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• W3156933149 abstract "We show how to implement the various kinds of topological routers via introducing the specific long-range hopping in the one-dimensional modulated Su-Schrieffer-Heeger chain. We find that the long-range hopping with hopping amplitudes identical to those of the intercell hopping between the first site and other odd sites holds a distinctive topological channel (gap state), by which the particle initially prepared at the last site can appear at the first site and all of the even sites with approximately equal probabilities. This extraordinary performance indicates that, from the perspective of treating the last site as the input port and treating the first site and other even sites as output ports, the present system can be naturally equivalent to a distribution device with multiple output ports, i.e., the topological router. We show that the number of the output ports for the present topological router can be flexibly tuned via reducing the long-range hopping terms. Especially, the system experiences a phase transition with the increasing of the long-range hopping amplitudes, in which the original gap state becomes a topological channel to implement the topological router with the output ports only at all even sites. We stress that both the two kinds of topological routers are protected by the energy gap and hence are robust to the mild disorder added into the system. Moreover, together with the construction of the topological interface, we find that the topological routers can own the output ports in a symmetrical way about the interface site. The topological routers may play the pivotal role in the large-scale entanglement distributions, which significantly expands and supplies the potential applications of the topological materials in quantum information processing.1 MoreReceived 25 November 2020Accepted 25 March 2021DOI:https://doi.org/10.1103/PhysRevResearch.3.023037Published by the American Physical Society under the terms of the Creative Commons Attribution 4.0 International license. Further distribution of this work must maintain attribution to the author(s) and the published article's title, journal citation, and DOI.Published by the American Physical SocietyPhysics Subject Headings (PhySH)Research AreasQuantum information processingTopological quantum computingAtomic, Molecular & OpticalQuantum Information" @default.
• W3156933149 created "2021-04-26" @default.
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• W3156933149 date "2021-04-12" @default.
• W3156933149 modified "2023-10-16" @default.
• W3156933149 title "Topological router induced via long-range hopping in a Su-Schrieffer-Heeger chain" @default.
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• W3156933149 cites W1974512649 @default.
• W3156933149 cites W1988633556 @default.
• W3156933149 cites W1990490198 @default.
• W3156933149 cites W1994956962 @default.
• W3156933149 cites W1996411926 @default.
• W3156933149 cites W1998462682 @default.
• W3156933149 cites W2006575921 @default.
• W3156933149 cites W2009616636 @default.
• W3156933149 cites W2014035914 @default.
• W3156933149 cites W2017077355 @default.
• W3156933149 cites W2017413104 @default.
• W3156933149 cites W2020332193 @default.
• W3156933149 cites W2021819750 @default.
• W3156933149 cites W2024543013 @default.
• W3156933149 cites W2025980543 @default.
• W3156933149 cites W2028212109 @default.
• W3156933149 cites W2038873860 @default.
• W3156933149 cites W2040466754 @default.
• W3156933149 cites W2044811975 @default.
• W3156933149 cites W2044871883 @default.
• W3156933149 cites W2047340336 @default.
• W3156933149 cites W2058318929 @default.
• W3156933149 cites W2059865727 @default.
• W3156933149 cites W2061959585 @default.
• W3156933149 cites W2064035318 @default.
• W3156933149 cites W2068221458 @default.
• W3156933149 cites W2091632373 @default.
• W3156933149 cites W2094031756 @default.
• W3156933149 cites W2096509338 @default.
• W3156933149 cites W2102074887 @default.
• W3156933149 cites W2122642644 @default.
• W3156933149 cites W2150291000 @default.
• W3156933149 cites W2156726186 @default.
• W3156933149 cites W2158000927 @default.
• W3156933149 cites W2162638532 @default.
• W3156933149 cites W2165596479 @default.
• W3156933149 cites W2168502760 @default.
• W3156933149 cites W2169187919 @default.
• W3156933149 cites W2293673104 @default.
• W3156933149 cites W2313079465 @default.
• W3156933149 cites W2324324619 @default.
• W3156933149 cites W2336651650 @default.
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• W3156933149 cites W2618467439 @default.
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• W3156933149 cites W2790327112 @default.
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• W3156933149 cites W2884250389 @default.
• W3156933149 cites W2935768658 @default.
• W3156933149 cites W2949788912 @default.
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• W3156933149 cites W2955338151 @default.
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• W3156933149 doi "https://doi.org/10.1103/physrevresearch.3.023037" @default.
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