Publications by authors named "Anjali Suresh"

Article Synopsis
  • Tangential flow interfacial self-assembly (TaFISA) is a scalable method for aligning carbon nanotubes, crucial for high-performance semiconductor electronics.
  • The study investigates how experimental factors like water contact angle, nanotube ink composition, and water subphase affect nanotube alignment during the assembly process.
  • Optimal deposition occurs at a water contact angle between 35-65°, revealing specific conditions for achieving well-aligned, individualized nanotube structures while minimizing defects.
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Purpose: To determine the postoperative en face OCT pattern of closure in idiopathic macular holes (MHs).

Design: Retrospective, multicentric, observational study.

Participants: Patients aged > 18 years with a diagnosis of idiopathic MH, with well documented en face OCT images.

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Semiconducting graphene nanoribbons are promising materials for nanoelectronics but are held back by synthesis challenges. Here we report that molecular-scale carbon seeds can be exploited to initiate the chemical vapor deposition (CVD) synthesis of graphene to generate one-dimensional graphene nanoribbons narrower than 5 nm when coupled with growth phenomena that selectively extend seeds along a single direction. This concept is demonstrated by subliming graphene-like polycyclic aromatic hydrocarbon molecules onto a Ge(001) catalyst surface and then anisotropically evolving size-controlled nanoribbons from the seeds along [Formula: see text] of Ge(001) via CH CVD.

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Selective deposition of semiconducting carbon nanotubes (s-CNTs) into densely packed, aligned arrays of individualized s-CNTs is necessary to realize their potential in semiconductor electronics. We report the combination of chemical contrast patterns, topography, and pre-alignment of s-CNTs shear to achieve selective-area deposition of aligned arrays of s-CNTs. Alternate stripes of surfaces favorable and unfavorable to s-CNT adsorption were patterned with widths varying from 2000 nm down to 100 nm.

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