First Direct Detection Constraints on Planck-Scale Mass Dark Matter with Multiple-Scatter Signatures Using the DEAP-3600 Detector

P. Adhikari; R. Ajaj; M. Alpízar-Venegas; D. J. Auty; H. Benmansour; C. E. Bina; W. Bonivento; M. G. Boulay; M. Cadeddu; B. Cai; M. Cárdenas-Montes; S. Cavuoti; Y. Chen; B. T. Cleveland; J. M. Corning; S. Daugherty; P. DelGobbo; P. Di Stefano; L. Doria; M. Dunford; E. Ellingwood; A. Erlandson; S. S. Farahani; N. Fatemighomi; G. Fiorillo; D. Gallacher; P. García Abia; S. Garg; P. Giampa; D. Goeldi; P. Gorel; K. Graham; A. Grobov; A. L. Hallin; M. Hamstra; T. Hugues; A. Ilyasov; A. Joy; B. Jigmeddorj; C. J. Jillings; O. Kamaev; G. Kaur; A. Kemp; I. Kochanek; M. Kuzniak; M. Lai; S. Langrock; B. Lehnert; A. Leonhardt; N. Levashko; X. Li; M. Lissia; O. Litvinov; J. Lock; G. Longo; I. Machulin; A. B. McDonald; T. McElroy; J. B. McLaughlin; C. Mielnichuk; L. Mirasola; J. Monroe; G. Oliviéro; S. Pal; S. J.M. Peeters; M. Perry; V. Pesudo; E. Picciau; M. C. Piro; T. R. Pollmann; N. Raj; E. T. Rand; C. Rethmeier; F. Retière; I. Rodríguez-García; L. Roszkowski; J. B. Ruhland; E. Sanchez García; T. Sánchez-Pastor; R. Santorelli; S. Seth; D. Sinclair; P. Skensved; B. Smith; N. J.T. Smith; T. Sonley; R. Stainforth; M. Stringer; B. Sur; E. Vázquez-Jáuregui; S. Viel; J. Walding; M. Waqar; M. Ward; S. Westerdale; J. Willis; A. Zuñiga-Reyes

doi:10.1103/PhysRevLett.128.011801

First Direct Detection Constraints on Planck-Scale Mass Dark Matter with Multiple-Scatter Signatures Using the DEAP-3600 Detector

P. Adhikari, R. Ajaj, M. Alpízar-Venegas, D. J. Auty, H. Benmansour, C. E. Bina, W. Bonivento, M. G. Boulay, M. Cadeddu, B. Cai, M. Cárdenas-Montes, S. Cavuoti, Y. Chen, B. T. Cleveland, J. M. Corning, S. Daugherty, P. DelGobbo, P. Di Stefano, L. Doria, M. DunfordE. Ellingwood, A. Erlandson, S. S. Farahani, N. Fatemighomi, G. Fiorillo, D. Gallacher, P. García Abia, S. Garg, P. Giampa, D. Goeldi, P. Gorel, K. Graham, A. Grobov, A. L. Hallin, M. Hamstra, T. Hugues, A. Ilyasov, A. Joy, B. Jigmeddorj, C. J. Jillings, O. Kamaev, G. Kaur, A. Kemp, I. Kochanek, M. Kuzniak, M. Lai, S. Langrock, B. Lehnert, A. Leonhardt, N. Levashko, X. Li, M. Lissia, O. Litvinov, J. Lock, G. Longo, I. Machulin, A. B. McDonald, T. McElroy, J. B. McLaughlin, C. Mielnichuk, L. Mirasola, J. Monroe, G. Oliviéro, S. Pal, S. J.M. Peeters, M. Perry, V. Pesudo, E. Picciau, M. C. Piro, T. R. Pollmann, N. Raj, E. T. Rand, C. Rethmeier, F. Retière, I. Rodríguez-García, L. Roszkowski, J. B. Ruhland, E. Sanchez García, T. Sánchez-Pastor, R. Santorelli, S. Seth, D. Sinclair, P. Skensved, B. Smith, N. J.T. Smith, T. Sonley, R. Stainforth, M. Stringer, B. Sur, E. Vázquez-Jáuregui, S. Viel, J. Walding, M. Waqar, M. Ward, S. Westerdale, J. Willis, A. Zuñiga-Reyes

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

37 Scopus citations

Abstract

Dark matter with Planck-scale mass (?1019 GeV/c2) arises in well-motivated theories and could be produced by several cosmological mechanisms. A search for multiscatter signals from supermassive dark matter was performed with a blind analysis of data collected over a 813 d live time with DEAP-3600, a 3.3 t single-phase liquid argon-based detector at SNOLAB. No candidate signals were observed, leading to the first direct detection constraints on Planck-scale mass dark matter. Leading limits constrain dark matter masses between 8.3×106 and 1.2×1019 GeV/c2, and Ar40-scattering cross sections between 1.0×10-23 and 2.4×10-18 cm2. These results are interpreted as constraints on composite dark matter models with two different nucleon-to-nuclear cross section scalings.

Original language	English (US)
Article number	011801
Journal	Physical review letters
Volume	128
Issue number	1
DOIs	https://doi.org/10.1103/PhysRevLett.128.011801
State	Published - Jan 7 2022
Externally published	Yes

ASJC Scopus subject areas

General Physics and Astronomy

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10.1103/PhysRevLett.128.011801

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Adhikari, P., Ajaj, R., Alpízar-Venegas, M., Auty, D. J., Benmansour, H., Bina, C. E., Bonivento, W., Boulay, M. G., Cadeddu, M., Cai, B., Cárdenas-Montes, M., Cavuoti, S., Chen, Y., Cleveland, B. T., Corning, J. M., Daugherty, S., DelGobbo, P., Di Stefano, P., Doria, L., ... Zuñiga-Reyes, A. (2022). First Direct Detection Constraints on Planck-Scale Mass Dark Matter with Multiple-Scatter Signatures Using the DEAP-3600 Detector. Physical review letters, 128(1), Article 011801. https://doi.org/10.1103/PhysRevLett.128.011801

Adhikari, P, Ajaj, R, Alpízar-Venegas, M, Auty, DJ, Benmansour, H, Bina, CE, Bonivento, W, Boulay, MG, Cadeddu, M, Cai, B, Cárdenas-Montes, M, Cavuoti, S, Chen, Y, Cleveland, BT, Corning, JM, Daugherty, S, DelGobbo, P, Di Stefano, P, Doria, L, Dunford, M, Ellingwood, E, Erlandson, A, Farahani, SS, Fatemighomi, N, Fiorillo, G, Gallacher, D, García Abia, P, Garg, S, Giampa, P, Goeldi, D, Gorel, P, Graham, K, Grobov, A, Hallin, AL, Hamstra, M, Hugues, T, Ilyasov, A, Joy, A, Jigmeddorj, B, Jillings, CJ, Kamaev, O, Kaur, G, Kemp, A, Kochanek, I, Kuzniak, M, Lai, M, Langrock, S, Lehnert, B, Leonhardt, A, Levashko, N, Li, X, Lissia, M, Litvinov, O, Lock, J, Longo, G, Machulin, I, McDonald, AB, McElroy, T, McLaughlin, JB, Mielnichuk, C, Mirasola, L, Monroe, J, Oliviéro, G, Pal, S, Peeters, SJM, Perry, M, Pesudo, V, Picciau, E, Piro, MC, Pollmann, TR, Raj, N, Rand, ET, Rethmeier, C, Retière, F, Rodríguez-García, I, Roszkowski, L, Ruhland, JB, Sanchez García, E, Sánchez-Pastor, T, Santorelli, R, Seth, S, Sinclair, D, Skensved, P, Smith, B, Smith, NJT, Sonley, T, Stainforth, R, Stringer, M, Sur, B, Vázquez-Jáuregui, E, Viel, S, Walding, J, Waqar, M, Ward, M, Westerdale, S, Willis, J & Zuñiga-Reyes, A 2022, 'First Direct Detection Constraints on Planck-Scale Mass Dark Matter with Multiple-Scatter Signatures Using the DEAP-3600 Detector', Physical review letters, vol. 128, no. 1, 011801. https://doi.org/10.1103/PhysRevLett.128.011801

@article{75f7b969546a4c3f990cede05c28355b,

title = "First Direct Detection Constraints on Planck-Scale Mass Dark Matter with Multiple-Scatter Signatures Using the DEAP-3600 Detector",

abstract = "Dark matter with Planck-scale mass (?1019 GeV/c2) arises in well-motivated theories and could be produced by several cosmological mechanisms. A search for multiscatter signals from supermassive dark matter was performed with a blind analysis of data collected over a 813 d live time with DEAP-3600, a 3.3 t single-phase liquid argon-based detector at SNOLAB. No candidate signals were observed, leading to the first direct detection constraints on Planck-scale mass dark matter. Leading limits constrain dark matter masses between 8.3×106 and 1.2×1019 GeV/c2, and Ar40-scattering cross sections between 1.0×10-23 and 2.4×10-18 cm2. These results are interpreted as constraints on composite dark matter models with two different nucleon-to-nuclear cross section scalings.",

author = "P. Adhikari and R. Ajaj and M. Alp{\'i}zar-Venegas and Auty, {D. J.} and H. Benmansour and Bina, {C. E.} and W. Bonivento and Boulay, {M. G.} and M. Cadeddu and B. Cai and M. C{\'a}rdenas-Montes and S. Cavuoti and Y. Chen and Cleveland, {B. T.} and Corning, {J. M.} and S. Daugherty and P. DelGobbo and {Di Stefano}, P. and L. Doria and M. Dunford and E. Ellingwood and A. Erlandson and Farahani, {S. S.} and N. Fatemighomi and G. Fiorillo and D. Gallacher and {Garc{\'i}a Abia}, P. and S. Garg and P. Giampa and D. Goeldi and P. Gorel and K. Graham and A. Grobov and Hallin, {A. L.} and M. Hamstra and T. Hugues and A. Ilyasov and A. Joy and B. Jigmeddorj and Jillings, {C. J.} and O. Kamaev and G. Kaur and A. Kemp and I. Kochanek and M. Kuzniak and M. Lai and S. Langrock and B. Lehnert and A. Leonhardt and N. Levashko and X. Li and M. Lissia and O. Litvinov and J. Lock and G. Longo and I. Machulin and McDonald, {A. B.} and T. McElroy and McLaughlin, {J. B.} and C. Mielnichuk and L. Mirasola and J. Monroe and G. Olivi{\'e}ro and S. Pal and Peeters, {S. J.M.} and M. Perry and V. Pesudo and E. Picciau and Piro, {M. C.} and Pollmann, {T. R.} and N. Raj and Rand, {E. T.} and C. Rethmeier and F. Reti{\`e}re and I. Rodr{\'i}guez-Garc{\'i}a and L. Roszkowski and Ruhland, {J. B.} and {Sanchez Garc{\'i}a}, E. and T. S{\'a}nchez-Pastor and R. Santorelli and S. Seth and D. Sinclair and P. Skensved and B. Smith and Smith, {N. J.T.} and T. Sonley and R. Stainforth and M. Stringer and B. Sur and E. V{\'a}zquez-J{\'a}uregui and S. Viel and J. Walding and M. Waqar and M. Ward and S. Westerdale and J. Willis and A. Zu{\~n}iga-Reyes",

note = "Funding Information: We gratefully acknowledge fruitful interactions with Javier Acevedo, Joe Bramante, and Alan Goodman. TRIUMF receives federal funding via a contribution agreement with the National Research Council Canada. We thank the Natural Sciences and Engineering Research Council of Canada, the Canadian Foundation for Innovation (CFI), the Ontario Ministry of Research and Innovation (MRI), and Alberta Advanced Education and Technology (ASRIP), Queen{\textquoteright}s University, the University of Alberta, Carleton University, the Canada First Research Excellence Fund, the Arthur B. McDonald Canadian Astroparticle Research Institute, DGAPA-UNAM (PAPIIT No. IN108020) and Consejo Nacional de Ciencia y Tecnolog{\'i}a (CONACyT, Mexico, Grant No. A1-S-8960), the European Research Council Project (ERC StG 279980), the U.K. Science and Technology Facilities Council (STFC) (ST/K002570/1 and ST/R002908/1), the Leverhulme Trust (ECF-20130496), the Russian Science Foundation (Grant No. 21-72-10065), the Spanish Ministry of Science and Innovation (PID2019–109374GB-I00), and the International Research Agenda Programme AstroCeNT (MAB/2018/7) funded by the Foundation for Polish Science (FNP) from the European Regional Development Fund. Studentship support from the Rutherford Appleton Laboratory Particle Physics Division, STFC and SEPNet Ph.D. is acknowledged. We thank SNOLAB and its staff for support through underground space, logistical, and technical services. SNOLAB operations are supported by the CFI and Province of Ontario MRI, with underground access provided by Vale at the Creighton mine site. We thank Vale for their continuing support, including the work of shipping the acrylic vessel underground. We gratefully acknowledge the support of Compute Canada, Calcul Qu{\'e}bec, the Centre for Advanced Computing at Queen{\textquoteright}s University, and the Computation Centre for Particle and Astrophysics (C2PAP) at the Leibniz Supercomputer Centre (LRZ) for providing the computing resources required to undertake this work. Funding Information: We gratefully acknowledge fruitful interactions with Javier Acevedo, Joe Bramante, and Alan Goodman. TRIUMF receives federal funding via a contribution agreement with the National Research Council Canada. We thank the Natural Sciences and Engineering Research Council of Canada, the Canadian Foundation for Innovation (CFI), the Ontario Ministry of Research and Innovation (MRI), and Alberta Advanced Education and Technology (ASRIP), Queen?s University, the University of Alberta, Carleton University, the Canada First Research Excellence Fund, the Arthur B. McDonald Canadian Astroparticle Research Institute, DGAPA-UNAM (PAPIIT No. IN108020) and Consejo Nacional de Ciencia y Tecnolog?a (CONACyT, Mexico, Grant No. A1-S-8960), the European Research Council Project (ERC StG 279980), the U.K. Science and Technology Facilities Council (STFC) (ST/K002570/1 and ST/R002908/1), the Leverhulme Trust (ECF-20130496), the Russian Science Foundation (Grant No. 21-72-10065), the Spanish Ministry of Science and Innovation (PID2019?109374GB-I00), and the International Research Agenda Programme AstroCeNT (MAB/2018/7) funded by the Foundation for Polish Science (FNP) from the European Regional Development Fund. Studentship support from the Rutherford Appleton Laboratory Particle Physics Division, STFC and SEPNet Ph.D. is acknowledged. We thank SNOLAB and its staff for support through underground space, logistical, and technical services. SNOLAB operations are supported by the CFI and Province of Ontario MRI, with underground access provided by Vale at the Creighton mine site. We thank Vale for their continuing support, including the work of shipping the acrylic vessel underground. We gratefully acknowledge the support of Compute Canada, Calcul Qu?bec, the Centre for Advanced Computing at Queen?s University, and the Computation Centre for Particle and Astrophysics (C2PAP) at the Leibniz Supercomputer Centre (LRZ) for providing the computing resources required to undertake this work. Publisher Copyright: {\textcopyright} 2022 American Physical Society",

year = "2022",

month = jan,

day = "7",

doi = "10.1103/PhysRevLett.128.011801",

language = "English (US)",

volume = "128",

journal = "Physical review letters",

issn = "0031-9007",

publisher = "American Physical Society",

number = "1",

}

TY - JOUR

T1 - First Direct Detection Constraints on Planck-Scale Mass Dark Matter with Multiple-Scatter Signatures Using the DEAP-3600 Detector

AU - Adhikari, P.

AU - Ajaj, R.

AU - Alpízar-Venegas, M.

AU - Auty, D. J.

AU - Benmansour, H.

AU - Bina, C. E.

AU - Bonivento, W.

AU - Boulay, M. G.

AU - Cadeddu, M.

AU - Cai, B.

AU - Cárdenas-Montes, M.

AU - Cavuoti, S.

AU - Chen, Y.

AU - Cleveland, B. T.

AU - Corning, J. M.

AU - Daugherty, S.

AU - DelGobbo, P.

AU - Di Stefano, P.

AU - Doria, L.

AU - Dunford, M.

AU - Ellingwood, E.

AU - Erlandson, A.

AU - Farahani, S. S.

AU - Fatemighomi, N.

AU - Fiorillo, G.

AU - Gallacher, D.

AU - García Abia, P.

AU - Garg, S.

AU - Giampa, P.

AU - Goeldi, D.

AU - Gorel, P.

AU - Graham, K.

AU - Grobov, A.

AU - Hallin, A. L.

AU - Hamstra, M.

AU - Hugues, T.

AU - Ilyasov, A.

AU - Joy, A.

AU - Jigmeddorj, B.

AU - Jillings, C. J.

AU - Kamaev, O.

AU - Kaur, G.

AU - Kemp, A.

AU - Kochanek, I.

AU - Kuzniak, M.

AU - Lai, M.

AU - Langrock, S.

AU - Lehnert, B.

AU - Leonhardt, A.

AU - Levashko, N.

AU - Li, X.

AU - Lissia, M.

AU - Litvinov, O.

AU - Lock, J.

AU - Longo, G.

AU - Machulin, I.

AU - McDonald, A. B.

AU - McElroy, T.

AU - McLaughlin, J. B.

AU - Mielnichuk, C.

AU - Mirasola, L.

AU - Monroe, J.

AU - Oliviéro, G.

AU - Pal, S.

AU - Peeters, S. J.M.

AU - Perry, M.

AU - Pesudo, V.

AU - Picciau, E.

AU - Piro, M. C.

AU - Pollmann, T. R.

AU - Raj, N.

AU - Rand, E. T.

AU - Rethmeier, C.

AU - Retière, F.

AU - Rodríguez-García, I.

AU - Roszkowski, L.

AU - Ruhland, J. B.

AU - Sanchez García, E.

AU - Sánchez-Pastor, T.

AU - Santorelli, R.

AU - Seth, S.

AU - Sinclair, D.

AU - Skensved, P.

AU - Smith, B.

AU - Smith, N. J.T.

AU - Sonley, T.

AU - Stainforth, R.

AU - Stringer, M.

AU - Sur, B.

AU - Vázquez-Jáuregui, E.

AU - Viel, S.

AU - Walding, J.

AU - Waqar, M.

AU - Ward, M.

AU - Westerdale, S.

AU - Willis, J.

AU - Zuñiga-Reyes, A.

N1 - Funding Information: We gratefully acknowledge fruitful interactions with Javier Acevedo, Joe Bramante, and Alan Goodman. TRIUMF receives federal funding via a contribution agreement with the National Research Council Canada. We thank the Natural Sciences and Engineering Research Council of Canada, the Canadian Foundation for Innovation (CFI), the Ontario Ministry of Research and Innovation (MRI), and Alberta Advanced Education and Technology (ASRIP), Queen’s University, the University of Alberta, Carleton University, the Canada First Research Excellence Fund, the Arthur B. McDonald Canadian Astroparticle Research Institute, DGAPA-UNAM (PAPIIT No. IN108020) and Consejo Nacional de Ciencia y Tecnología (CONACyT, Mexico, Grant No. A1-S-8960), the European Research Council Project (ERC StG 279980), the U.K. Science and Technology Facilities Council (STFC) (ST/K002570/1 and ST/R002908/1), the Leverhulme Trust (ECF-20130496), the Russian Science Foundation (Grant No. 21-72-10065), the Spanish Ministry of Science and Innovation (PID2019–109374GB-I00), and the International Research Agenda Programme AstroCeNT (MAB/2018/7) funded by the Foundation for Polish Science (FNP) from the European Regional Development Fund. Studentship support from the Rutherford Appleton Laboratory Particle Physics Division, STFC and SEPNet Ph.D. is acknowledged. We thank SNOLAB and its staff for support through underground space, logistical, and technical services. SNOLAB operations are supported by the CFI and Province of Ontario MRI, with underground access provided by Vale at the Creighton mine site. We thank Vale for their continuing support, including the work of shipping the acrylic vessel underground. We gratefully acknowledge the support of Compute Canada, Calcul Québec, the Centre for Advanced Computing at Queen’s University, and the Computation Centre for Particle and Astrophysics (C2PAP) at the Leibniz Supercomputer Centre (LRZ) for providing the computing resources required to undertake this work. Funding Information: We gratefully acknowledge fruitful interactions with Javier Acevedo, Joe Bramante, and Alan Goodman. TRIUMF receives federal funding via a contribution agreement with the National Research Council Canada. We thank the Natural Sciences and Engineering Research Council of Canada, the Canadian Foundation for Innovation (CFI), the Ontario Ministry of Research and Innovation (MRI), and Alberta Advanced Education and Technology (ASRIP), Queen?s University, the University of Alberta, Carleton University, the Canada First Research Excellence Fund, the Arthur B. McDonald Canadian Astroparticle Research Institute, DGAPA-UNAM (PAPIIT No. IN108020) and Consejo Nacional de Ciencia y Tecnolog?a (CONACyT, Mexico, Grant No. A1-S-8960), the European Research Council Project (ERC StG 279980), the U.K. Science and Technology Facilities Council (STFC) (ST/K002570/1 and ST/R002908/1), the Leverhulme Trust (ECF-20130496), the Russian Science Foundation (Grant No. 21-72-10065), the Spanish Ministry of Science and Innovation (PID2019?109374GB-I00), and the International Research Agenda Programme AstroCeNT (MAB/2018/7) funded by the Foundation for Polish Science (FNP) from the European Regional Development Fund. Studentship support from the Rutherford Appleton Laboratory Particle Physics Division, STFC and SEPNet Ph.D. is acknowledged. We thank SNOLAB and its staff for support through underground space, logistical, and technical services. SNOLAB operations are supported by the CFI and Province of Ontario MRI, with underground access provided by Vale at the Creighton mine site. We thank Vale for their continuing support, including the work of shipping the acrylic vessel underground. We gratefully acknowledge the support of Compute Canada, Calcul Qu?bec, the Centre for Advanced Computing at Queen?s University, and the Computation Centre for Particle and Astrophysics (C2PAP) at the Leibniz Supercomputer Centre (LRZ) for providing the computing resources required to undertake this work. Publisher Copyright: © 2022 American Physical Society

PY - 2022/1/7

Y1 - 2022/1/7

N2 - Dark matter with Planck-scale mass (?1019 GeV/c2) arises in well-motivated theories and could be produced by several cosmological mechanisms. A search for multiscatter signals from supermassive dark matter was performed with a blind analysis of data collected over a 813 d live time with DEAP-3600, a 3.3 t single-phase liquid argon-based detector at SNOLAB. No candidate signals were observed, leading to the first direct detection constraints on Planck-scale mass dark matter. Leading limits constrain dark matter masses between 8.3×106 and 1.2×1019 GeV/c2, and Ar40-scattering cross sections between 1.0×10-23 and 2.4×10-18 cm2. These results are interpreted as constraints on composite dark matter models with two different nucleon-to-nuclear cross section scalings.

AB - Dark matter with Planck-scale mass (?1019 GeV/c2) arises in well-motivated theories and could be produced by several cosmological mechanisms. A search for multiscatter signals from supermassive dark matter was performed with a blind analysis of data collected over a 813 d live time with DEAP-3600, a 3.3 t single-phase liquid argon-based detector at SNOLAB. No candidate signals were observed, leading to the first direct detection constraints on Planck-scale mass dark matter. Leading limits constrain dark matter masses between 8.3×106 and 1.2×1019 GeV/c2, and Ar40-scattering cross sections between 1.0×10-23 and 2.4×10-18 cm2. These results are interpreted as constraints on composite dark matter models with two different nucleon-to-nuclear cross section scalings.

UR - http://www.scopus.com/inward/record.url?scp=85122730746&partnerID=8YFLogxK

UR - http://www.scopus.com/inward/citedby.url?scp=85122730746&partnerID=8YFLogxK

U2 - 10.1103/PhysRevLett.128.011801

DO - 10.1103/PhysRevLett.128.011801

M3 - Article

C2 - 35061499

AN - SCOPUS:85122730746

SN - 0031-9007

VL - 128

JO - Physical review letters

JF - Physical review letters

IS - 1

M1 - 011801

ER -

First Direct Detection Constraints on Planck-Scale Mass Dark Matter with Multiple-Scatter Signatures Using the DEAP-3600 Detector

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