Papers, preprints and press stories about 2D materials, collected automatically from 137 feeds and tagged by audience, material and topic. The tags come from keyword rules, so a few of them will be wrong.
Noninvasive wearable glucose sensors capable of real-time sweat analysis offer a less discomforting alternative for long-term monitoring in patients with diabetes. However, practical implementation remains challenging. Major barriers include insufficient catalytic sensitivity to quantify the low glucose levels in…
The intensifying global energy crisis and the steady advancement of the dual-carbon strategy have imposed increasingly stringent requirements on zero-energy temperature control technologies and renewable energy utilization systems across domains, such as building energy conservation, flexible electronics, and sensing.…
Quantum spin Hall insulators, also known as 2D topological insulators, are crucial 2D systems hosting topologically protected edge states. The working temperature of this topological quantum phase is dictated by the inverted bandgap. However, the previously identified large-gap 2D topological insulators are either…
Achieving stable integration of drug-releasing polymer coatings with load-bearing meniscus implants remains a challenge in biomaterials engineering. In this study, four surface modification strategies, femtosecond-pulsed laser treatment, oxygen plasma, polydopamine, and an ethyl-2-cyanoacrylate (ECA) interlayer, were…
Unlike conventional approaches where topological order is statically fixed, we demonstrate that biaxial strain can independently modulate topological order and functional responses in a Tc-adsorbed penta-hexa-silicene monolayer. Combining first-principles calculations and tight-binding models, we es… [Phys. Rev. B 114…
Graphene Manufacturing Group (GMG) has reported new cycling data for its fast-charging graphene aluminium-ion cells, which it is developing with Rio Tinto under a joint development agreement. The 1.5 Ah cells were built and tested by the Battery Innovation Center of Indiana (BIC) using materials GMG makes at its…
Quasiparticles arising from the interaction between mobile impurities and a quantum many-body environment—known as polarons—play a pivotal role in shaping the optical and electronic properties of low-dimensional systems. Here, we report the direct observation of electrically generated polaron-polaritons within a…
Direct integration of hexagonal boron nitride with temperature-sensitive substrates is constrained by the high global temperatures used in conventional growth. Here, we combine low-temperature deposition of an ammonia-borane-derived precursor on SiO2/Si (substrate temperature ≈ 70 °C) with spatially confined conversion…
Confined epitaxy has recently emerged as a novel methodology for controlled growth of high-quality monolayer two-dimensional (2D) materials. However, mechanistic understanding remains limited to analysing nucleus adsorption and diffusion barriers. Here, I discover that van der Waals (vdW) confinement not only affects…
Encapsulation of two-dimensional (2D) materials with hexagonal boron nitride (hBN) is widely used to fabricate ultraclean van der Waals (vdW) heterostructures for optoelectronic and quantum transport studies. These devices are often operated under strong out-of-plane displacement fields that tune the electronic…
Controlling the magnitude and polarity of spin-orbit torque (SOT) is essential for manipulating magnetization in spintronic devices. Here, we realize bulk spin-orbit torque (SOT) in a single-layer Mn1.6Co1.4Ga (MCG) Heusler alloy and achieve lattice strain-controlled reversal of SOT polarity. SOT-driven magnetization…
We propose that the path to realizing the full potential of two-dimensional (2D) electronics lies in understanding and mastering their energy band tail states (BTS). Unlike silicon, which benefits from sharp band edges (Urbach energy EU ~ 10 meV), today's monolayer 2D semiconductors have rough band edges (EU ~ 100 meV)…
Supermoire lattices in large-angle twisted bilayers have recently been shown to emerge from periodic arrangements of commensurate stacking motifs, yet the microscopic structural mechanism governing their formation has remained unresolved. Here, we uncover the microscopic origin of supermoire order as a hierarchical…
Altermagnetism, characterized by compensated collinear magnetic moments in real space and momentum-dependent spin splitting with even-parity symmetry, has recently emerged as a distinct form of magnetic order beyond the conventional ferro- and antiferromagnetic paradigms. However, realizing odd- and mixed-parity…
Recent scanning tunneling microscopy has directly imaged electronic crystals in rhombohedral hexalayer graphene, and magnetotransport measurements suggest that superconductivity and charge-density-wave order emerge from a common spin-valley-polarized ferromagnetic metal at nearby carrier densities. Motivated by these…
A long-term goal of quantum simulation is to faithfully reproduce the low-energy Hamiltonians of correlated quantum materials, establishing a direct connection between solid-state experiment, electronic-structure theory, and programmable many-body systems. Here, we introduce an integrated quantum-simulation…
Optical tweezer arrays trapping ultracold atoms and molecules are a versatile quantum science platform with broad impact in quantum simulation, quantum computation, and quantum metrology. The polarization dependence of anisotropic vector and tensor light shifts offers a degree of freedom for precise quantum state…
Increasing miniaturization of nanoscale devices makes determining the three-dimensional distribution of dopants increasingly important. In out-of-focus spectroscopic scanning transmission electron microscopy images, we show that dopant atoms appear as disks with radii relating to dopant depth, allowing the…
The rapid expansion of the pharmaceutical and fine chemical industries has escalated the discharge of high-salinity organic wastewater, which contains complex solutes and biotoxic antibiotics that are difficult to treat conventionally due to their high osmotic pressure and environmental persistence. Here, we developed…
Researchers at the University of Manchester, the Institute of Microelectronics of Barcelona (IMB-CNM, CSIC), the Catalan Institute of Nanoscience and Nanotechnology (ICN2) and Multi Channel Systems (Germany) have used graphene micro-transistor arrays to map how brain tissue is faring during an ischemic stroke. The…
A portable electrochemical sensor based on laser-induced graphene (LIG) electrodes modified with graphene/PEDOT:PSS [Poly(3,4-ethylenedioxythiophene) polystyrene sulfonate] hybrid ink is developed for the trace-level detection of picric acid in water. The structural and compositional characterization of the LIG is…
Flexible piezoresistive sensors for protective textiles should maintain pressure-responsive conductivity after thermal exposure, whereas many polymer-based sensing layers soften, degrade, or lose signal output under heat. Herein, we report a self-supporting PAN/PI-derived carbon nanofibrous membrane with MXene-assisted…
All-optical tuning of van der Waals (vdW) heterostructures with coherent radiation offers a powerful strategy for manipulating interfacial electronic properties on femtosecond time scales. Using real-time time-dependent density functional theory, we predict a transient out-of-plane polarization in MoS2/WSe2…
Establishing the microscopic origin of localized emission in two-dimensional materials through consistent agreement between experiment and theory remains challenging. Recent STM/STS-STML measurements assigned an emission near 1.8 eV in monolayer MoS2/hBN(2L)/graphene to the negatively charged CHS− defect. However, a…
Optoelectronic synaptic devices based on 2D van der Waals (vdW) materials are very promising for next-generation, energy-efficient data processing and sensing; however, flake-based fabrication limits their practical application. Here, scalable inductively coupled plasma-sulfurized nanocrystalline MoS2 (nc-MoS2) and…
Precise nanosheet organization across length scales remains a challenge in translating the intrinsic properties of two‐dimensional (2D) materials into macroscopic porous architectures. Extending in‐plane nanosheet order to long‐range, three‐dimensional (3D) frameworks without structural collapse has been elusive. Here…
Owing to their atomically clean interfaces and extreme thinness, two-dimensional (2D) materials are ideal hosts for strong proximity effects, whereby contact with an adjacent material reshapes their ground state. Here, we demonstrate such an effect within a hybrid heterostructure, between the 2D antiferromagnet FePS3…
Traditional externally mounted antennas severely constrain the mission reliability and endurance performance of tethered airships due to increased aerodynamic drag, induced structural fatigue, and insufficient environmental resilience. In this work,...
Achieving and quantifying ultrastrong magnon-magnon coupling (USC) remains a key challenge for quantum magnonics. Here, we demonstrate widely tunable USC between chiral (right- and left-handed) and acoustic or optical magnon modes in the van der Waals antiferromagnet CrPS4. Using a full quantum model, we decompose the…
This work presents a novel strategy for synthesizing vanadium-oxide-based cathode materials for zinc-ion batteries. The synthesis begins with the preparation of a vanadium–graphene hydrogel via hydrothermal reduction of a graphene...
Orbital angular momentum (OAM) characterization is central to understanding quantum materials such as valley Hall and Rashba systems and, through its connection to Berry curvature, provides key insight into band topology. Conventional OAM detection via photoemission dichroism, however, is susceptible to interference…
Controllable synthesis of two-dimensional (2D) platinum (Pt)-based nanomaterials with high photothermal conversion property for near-infrared (NIR) photothermal tumor therapy (PTT) is highly desired yet challenging. Herein, we report iodide (I–)-engineered Pt-antimony nanosheets (PtSbI NSs) with an ultrathin…
The interlamellar space in van der Waals materials has served as a test bed for studies of strongly confined fluid and ion transport. Despite theoretical and experimental progress, it remains unclear how electrostatic correlations arising from interactions between the confined, hydrated ions and the… [Phys. Rev.…
The layer Hall effect is usually revealed by applying out-of-plane electric fields and electrostatic gating in fully compensated A-type antiferromagnetic layered systems. Here, we theoretically demonstrate that the bilayer system of noncompensated A-type antiferromagnetic ${\mathrm{MnBi}}_{2}{\mathr… [Phys. Rev. B 114…
Intercalation at the graphene/SiC interface provides a controlled route to stabilize atomically thin layers with properties distinct from their bulk counterparts. In this platform, the structure and stability of the intercalated phase depend sensitively on the defect landscape of the starting substr… [Phys. Rev. B 114…
We present a systematic study of the effects of chlorine substitution on the magneto-optical properties of the van der Waals layered semiconductor CrSBr. Our study shows that even at substitution level of x=56% the CrSBr1−xClx material exhibits qualitatively the same clear magneto-optical coupling that was observed in…
Every item comes from a public feed: 40 journal feeds, 78 arXiv categories and searches, and 19 science-news outlets. A keyword filter keeps the items that look like they are about 2D materials; in the last run 1,234 of the 3,963 entries it read passed. Several feeds carry the same paper, so after merging duplicates 1,784 items are listed here.
Audience, material and topic tags are assigned automatically from keyword rules, weighted by what each feed usually publishes. They are right most of the time and wrong some of the time, so use them to narrow the list rather than as a verdict.
Preprints come from arXiv and have not been peer reviewed. Summaries are the publisher’s or the authors’ own text, shortened; this site does not write or check them. Every title links to the original.
Publisher feeds only show their newest entries, so items are kept from earlier runs for 540 days. Last updated 10 October 2026.
Not covered
Some publishers cannot be read automatically, so their papers are missing here even when they are about 2D materials: