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Main Authors: Itzhak, Noya Ruth, Reidy, Kate, Levy-Greenberg, Maya, Miller, Paul Anthony, Wei, Chen, Quispe, Juan Gomez, Tromer, Raphael, Hellman, Olle, Joselevich, Shahar, Ashman, Aliza, Houben, Lothar, Kaplan-Ashiri, Ifat, Sui, Xiao-Meng, Brontvein, Olga, Rechav, Katya, Travers, Laurent, Autreto, Pedro A. S., Galvão, Douglas S., Panciera, Federico, Hod, Oded, Kronik, Leeor, Ross, Frances M., Joselevich, Ernesto
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2603.24565
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author Itzhak, Noya Ruth
Reidy, Kate
Levy-Greenberg, Maya
Miller, Paul Anthony
Wei, Chen
Quispe, Juan Gomez
Tromer, Raphael
Hellman, Olle
Joselevich, Shahar
Ashman, Aliza
Houben, Lothar
Kaplan-Ashiri, Ifat
Sui, Xiao-Meng
Brontvein, Olga
Rechav, Katya
Travers, Laurent
Autreto, Pedro A. S.
Galvão, Douglas S.
Panciera, Federico
Hod, Oded
Kronik, Leeor
Ross, Frances M.
Joselevich, Ernesto
author_facet Itzhak, Noya Ruth
Reidy, Kate
Levy-Greenberg, Maya
Miller, Paul Anthony
Wei, Chen
Quispe, Juan Gomez
Tromer, Raphael
Hellman, Olle
Joselevich, Shahar
Ashman, Aliza
Houben, Lothar
Kaplan-Ashiri, Ifat
Sui, Xiao-Meng
Brontvein, Olga
Rechav, Katya
Travers, Laurent
Autreto, Pedro A. S.
Galvão, Douglas S.
Panciera, Federico
Hod, Oded
Kronik, Leeor
Ross, Frances M.
Joselevich, Ernesto
contents Chiral crystals exhibit useful handedness-dependent properties, including spin selectivity and circularly polarized light sensitivity, yet controlling which enantiomer forms during synthesis remains a central challenge. Existing approaches utilize molecules in solution to template crystal growth, which restricts processing conditions and introduces organic contaminants incompatible with device fabrication. Enantioselective growth of a chiral crystal on a chiral surface via vapor-phase synthesis (chiral epitaxy) has not yet been demonstrated. Here, we show chiral epitaxy of aligned tellurium nanowires on a low-symmetry two-dimensional material, ReSe2. In situ electron microscopies suggest a mechanism where handedness is determined at nucleation by the interface energy difference between Te enantiomers and the chiral substrate surface. Chiral epitaxy provides a solvent-free, vapor-solid route to homochiral crystals compatible with semiconductor and quantum manufacturing processes.
format Preprint
id arxiv_https___arxiv_org_abs_2603_24565
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Chiral Epitaxy: Enantioselective Growth of Chiral Nanowires on Low-Symmetry Two-Dimensional Materials
Itzhak, Noya Ruth
Reidy, Kate
Levy-Greenberg, Maya
Miller, Paul Anthony
Wei, Chen
Quispe, Juan Gomez
Tromer, Raphael
Hellman, Olle
Joselevich, Shahar
Ashman, Aliza
Houben, Lothar
Kaplan-Ashiri, Ifat
Sui, Xiao-Meng
Brontvein, Olga
Rechav, Katya
Travers, Laurent
Autreto, Pedro A. S.
Galvão, Douglas S.
Panciera, Federico
Hod, Oded
Kronik, Leeor
Ross, Frances M.
Joselevich, Ernesto
Materials Science
Chiral crystals exhibit useful handedness-dependent properties, including spin selectivity and circularly polarized light sensitivity, yet controlling which enantiomer forms during synthesis remains a central challenge. Existing approaches utilize molecules in solution to template crystal growth, which restricts processing conditions and introduces organic contaminants incompatible with device fabrication. Enantioselective growth of a chiral crystal on a chiral surface via vapor-phase synthesis (chiral epitaxy) has not yet been demonstrated. Here, we show chiral epitaxy of aligned tellurium nanowires on a low-symmetry two-dimensional material, ReSe2. In situ electron microscopies suggest a mechanism where handedness is determined at nucleation by the interface energy difference between Te enantiomers and the chiral substrate surface. Chiral epitaxy provides a solvent-free, vapor-solid route to homochiral crystals compatible with semiconductor and quantum manufacturing processes.
title Chiral Epitaxy: Enantioselective Growth of Chiral Nanowires on Low-Symmetry Two-Dimensional Materials
topic Materials Science
url https://arxiv.org/abs/2603.24565