Direct Observation of the Zigzag Edge States of a Supramolecular Diatomic Kagome Lattice

category

peer-reviewed

peer Reviewed

true

basis

Molecular-lattice microscopy and tight-binding calculations. This is not a clinical efficacy trial.

sources

https://doi.org/10.1021/acs.nanolett.6c03195 · https://pubmed.ncbi.nlm.nih.gov/42915366/

reviewed At

2026-10-26

score

1

scope

Paper

status

assessed

randomized Controlled Trial

Not recorded

blinding

not-confirmed

peer Reviewed

true

basis

Molecular-lattice microscopy and tight-binding calculations. This is not a clinical efficacy trial.

sources

https://pubmed.ncbi.nlm.nih.gov/42915366/ · https://doi.org/10.1021/acs.nanolett.6c03195

review Scope

Existing publication-specific assessments and bibliographic indexing; no blanket full-text appraisal.

assessed At

2026-10-27

status

not-applicable

score

Not recorded

reason

Not a human randomised clinical trial.

evidence Type

Molecular-lattice microscopy and tight-binding calculations

evidence Class

quantum_materials_experiment

measurement

Topological electronic edge states in a molecular lattice.

relationship Note

Compare edge and bulk observables in an explicitly defined Hamiltonian; treat this as a materials analogy until a quantum-information observable is tested.

clinical Evidence

false

review Depth

Publisher or author abstract and bibliographic metadata; selected explanatory sections where available.

hypothesis Boundary

Connections to M9 P24, Alpha, Beta, Gamma and Epsilon remain research hypotheses. Shared geometry does not establish a shared physical mechanism.

count

0

source

Crossref

retrieved At

2026-10-26

general

0

https://doi.org/10.1021/acs.nanolett.6c03195 · https://pubmed.ncbi.nlm.nih.gov/42915366/

general

Quantum computing · Geometry and information

count

0

source

Crossref

retrieved At

2026-10-26

category

peer-reviewed

peer Reviewed

true

basis

Molecular-lattice microscopy and tight-binding calculations. This is not a clinical efficacy trial.

sources

https://doi.org/10.1021/acs.nanolett.6c03195 · https://pubmed.ncbi.nlm.nih.gov/42915366/

reviewed At

2026-10-26

score

1

scope

Paper

status

assessed

randomized Controlled Trial

Not recorded

blinding

not-confirmed

peer Reviewed

true

basis

Molecular-lattice microscopy and tight-binding calculations. This is not a clinical efficacy trial.

sources

https://pubmed.ncbi.nlm.nih.gov/42915366/ · https://doi.org/10.1021/acs.nanolett.6c03195

review Scope

Existing publication-specific assessments and bibliographic indexing; no blanket full-text appraisal.

assessed At

2026-10-27

general

0

1. key

   general:quantum-neutral-atoms-materials

   title

   Neutral atoms and geometric quantum materials

   collection

   general

   trust Score

   Not recorded

1. id

   general-quantum-neutral-atoms-materials-quantum-kagome-edge-states-2026

   title

   Direct Observation
   of the Zigzag Edge States of a
   Supramolecular Diatomic Kagome Lattice

   doi

   10.1021/acs.nanolett.6c03195

   pmid

   42915366

   journal

   Nano Letters

   year

   2026

   published

   2026-09-02

   authors

   Ryohei Nemoto; Xiangzhi Meng; Behzad Mortezapour; Alexander Weismann; Saya Nakano; Masahisa Tsuchiizu; Ryuichi Arafune; Noriaki Takagi; Sho Nakamura; Katsunori Wakabayashi; Rie Suizu; Richard Berndt; Takashi Uchihashi; Kunio Awaga

   urls

   https://doi.org/10.1021/acs.nanolett.6c03195 · https://pubmed.ncbi.nlm.nih.gov/42915366/

   collections

   general

   categories

   Quantum computing · Geometry and information

   targets

   None recorded

   origin

   geometry-literature-20261026

   priority

   1

   kind

   Journal article

   design

   Molecular-lattice microscopy and tight-binding calculations

   summary

   The authors assembled a molecular diatomic kagome lattice and observed electronic states along its zigzag edges. Microscopy and calculations connect these states to the lattice's electronic structure and topology.

   finding

   The authors assembled a molecular diatomic kagome lattice and observed electronic states along its zigzag edges. Microscopy and calculations connect these states to the lattice's electronic structure and topology.

   limitation

   This is a quantum-materials result, not a demonstration of a longer-lived qubit or an error-correcting computer. It provides an example of geometry changing electronic behaviour, without establishing a Fibonacci mechanism.

   citation Count

   0

   citation Snapshot

   count

   0

   source

   Crossref

   retrieved At

   2026-10-26

   study Design Assessment

   category

   peer-reviewed

   peer Reviewed

   true

   basis

   Molecular-lattice microscopy and tight-binding calculations. This is not a clinical efficacy trial.

   sources

   https://doi.org/10.1021/acs.nanolett.6c03195 · https://pubmed.ncbi.nlm.nih.gov/42915366/

   reviewed At

   2026-10-26

   evidence

   evidence Type

   Molecular-lattice microscopy and tight-binding calculations

   evidence Class

   quantum_materials_experiment

   measurement

   Topological electronic edge states in a molecular lattice.

   relationship Note

   Compare edge and bulk observables in an explicitly defined Hamiltonian; treat this as a materials analogy until a quantum-information observable is tested.

   clinical Evidence

   false

   review Depth

   Publisher or author abstract and bibliographic metadata; selected explanatory sections where available.

   hypothesis Boundary

   Connections to M9 P24, Alpha, Beta, Gamma and Epsilon remain research hypotheses. Shared geometry does not establish a shared physical mechanism.

   jadad

   status

   not-applicable

   score

   Not recorded

   reason

   Not a human randomised clinical trial.

   quotes

   None recorded

   archive Entries

   None recorded

   verified At

   2026-10-26

   source Provenance

   origin

   Verified follow-up to Gemini research notes

   notion Page

   https://app.notion.com/p/4047b9c99c5680ddb35ec2e2edf83ee4

   reviewed At

   2026-10-26

   record Id

   quantum-kagome-edge-states-2026

   source Pages

   None recorded

   paper Trust Assessment

   score

   1

   scope

   Paper

   status

   assessed

   randomized Controlled Trial

   Not recorded

   blinding

   not-confirmed

   peer Reviewed

   true

   basis

   Molecular-lattice microscopy and tight-binding calculations. This is not a clinical efficacy trial.

   sources

   https://pubmed.ncbi.nlm.nih.gov/42915366/ · https://doi.org/10.1021/acs.nanolett.6c03195

   review Scope

   Existing publication-specific assessments and bibliographic indexing; no blanket full-text appraisal.

   assessed At

   2026-10-27

   publication Key

   doi:10.1021/acs.nanolett.6c03195

   collection

   general

   chapter Number

   10

   topic Id

   quantum-neutral-atoms-materials

   topic Title

   Neutral atoms and geometric quantum materials

   trust Score

   Not recorded

evidence Type

Molecular-lattice microscopy and tight-binding calculations

evidence Class

quantum_materials_experiment

measurement

Topological electronic edge states in a molecular lattice.

relationship Note

Compare edge and bulk observables in an explicitly defined Hamiltonian; treat this as a materials analogy until a quantum-information observable is tested.

clinical Evidence

false

review Depth

Publisher or author abstract and bibliographic metadata; selected explanatory sections where available.

hypothesis Boundary

Connections to M9 P24, Alpha, Beta, Gamma and Epsilon remain research hypotheses. Shared geometry does not establish a shared physical mechanism.

status

not-applicable

score

Not recorded

reason

Not a human randomised clinical trial.

status

curated-record

retrieval Available

false

url

https://doi.org/10.1021/acs.nanolett.6c03195

checked At

2026-10-26

indexed Content

Verified metadata and original research summary are indexed. Full article text is not indexed in this update.