Research context and placement

The abstracts support silicon-based GO reduction and film formation, not deformable-interconnect attachment. Retain routing foundations.

Boundary case: assigned to the closest interface for navigation. Read the rationale and cross-links together; the primary theme does not delimit the study. Placement of foundational work does not establish direct bioelectronic application.

Research overview and key contributions

Silicon nanosheets reduce GO; silicon wafers serve as reducing templates for rGO films.

The approach links reduction to film formation while avoiding impurities from conventional chemical reductants.

Five panels show oxide removal, GO coating and heating, two contact-angle photographs, a coated wafer and an AFM image.
Figure 1 · Original paper figure

Graphene oxide is coated onto oxide-stripped silicon and reduced upon heating, with accompanying film observations.

Su Chan Lee, Surajit Some, Sung Wook Kim et al.. “Efficient Direct Reduction of Graphene Oxide by Silicon Substrate”. Figure 1. DOI: 10.1038/srep12306. CC BY 4.0. Public original image copied byte-for-byte, with no resizing, cropping, annotations or re-encoding.

Source figure and caption ↗ · DOI: 10.1038/srep12306 ↗ · CC BY 4.0 ↗

Open challenges

Editorial question: how do residual oxygen, silicon-interface species and film uniformity govern electrical performance?

Comparison context

Match reduction extent, thickness, substrate treatment, sheet resistance and optical-transmittance measurement conditions.

Related external research

Corresponding-author verification

Jungmok Seo: not a corresponding author

This record concerns Jungmok Seo’s correspondence designation. Author order or an asterisk alone is not treated as confirmation; this check is separate from verification of the research content.

  • Correspondence evidence source ↗

    Surajit Some: xref ref-type="corresp" rid="c1"; Seong Chan Jun: xref ref-type="corresp" rid="c2"

    contrib-group xref[@ref-type="corresp"] and author-notes/corresp c1–c2 · Named publisher author/correspondence information or public published-PDF contact block read; selected body/figure scope is recorded separately.

Main-text review scope
Publisher/PMC article license and complete Figure 1 caption actually read; original Figure 1 visually inspected. Selected body context read; not a complete methods/supplement audit.
Supplementary review scope
Not read in this figure/correspondence pass; no complete SI audit claimed.
Pending verification
Check reduction evidence, electrical measurements and large-area uniformity in school Chrome. This pass verifies figure rights and correspondence roles. Selected-body/abstract review does not establish completion of full methods and supplementary-material review. The paper is not a verified Jungmok Seo correspondence paper and is outside this deepening priority.

COVERAGE & OUTREACH

Coverage and outreach

Links are checked for their relationship to this paper. Media publication does not establish independent reporting or additional experimental validation.

Channel coverage and search log for all 101 records →

Sources and verification scope

Crossref and Europe PMC/PubMed abstracts were read; detailed reaction/characterization sections remain unchecked.

  • Public publication baseline ↗ · #23 · 2026-10-03
  • Crossref metadata ↗: Only public bibliographic metadata registered with Crossref was checked. This does not mean that the publisher page, abstract, or full text was read; full-text verification in the school Chrome session remains pending. license_urls lists registered links and does not establish permission to redistribute text or figures. It may include TDM or posting-policy links.
  • Crossref — publisher-supplied abstract ↗
    publisher_registered_abstract_via_Crossref · message.abstract; actually read 2026-10-03; publisher full text not implied
  • Europe PMC — PubMed abstract record ↗
    public_abstract_via_Europe_PMC_API · resultList.result[0].abstractText; DOI matched; read 2026-10-03