Αποθηκεύτηκε σε:
Λεπτομέρειες βιβλιογραφικής εγγραφής
Κύριοι συγγραφείς: Tezze, Daniel, Pereira, Jose M., Tutar, Dogukan, Ramos, Maria, Regner, Jakub, Gargiani, Pierluigi, Schiller, Frederik, Casanova, Felix, Alegria, Angel, Martin-Garcia, Beatriz, Sahin, Hasan, Sofer, Zdenek, Ormaza, Maider, Hueso, Luis, Gobbi, Marco
Μορφή: Preprint
Έκδοση: 2025
Θέματα:
Διαθέσιμο Online:https://arxiv.org/abs/2510.24613
Ετικέτες: Προσθήκη ετικέτας
Δεν υπάρχουν, Καταχωρήστε ετικέτα πρώτοι!
_version_ 1866915583194300416
author Tezze, Daniel
Pereira, Jose M.
Tutar, Dogukan
Ramos, Maria
Regner, Jakub
Gargiani, Pierluigi
Schiller, Frederik
Casanova, Felix
Alegria, Angel
Martin-Garcia, Beatriz
Sahin, Hasan
Sofer, Zdenek
Ormaza, Maider
Hueso, Luis
Gobbi, Marco
author_facet Tezze, Daniel
Pereira, Jose M.
Tutar, Dogukan
Ramos, Maria
Regner, Jakub
Gargiani, Pierluigi
Schiller, Frederik
Casanova, Felix
Alegria, Angel
Martin-Garcia, Beatriz
Sahin, Hasan
Sofer, Zdenek
Ormaza, Maider
Hueso, Luis
Gobbi, Marco
contents The magnetic properties of van der Waals materials are profoundly influenced by structural defects. The layered antiferromagnet MnPS3 offers a unique opportunity to explore defect-related magnetism, as Mn2+ vacancies can be generated by the intercalation of specific guest molecules. However, the effectiveness of this process in atomically thin flakes and the extent of the magnetic tunability remain unclear. Here, we show that the magnetic properties of MnPS3 can be tailored through the intercalation of different guest molecules. Notably, the insertion of four alkylammonium ions introduces different populations of Mn2+ vacancies, leading to a transition from the pristine antiferromagnetic state to more complex magnetic textures, including a ferrimagnetic state displaying a magnetic saturation of 1 uB/atom. Moreover, we show that the intercalation of few-nm-thick flakes also leads to the emergence of a ferrimagnetic response. This in-flake intercalation, which can be monitored in real time using optical microscopy, can be interrupted before completion, generating lateral heterostructures between pristine and intercalated areas. This approach opens the way to the use of partial intercalation to define regions with distinct magnetic properties within a single flake.
format Preprint
id arxiv_https___arxiv_org_abs_2510_24613
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Tunable magnetism in 2D organic-ion-intercalated MnPS3 via molecule-dependent vacancy generation
Tezze, Daniel
Pereira, Jose M.
Tutar, Dogukan
Ramos, Maria
Regner, Jakub
Gargiani, Pierluigi
Schiller, Frederik
Casanova, Felix
Alegria, Angel
Martin-Garcia, Beatriz
Sahin, Hasan
Sofer, Zdenek
Ormaza, Maider
Hueso, Luis
Gobbi, Marco
Materials Science
The magnetic properties of van der Waals materials are profoundly influenced by structural defects. The layered antiferromagnet MnPS3 offers a unique opportunity to explore defect-related magnetism, as Mn2+ vacancies can be generated by the intercalation of specific guest molecules. However, the effectiveness of this process in atomically thin flakes and the extent of the magnetic tunability remain unclear. Here, we show that the magnetic properties of MnPS3 can be tailored through the intercalation of different guest molecules. Notably, the insertion of four alkylammonium ions introduces different populations of Mn2+ vacancies, leading to a transition from the pristine antiferromagnetic state to more complex magnetic textures, including a ferrimagnetic state displaying a magnetic saturation of 1 uB/atom. Moreover, we show that the intercalation of few-nm-thick flakes also leads to the emergence of a ferrimagnetic response. This in-flake intercalation, which can be monitored in real time using optical microscopy, can be interrupted before completion, generating lateral heterostructures between pristine and intercalated areas. This approach opens the way to the use of partial intercalation to define regions with distinct magnetic properties within a single flake.
title Tunable magnetism in 2D organic-ion-intercalated MnPS3 via molecule-dependent vacancy generation
topic Materials Science
url https://arxiv.org/abs/2510.24613