# Nanoscience and Nanotechnology

Argonne maintains a wide-ranging science and technology portfolio that seeks to address complex challenges in interdisciplinary and innovative ways. Below is a list of all articles, highlights, profiles, projects, and organizations related specifically to nanoscience and nanotechnology.

## Filter Results

• ### Exploring defect dynamics in 2-D MoS2

In a recent study published in ACS Nano, researchers advanced the current understanding of defect structure/evolution and structural transitions in 2D TMDs, which is crucial for designing nanoscale devices with desired functionality.
• ### Revealing the intrinsic nature of quantum transitions in non-classical photon sources

In a study published in Nano Letters, researchers present an approach for disentangling the effects of dipole degeneracy and electric field renormalization on emission anisotropy.
• ### Silicon-friendly resistive switching memory with tin

In a study published in Nanoscale, researchers show that the variability seen in devices that operate by filament formation and dissolution is linked to differences in device starting local microstructure.
• ### Stress in the quantum world: Elastic distortions in GaAs quantum dots

In a study published in Nano Letters, researchers found that stress induced by metal electrodes directly impacts the ability to control positions of potential minima where quantum dots form and the coupling between neighboring quantum dots.
• ### A unique probe of thermal transport in perovskites

In a recent study published in Nature Communications, researchers at the Center for Nanoscale Materials shed light on the design of materials that exhibit highly anisotropic thermal dissipation properties.
• ### Tuning antimicrobial properties of biomimetic nanopatterned surfaces

In a study published in Nanoscale, Argonne researchers demonstrate, using a combination of microscopies, the mechanisms by which bacteria are killed, emphasizing the dependence upon pillar density and tip geometry.
• ### Scientists exceed detection limits with new spin on magnetic particles

In a recent study published in Nanoscale, researchers show that an irreversible transition between strongly non-collinear and single domain states translate into a nonlinear magnetic response that enables ultrasensitive detection.