Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials

Guang Han; Srinivas R. Popuri; Heather F. Greer; Lourdes F. Llin; Jan-Willem G. Bos; Wuzong Zhou; Douglas J. Paul; Hervé  Ménard; Andrew R. Knox; Andrea Montecucco; Jonathan Siviter; Elena A. Man; Wen-guang Li; Manosh C. Paul; Min Gao; Tracy Sweet; Robert Freer; Feridoon Azough; Hasan Baig; Tapas K. Mallik; Duncan H. Gregory

doi:10.1002/aenm.201602328

Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials

Guang Han
, Srinivas R. Popuri
, Heather F. Greer
, Lourdes F. Llin
, Jan-Willem G. Bos
, Wuzong Zhou
, Douglas J. Paul
, Hervé Ménard
, Andrew R. Knox
, Andrea Montecucco
, Jonathan Siviter
, Elena A. Man
, Wen-guang Li
, Manosh C. Paul
, Min Gao
, Tracy Sweet
, Robert Freer
, Feridoon Azough
, Hasan Baig
, Tapas K. Mallik

Duncan H. Gregory

Research output: Contribution to journal › Article › peer-review

Abstract

An aqueous solution method is developed for the facile synthesis of Cl-containing SnSe nanoparticles in 10 g quantities per batch. The particle size and Cl concentration of the nanoparticles can be efficiently tuned as a function of reaction duration. Hot pressing produces n-type Cl-doped SnSe nanostructured compacts with thermoelectric power factors optimized via control of Cl dopant concentration. This approach, combining an energy-efficient solution synthesis with hot pressing, provides a simple, rapid, and low-cost route to high performance n-type SnSe thermoelectric materials.

Original language	English
Article number	1602328
Number of pages	7
Journal	Advanced Energy Materials
Volume	7
Issue number	13
Early online date	20 Feb 2017
DOIs	https://doi.org/10.1002/aenm.201602328
Publication status	Published - 5 Jul 2017

Keywords

Tin selenide
Synthesis
n-type
Thermoelectrics
Nanomaterials

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Zhou_AdvEngMater_final
© 2017 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim. This work has been made available online in accordance with the publisher’s policies. This is the author created, accepted version manuscript following peer review and may differ slightly from the final published version. The final published version of this work is available at https://doi.org/10.1002/aenm.201602328
Accepted author manuscript, 4.25 MB

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Han, G., Popuri, S. R., Greer, H. F., Llin, L. F., Bos, J.-W. G., Zhou, W., Paul, D. J., Ménard, H., Knox, A. R., Montecucco, A., Siviter, J., Man, E. A., Li, W., Paul, M. C., Gao, M., Sweet, T., Freer, R., Azough, F., Baig, H., ... Gregory, D. H. (2017). Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials. Advanced Energy Materials, 7(13), Article 1602328. https://doi.org/10.1002/aenm.201602328

@article{386634fc04ea4a34a108dd8f1464af86,

title = "Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials",

abstract = "An aqueous solution method is developed for the facile synthesis of Cl-containing SnSe nanoparticles in 10 g quantities per batch. The particle size and Cl concentration of the nanoparticles can be efficiently tuned as a function of reaction duration. Hot pressing produces n-type Cl-doped SnSe nanostructured compacts with thermoelectric power factors optimized via control of Cl dopant concentration. This approach, combining an energy-efficient solution synthesis with hot pressing, provides a simple, rapid, and low-cost route to high performance n-type SnSe thermoelectric materials.",

keywords = "Tin selenide, Synthesis, n-type, Thermoelectrics, Nanomaterials",

author = "Guang Han and Popuri, \{Srinivas R.\} and Greer, \{Heather F.\} and Llin, \{Lourdes F.\} and Bos, \{Jan-Willem G.\} and Wuzong Zhou and Paul, \{Douglas J.\} and Herv{\'e} M{\'e}nard and Knox, \{Andrew R.\} and Andrea Montecucco and Jonathan Siviter and Man, \{Elena A.\} and Wen-guang Li and Paul, \{Manosh C.\} and Min Gao and Tracy Sweet and Robert Freer and Feridoon Azough and Hasan Baig and Mallik, \{Tapas K.\} and Gregory, \{Duncan H.\}",

note = "This work was financially supported by the EPSRC (EP/K022156/1). SRP and JWGB acknowledge the EPSRC for support (EP/N01717X/1). HFG and WZ acknowledge the EPSRC for the Equipment Grant to purchase Titan Themis 200 microscope (EP/L017008/1).",

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month = jul,

day = "5",

doi = "10.1002/aenm.201602328",

language = "English",

volume = "7",

journal = "Advanced Energy Materials",

issn = "1614-6832",

publisher = "John Wiley \& Sons, Ltd",

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Han, G, Popuri, SR, Greer, HF, Llin, LF, Bos, J-WG , Zhou, W, Paul, DJ, Ménard, H, Knox, AR, Montecucco, A, Siviter, J, Man, EA, Li, W, Paul, MC, Gao, M, Sweet, T, Freer, R, Azough, F, Baig, H, Mallik, TK & Gregory, DH 2017, 'Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials', Advanced Energy Materials, vol. 7, no. 13, 1602328. https://doi.org/10.1002/aenm.201602328

TY - JOUR

T1 - Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials

AU - Han, Guang

AU - Popuri, Srinivas R.

AU - Greer, Heather F.

AU - Llin, Lourdes F.

AU - Bos, Jan-Willem G.

AU - Zhou, Wuzong

AU - Paul, Douglas J.

AU - Ménard, Hervé

AU - Knox, Andrew R.

AU - Montecucco, Andrea

AU - Siviter, Jonathan

AU - Man, Elena A.

AU - Li, Wen-guang

AU - Paul, Manosh C.

AU - Gao, Min

AU - Sweet, Tracy

AU - Freer, Robert

AU - Azough, Feridoon

AU - Baig, Hasan

AU - Mallik, Tapas K.

AU - Gregory, Duncan H.

N1 - This work was financially supported by the EPSRC (EP/K022156/1). SRP and JWGB acknowledge the EPSRC for support (EP/N01717X/1). HFG and WZ acknowledge the EPSRC for the Equipment Grant to purchase Titan Themis 200 microscope (EP/L017008/1).

PY - 2017/7/5

Y1 - 2017/7/5

N2 - An aqueous solution method is developed for the facile synthesis of Cl-containing SnSe nanoparticles in 10 g quantities per batch. The particle size and Cl concentration of the nanoparticles can be efficiently tuned as a function of reaction duration. Hot pressing produces n-type Cl-doped SnSe nanostructured compacts with thermoelectric power factors optimized via control of Cl dopant concentration. This approach, combining an energy-efficient solution synthesis with hot pressing, provides a simple, rapid, and low-cost route to high performance n-type SnSe thermoelectric materials.

AB - An aqueous solution method is developed for the facile synthesis of Cl-containing SnSe nanoparticles in 10 g quantities per batch. The particle size and Cl concentration of the nanoparticles can be efficiently tuned as a function of reaction duration. Hot pressing produces n-type Cl-doped SnSe nanostructured compacts with thermoelectric power factors optimized via control of Cl dopant concentration. This approach, combining an energy-efficient solution synthesis with hot pressing, provides a simple, rapid, and low-cost route to high performance n-type SnSe thermoelectric materials.

KW - Tin selenide

KW - Synthesis

KW - n-type

KW - Thermoelectrics

KW - Nanomaterials

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U2 - 10.1002/aenm.201602328

DO - 10.1002/aenm.201602328

M3 - Article

SN - 1614-6832

VL - 7

JO - Advanced Energy Materials

JF - Advanced Energy Materials

IS - 13

M1 - 1602328

ER -

Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials

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Chlorine-enabled electron doping in solution-synthesized SnSe thermoelectric nanomaterials

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Equipment Account: Characterisation and Manipulation of Advanced Functional Materials and their Interfaces at the Nanoscale

Upgrade Small Equipment Base: Small items of research equipment at the University of St Andrews. Supporting a new generation of physical sciences research

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