chem. Phys.

90

,

4450

(

1989

).

C. M. B.

Line

and

R. W.

Whitworth

,

J. Chem. Phys.

104

,

10008

(

1996

).

S. M.

Jackson

,

V. M.

Nield

,

R. W.

Whitworth

,

M.

Oguro

, and

C. C.

Wilson

,

J. Phys. Chem. B

101

,

6142

(

1997

).

H.

Fukazawa

,

A.

Hoshikawa

,

H.

Yamauchi

,

Y.

Yamaguchi

, and

Y.

Ishii

,

J. Cryst. Growth

282

,

251

(

2005

).

H.

Fukazawa

,

A.

Hoshikawa

,

Y.

Ishii

,

B. C.

Chakoumakos

, and

J. A.

Fernandez-Baca

,

Astrophys. J.

652

,

L57

(

2006

).

M.

Arakawa

,

H.

Kagi

,

J. A.

Fernandez-Baca

,

B. C.

Chakoumakos

, and

H.

Fukazawa

,

Geophys. Res. Lett.

38

,

L16101

, https://doi.org/10.1029/2011gl048217 (

2011

).

S. M.

Jackson

and

R. W.

Withworth

,

J. Chem. Phys.

103

,

7647

(

1995

).

P.

Parkkinen

,

S.

Riikonen

, and

L.

Halonen

,

J. Phys. Chem. C

118

,

26264

(

2014

).

A. V.

Zaretskii

,

V. F.

Petrenko

, and

V. A.

Chesnakov

,

Phys. Status Solidi A

109

,

373

(

1988

).

A. V.

Zaretskii

,

V. F.

Petrenko

,

A. V.

Trukhanov

, and

V. A.

Chesnakov

,

Solid State Ionics

36

,

225

(

1989

).

S.

Kawada

and

K.

Shimura

,

J. Phys. Soc. Jpn.

55

,

4485

(

1986

).

H.

Abe

and

S.

Kawada

,

J. Phys. Chem. Solids

52

,

617

(

1991

).

M.

Ueda

,

T.

Matsuo

, and

H.

Suga

,

J. Phys. Chem. Solids

12

,

1164

(

1982

).

H.

Suga

,

Pure Appl. Chem.

55

,

427

(

1983

).

C. G.

Salzmann

,

P. G.

Radaelli

,

A.

Hallbrucker

,

E.

Mayer

, and

J. L.

Finney

,

Science

311

,

1758

(

2006

).

C. G.

Salzmann

,

P. G.

Radaelli

,

A.

Hallbrucker

,

E.

Mayer

, and

J. L.

Finney

, in

Physics and Chemistry of Ice

, edited by

W. F.

Kuhs

(

The Royal Society of Chemistry

,

Cambridge

,

2007

), p.

521

.

C. G.

Salzmann

,

P. G.

Radaelli

,

E.

Mayer

, and

J. L.

Finney

,

Phys. Rev. Lett.

103

,

105701

(

2009

).

B.

Kamb

,

A.

Prakash

, and

C.

Knobler

,

Acta Crystallogr.

22

,

706

(

1967

).

K. W.

Köster

,

A.

Raidt

,

V.

Fuentes Landete

,

C.

Gainaru

,

T.

Loerting

, and

R.

Böhmer

,

Phys. Rev. B

94

,

184306

(

2016

).

C. G.

Salzmann

,

A.

Hallbrucker

,

J. L.

Finney

, and

E.

Mayer

,

Phys. Chem. Chem. Phys.

8

,

3088

(

2006

).

H.

Tran

,

A. V.

Cunha

,

J. J.

Shephard

,

A.

Shalit

,

P.

Hamm

,

T. L. C.

Jansen

, and

C. G.

Salzmann

,

J. Chem. Phys.

147

,

144501

(

2017

).

B.

Kamb

,

Science

150

,

205

(

1965

).

C. G.

Salzmann

,

B.

Slater

,

P. G.

Radaelli

,

J. L.

Finney

,

J. J.

Shephard

,

M.

Rosillo-Lopez

, and

J.

Hindley

,

J. Chem. Phys.

145

,

204501

(

2016

).

G. P.

Johari

and

E.

Whalley

,

J. Chem. Phys.

70

,

2094

(

1979

).

T. F.

Whale

,

S. J.

Clark

,

J. L.

Finney

, and

C. G.

Salzmann

,

J. Raman Spectrosc.

44

,

290

(

2013

).

C.

Lobban

,

J. L.

Finney

, and

W. F.

Kuhs

,

Nature

391

,

268

(

1998

).

C. G.

Salzmann

,

A.

Hallbrucker

,

J. L.

Finney

, and

E.

Mayer

,

Chem. Phys. Lett.

429

,

469

(

2006

).

K. W.

Köster

,

V.

Fuentes-Landete

,

A.

Raidt

,

M.

Seidl

,

C.

Gainaru

,

T.

Loerting

, and

R.

Böhmer

,

Nat. Commun.

6

,

7349

(

2015

).

G. P.

Johari

,

J. Chem. Phys.

118

,

242

(

2003

).

E.

Thibert

and

F.

Dominé

,

J. Phys. Chem. B

101

,

3554

(

1997

).

H.

Haltenorth

and

J.

Klinger

,

Solid State Commun.

21

,

533

(

1977

).

M.

Kopp

,

D. E.

Barnaal

, and

I. J.

Lowe

,

J. Chem. Phys.

43

,

2965

(

1965

).

S.

Klotz

,

L. E.

Bove

,

T.

Strässle

,

T. C.

Hansen

, and

A. M.

Saitta

,

Nat. Mater.

8

,

405

(

2009

).

L. E.

Bove

,

R.

Gaal

,

Z.

Raza

,

A.-A.

Ludl

,

S.

Klotz

,

A. M.

Saitta

,

A. F.

Goncharov

, and

P.

Gillet

,

Proc. Natl. Acad. Sci. U. S. A.

112

,

8216

(

2015

).

S.

Klotz

,

K.

Komatsu

,

F.

Pietrucci

,

H.

Kagi

,

A. A.

Ludl

,

S.

Machida

,

T.

Hattori

,

A.

Sano-Furukawa

, and

L. E.

Bove

,

Sci. Rep.

6

,

32040

(

2016

).

R. G.

Seidensticker

,

J. Chem. Phys.

56

,

2853

(

1972

).

P.

Ayotte

,

M.

Hébert

, and

P.

Marchand

,

J. Chem. Phys.

123

,

184501

(

2005

).

A. B.

Horn

,

M. A.

Chesters

,

M. R. S.

McCoustra

, and

J. R.

Sodeau

,

J. Chem. Soc., Faraday Trans.

88

,

1077

(

1992

).

L.

Delzeit

,

B.

Rowland

, and

J. P.

Devlin

,

J. Phys. Chem.

97

,

10312

(

1993

).

P.

Parent

,

J.

Lasne

,

G.

Marcotte

, and

C.

Laffon

,

Phys. Chem. Chem. Phys.

13

,

7142

(

2011

).

M.

Calatayud

,

D.

Courmier

, and

C.

Minot

,

Chem. Phys. Lett.

369

,

287

(

2003

).

A.

Uritski

,

I.

Presiado

,

Y.

Erez

,

R.

Gepshtein

, and

D.

Huppert

,

J. Phys. Chem. C

113

,

7342

(

2009

).

A.

Uritski

,

I.

Presiado

,

Y.

Erez

,

R.

Gepshtein

, and

D.

Huppert

,

J. Phys. Chem. C

113

,

10285

(

2009

).

M.

Del Ben

,

J.

VandeVondele

, and

B.

Slater

,

J. Phys. Chem. Lett.

5

,

4122

(

2014

).

T.

Sugimoto

,

N.

Aiga

,

Y.

Otsuki

,

K.

Watanabe

, and

Y.

Matsumoto

,

Nat. Phys.

12

,

1063

(

2016

).

J. J.

Shephard

,

B.

Slater

,

P.

Harvey

,

M.

Hart

,

C. L.

Bull

,

S. T.

Bramwell

, and

C. G.

Salzmann

,

Nat. Phys.

14

,

569

(

2018

).

K. W.

Köster

,

T.

Klocke

,

F.

Wieland

, and

R.

Böhmer

,

Phys. Rev. B

96

,

134301

(

2017

).

M.

Chen

,

L.

Zheng

,

B.

Santra

,

H.-Y.

Ko

,

R. A.

DiStasio

, Jr.,

M. L.

Klein

,

R.

Car

, and

X.

Wu

,

Nat. Chem.

10

,

413

(

2018

).

J.

Bjerrum

,

G.

Schwarzenbach

, and

L. G.

Sillén

,

Stability Constants of Metal-Ion Complexes. Part 2

(

The Chemical Society

,

London

,

1958

).

W. L.

Jolly

,

Modern Inorganic Chemistry

(

McGraw-Hill

,

1984

).

S.

Brownstein

and

A. E.

Stillman

,

J. Phys. Chem.

63

,

2061

(

1959

).

K.

Popov

,

L. H. J.

Lajunen

,

A.

Popov

,

H.

Rönkkömäki

,

M.

Hannu-Kuure

, and

A.

Vendilo

,

Inorg. Chem. Commun.

5

,

223

(

2002

).

R.

Shannon

,

Acta Crystallogr., Sect. A

32

,

751

(

1976

).

W. R.

Fawcett

,

Condens. Mater. Phys.

8

,

413

(

2005

).

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