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| Open AccessUnderstanding the origin of lithium dendrite branching in Li6.5La3Zr1.5Ta0.5O12 solid-state electrolyte via microscopy measurements
Lithium dendrite growth in solid-state electrolytes is a significant challenge for next-generation battery development. Here, authors used dark-field X-ray microscopy to investigate dislocations near dendrite tips, suggesting that stress-induced dislocation may influence dendrite branching and material fracture.
- Can Yildirim
- , Florian Flatscher
- & Daniel Rettenwander
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Article
| Open AccessComputing high-degree polynomial gradients in memory
Current specialized function gradient computing hardware is not scalable to common higher-order functions. This work reports an approach for massively parallel gradient calculations of high-degree polynomials. Solving a Boolean satisfiability problem was experimentally implemented on an in-memory computing circuit.
- Tinish Bhattacharya
- , George H. Hutchinson
- & Dmitri B. Strukov
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Review Article
| Open AccessTransvascular transport of nanocarriers for tumor delivery
Nanocarriers (NCs) are crucial in delivering therapeutic agents to tumors, and transvascular transport is a critical pathway for the tumor delivery of NCs. Here the authors summary strategies enhancing transvascular transport of NCs for efficient tumor delivery, and propose a delivery framework to guide the design of next-generation carriers and implementation strategies for optimized delivery.
- Xin Li
- , Yong Hu
- & Andrij Pich
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Article
| Open Accessin situ observation of reversible phase transitions in Gd-doped ceria driven by electron beam irradiation
Ceria-based oxides are used in diverse energy-related applications, with functionalities arising from a defective structure due to the formation of mobile oxygen vacancies. Here authors reveal sub-Ångström details of oxygen dynamics during the reversible phase transition of Gd-doped ceria (CGO).
- Ke Ran
- , Fanlin Zeng
- & Joachim Mayer
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Article
| Open AccessAtomic vacancies of molybdenum disulfide nanoparticles stimulate mitochondrial biogenesis
Mitochondrial dysfunction is linked to various rare genetic disorders and common age-related diseases, but few compounds can stimulate mitochondrial activity. Here, the authors address this issue by developing atomic vacancy-rich molybdenum disulfide nanoparticles that can catalyze intracellular reactive oxygen species to enhance mitochondrial biogenesis and cellular respiration.
- Kanwar Abhay Singh
- , John Soukar
- & Akhilesh K. Gaharwar
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Article
| Open AccessNanoporous amorphous carbon nanopillars with lightweight, ultrahigh strength, large fracture strain, and high damping capability
Simultaneous achievement of lightweight and high strength is challenging. Here, authors combine self-assembly of nanoscale block copolymer and carbonization to create nanoporous amorphous carbon materials, which have the density of elastomers or plastic but the strength of metals or alloys.
- Zhongyuan Li
- , Ayush Bhardwaj
- & Seok-Woo Lee
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Article
| Open AccessGesture recognition with Brownian reservoir computing using geometrically confined skyrmion dynamics
Physical reservoir computing allows real-time low power information processing. Here, the authors report reservoir computing with magnetic skyrmions able to detect millisecond time-scale hand gestures, matching software neural networks’ performance.
- Grischa Beneke
- , Thomas Brian Winkler
- & Mathias Kläui
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Article
| Open AccessLattice expansion in ruthenium nanozymes improves catalytic activity and electro-responsiveness for boosting cancer therapy
Nanozymes are promising for cancer therapy, but it is challenging to enhance the catalytic activity of nanozymes in the tumor microenvironment. Here, the authors report that modulating lattice spacing of ruthenium-based nanozymes improves their catalytic activity and electro-responsiveness to self-powered electric field, optimizing cancer therapeutic outcome.
- Songjing Zhong
- , Zeyu Zhang
- & Linlin Li
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Article
| Open AccessBiodegradable copper-iodide clusters modulate mitochondrial function and suppress tumor growth under ultralow-dose X-ray irradiation
Efficient delivery of copper and iodine ions into tumor cells is promising for boosting the antitumor effect but elusive. Here the authors report a mitochondrial-targeted copper-iodide nanoparticles for the cancer treatment in which copper and iodide ions induce cell death by modulating mitochondrial functions under low-dose Xray irradiation.
- Xiaoqian Ma
- , Nuo Lin
- & Hongmin Chen
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Article
| Open AccessHighly efficient CRISPR-mediated genome editing through microfluidic droplet cell mechanoporation
Current approaches for the delivery of CRISPR systems into cells can be hampered by several limitations, including low delivery potential and inefficient genome editing. Here, the authors present Droplet Cell Pincher (DCP), a gene delivery system that combines droplet microfluidics with cell mechanoporation, which attains efficient genome engineering.
- You-Jeong Kim
- , Dayoung Yun
- & Aram J. Chung
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Article
| Open AccessCompression-sensitive smart windows: inclined pores for dynamic transparency changes
Strain-responsive smart windows represent a green technology for transparency control but demand large space to activate. Here, a new material structure activated by compression is proposed, yielding strong optical regulation with minute deformation
- Haomin Chen
- , Gunho Chang
- & Seokwoo Jeon
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Article
| Open AccessProximity induced charge density wave in a graphene/1T-TaS2 heterostructure
Electronic proximity effects between neighbouring nanoscale materials are an important theme in condensed matter physics. Here, the authors experimentally demonstrate a proximity induced charge density wave in graphene due to the nearby presence of 1T-TaS2.
- Nikhil Tilak
- , Michael Altvater
- & Eva Y. Andrei
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Article
| Open AccessBiodegradable oxygen-evolving metalloantibiotics for spatiotemporal sono-metalloimmunotherapy against orthopaedic biofilm infections
Bacterial-host competition for micronutrients and inefficient immune responses undermine antimicrobial immunotherapy. Su et al. design an immunostimulatory metalloantibiotic and explore potential sono-metalloimmunotherapy (SMIT) for the treatment of clinical orthopaedic infections, in a murine model.
- Zheng Su
- , Dongdong Xu
- & Chen Zhu
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Article
| Open AccessInterferometric excitation fluorescence lifetime imaging microscopy
The authors introduce an extension of the popular fluorescence lifetime imaging microscopy (FLIM) named ixFLIM. By correlating the excitation spectrum with emission lifetime, ixFLIM can distinguish the fluorescent species in each pixel of the microscope image.
- Pavel Malý
- , Dita Strachotová
- & Petr Heřman
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Article
| Open AccessPlug-and-play protein biosensors using aptamer-regulated in vitro transcription
Biosensors that accurately detect proteins are critical for biological applications, but modular transduction of binding into useful outputs is a challenge. Here, authors develop a modular platform using aptamer-regulated transcription to detect proteins and process RNA outputs via molecular circuits.
- Heonjoon Lee
- , Tian Xie
- & Rebecca Schulman
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Article
| Open AccessCylindrical compression of thin wires by irradiation with a Joule-class short-pulse laser
Hard X-ray free electron lasers allow new insights into dense matter dynamics. Here, the authors show that a single-beam, short-pulse laser can generate a converging cylindrical shock in a thin wire, providing a new method for high energy density research with improved repetition rates.
- Alejandro Laso Garcia
- , Long Yang
- & Toma Toncian
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Article
| Open AccessChemiosmotic nutrient transport in synthetic cells powered by electrogenic antiport coupled to decarboxylation
Replicating natural processes in synthetic cells is key to further development and understanding. Here, the authors develop a synthetic reaction network for the generation of metabolic energy in the form of proton motive force, used to drive the accumulation of nutrients and enable internal metabolism in cell-like vesicles.
- Miyer F. Patiño-Ruiz
- , Zaid Ramdhan Anshari
- & Bert Poolman
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Article
| Open AccessCoherent spin dynamics between electron and nucleus within a single atom
Advancing single-atom quantum information processing necessitates a deep understanding of electron and nuclear spin dynamics. Here, using pump-probe spectroscopy, the authors detect the coherent dynamics of a nuclear and electron spin of a single hydrogenated Ti atom on MgO surface.
- Lukas M. Veldman
- , Evert W. Stolte
- & Sander Otte
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Article
| Open AccessVideo frame interpolation neural network for 3D tomography across different length scales
This paper demonstrates that an algorithm designed for video augmentation can be efficiently used for 3D tomography reconstruction across the materials science and medical domain, namely across disciplines and length-scales.
- Laura Gambini
- , Cian Gabbett
- & Stefano Sanvito
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Article
| Open AccessCouple-close construction of non-classical boron cluster-phosphonium conjugates
2D π-conjugated systems incorporated with heteroatoms can suffer from stability issues and aggregation-induced quenching effects. Here, the authors develop a methodology for the synthesis of cluster-ring-fused 3D aromatic heterocycles, which could find use in functional materials, via the palladium-catalyzed B–H activation of boron clusters.
- Zhaofeng Sun
- , Jibo Zong
- & Hong Yan
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Article
| Open AccessImplementing reactivity in molecular dynamics simulations with harmonic force fields
Molecular dynamics is a common tool to study microscopic physicochemical systems, however, it is limited by the inhability to form and break chemical bonds. Here the authors present a method to modify traditional force-fields implementing bond dissociation and bond forming.
- Jordan J. Winetrout
- , Krishan Kanhaiya
- & Hendrik Heinz
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Article
| Open AccessIn situ generation of (sub) nanometer pores in MoS2 membranes for ion-selective transport
Atomically thin materials can form ionic sieves, in which certain species pass through the films, and others are prevented. Here, the authors synthesize nanoporous membranes using chemical vapor deposition and electrochemistry and reveal the mechanism behind the large ion selectivity they observe.
- Eli Hoenig
- , Yu Han
- & Chong Liu
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Article
| Open AccessSynthetic vectors for activating the driving axis of ferroptosis
Inducers of ferroptosis hold potential for cancer therapy. Here, the authors identify a peroxide-decorated liposome capable of inducing ferroptosis and enhancing the efficacy of chemotherapeutic agents and radiotherapy.
- Jun Jiang
- , Lili Yang
- & Ruibin Li
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Article
| Open AccessControlled mechanochemical coupling of anti-junctions in DNA origami arrays
Allostery is a hallmark of cellular function and important in every biological system, but difficult to artificially mimic. Here, the authors report an approach to study aspects of allostery in artificial systems, using a DNA origami domino array structure which, upon binding of trigger DNA strands, undergoes a stepwise allosteric conformational change that can be monitored by a double FRET probe.
- Fiona Cole
- , Martina Pfeiffer
- & Philip Tinnefeld
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Article
| Open AccessEffect of ion-specific water structures at metal surfaces on hydrogen production
Water structures at the electrolyte and electrode interfaces are crucial for electrochemical reactions. Here, the authors report that alkali metal cations can modify two-dimensional water networks at charged surfaces, impacting both reaction kinetics and efficiency.
- Ye Tian
- , Botao Huang
- & Ying Jiang
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Article
| Open AccessSupported Au single atoms and nanoparticles on MoS2 for highly selective CO2-to-CH3COOH photoreduction
Reducing CO2 to CH3COOH using visible and near-infrared light is challenging. Here, Wu and Zhang et al. incorporate Au nanoparticles and single atoms into Mo-edge-rich MoS2 to provide a pathway to overcome limitations and boost productivity.
- Cai Chen
- , Chunyin Ye
- & Yuen Wu
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Article
| Open AccessMXene-based kirigami designs: showcasing reconfigurable frequency selectivity in microwave regime
Modern communication applications may demand devices with tunable performances and simple fabrications. Here, we show strain dependent, adjustable RF/microwave performance by applying patterns of conductive Ti3C2Tx MXene coatings on low-cost acetate substrates in a straightforward coating process.
- Omid Niksan
- , Lingyi Bi
- & Mohammad H. Zarifi
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Article
| Open AccessCavity Floquet engineering
The authors demonstrate enhancement by nearly two-orders of magnitude of the optical Stark effect in WSe2 embedded into a Fabry Perot cavity, and use this mechanism to obtain an effective magnetic field of over 200 T and implement a XOR switch.
- Lingxiao Zhou
- , Bin Liu
- & Hui Deng
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Article
| Open AccessTbps wide-field parallel optical wireless communications based on a metasurface beam splitter
In this work, the authors present a metasurface-based wide-angle beam splitter designed for future applications in optical wireless communication. By leveraging the metasurface polarization multiplexing and wavelength division multiplexing properties, they achieved a high-performance optical wireless communication system, possessing a Tbps communication rate, more than 120° coverage range, and up to 144 users parallel communication capabilities.
- Yue Wu
- , Ji Chen
- & Tao Li
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Article
| Open AccessControlling light emission from semiconductor nanoplatelets using surface chemistry
Semiconductor nanoplatelets emit light in narrow spectral ranges. Here, the authors establish a theoretical model showing this behavior is controlled by the inhomogeneities of the ligand layer on the nanoplatelet surface.
- Michael W. Swift
- , Alexander L. Efros
- & Steven C. Erwin
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Article
| Open AccessConfined antiskyrmion motion driven by electric current excitations
Antiskyrmions, like skyrmions, are a form of topological spin texture, with a topological charge of opposite sign to the equivalent skyrmion with the same polarity. While antiskyrmions have been less explored, they offer some potential advantages for applications, and here, Guang et al demonstrate antiskyrmion motion within stripe domains.
- Yao Guang
- , Xichao Zhang
- & Xiuzhen Yu
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Article
| Open AccessSingle-molecule digital sizing of proteins in solution
Physical characterisation of proteins is challenging. Here the authors report single-molecule microfluidic diffusional sizing (smMDS) to enable calibration-free single-molecule diffusional-sizing based monitoring of protein hydrodynamic radii even within heterogenous multicomponent mixtures.
- Georg Krainer
- , Raphael P. B. Jacquat
- & Tuomas P. J. Knowles
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Article
| Open AccessNanopore ion sources deliver individual ions of amino acids and peptides directly into high vacuum
Electrospray ionization loses most ions upon transfer into high vacuum in a mass spectrometer. Here, the authors present a nanopore ion source that emits ions directly into vacuum from aqueous solutions, achieving an ion transmission efficiency of over 90%.
- Nicholas Drachman
- , Mathilde Lepoitevin
- & Derek Stein
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Article
| Open AccessNanotube spin defects for omnidirectional magnetic field sensing
Optically addressable spin defects, such as the NV centre in diamond, have enabled the nanoscale measurement of external stimuli. Here, Gao, Vaidya and coauthors observe a single spin colour centres in boron nitride nanotubes, which, due to their spin S = 1/2 ground state, allow for omnidirectional magnetic field sensing. ’
- Xingyu Gao
- , Sumukh Vaidya
- & Tongcang Li
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Article
| Open AccessDirectional self-assembly of organic vertically superposed nanowires
Organic crystal-based superimposed heterostructures demonstrate potential for manipulating excitons/photons at the micro- or nanoscale for integrated optoelectronics but the precise construction of organic these heterostructures with fixed superimposed sites remains challenging. Here, the authors construct vertically superimposed organic heterostructures with fixed superimposed positions which possess preferential nucleation sites for molecular epitaxial growth processes.
- Ying-Xin Ma
- & Xue-Dong Wang
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Article
| Open AccessOn-surface synthesis and characterization of anti-aromatic cyclo[12]carbon and cyclo[20]carbon
Cyclo[n]carbons have attracted significant attention owing to their geometric and electronic structures remaining largely unexplored in the condensed phase. Here, the authors extend the on-surface retro-Bergman ring-opening reaction and successfully produce two anti-aromatic cyclocarbons C12 and C20.
- Luye Sun
- , Wei Zheng
- & Wei Xu
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Article
| Open AccessLarge-scale sub-5-nm vertical transistors by van der Waals integration
Vertical field-effect transistors (VFETs) have potential for the realization of ultra-scaled devices, but their fabrication is usually limited by trade-offs between scalability and channel length. Here, the authors report a large-scale transfer method to realize indium gallium zinc oxide/graphene VFETs with van der Waals metallic contacts and reduced channel length.
- Xiaokun Yang
- , Rui He
- & Yuan Liu
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Article
| Open AccessA singlet-triplet hole-spin qubit in MOS silicon
Hole-spin qubits based on semiconductor quantum dots offer potential advantages over their electron-spin counterparts, such as fast qubit control and enhanced coherence times. Liles et al. report a hole-based singlet-triplet spin qubit in planar Si MOS device and develop a model to describe its dynamics.
- S. D. Liles
- , D. J. Halverson
- & A. R. Hamilton
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Article
| Open AccessOptoelectronic synapses with chemical-electric behaviors in gallium nitride semiconductors for biorealistic neuromorphic functionality
Integrating chemical-electric behaviors into optoelectronic synapses holds promise for several applications. Here, the authors report a photoelectrochemical synapse with dual-modal plasticity and chemically-regulated neuromorphic functions.
- Xin Liu
- , Danhao Wang
- & Haiding Sun
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Article
| Open AccessThree-dimensional atomic insights into the metal-oxide interface in Zr-ZrO2 nanoparticles
A detailed understanding of metal-oxide interfaces is essential for uncovering their intrinsic properties. Here, the authors investigate the 3D atomic structure of metal-oxide interfaces in Zr-ZrO2 nanoparticles using atomic-resolution electron tomography.
- Yao Zhang
- , Zezhou Li
- & Jihan Zhou
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Article
| Open AccessRoom temperature polariton spin switches based on Van der Waals superlattices
Exciton-polaritons result from the strong coupling of excitons and photons, exhibiting strong nonlinearity. Here, Zhao et al demonstrate room-temperature optical polariton spin-switching in a tungsten disulfide superlattice.
- Jiaxin Zhao
- , Antonio Fieramosca
- & Timothy C. H. Liew
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Article
| Open AccessAll-magnonic repeater based on bistability
A repeater takes an input signal and retransmits is, and a vital component for extending the range of signals. Here, Wang et al. demonstrate a magnon repeater, based on the bistable switching between low and high amplitude spin-waves.
- Qi Wang
- , Roman Verba
- & Andrii V. Chumak
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Article
| Open AccessExcitonic signatures of ferroelectric order in parallel-stacked MoS2
In parallel-stacked materials, ferroelectric order is switched by layer sliding. In 3R-MoS2, excitons react to ferroelectricity via stacking-specific hybridization. Authors show field effect control of ferroelectricity and its effect on spin dynamics.
- Swarup Deb
- , Johannes Krause
- & Tobias Korn
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Article
| Open AccessSingle-molecule force spectroscopy of toehold-mediated strand displacement
This study uses single molecule mechanical experiments and computer simulations to measure the speed by which an invading DNA or RNA strand displaces a bound strand from a double helix.
- Andreas Walbrun
- , Tianhe Wang
- & Matthias Rief
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Article
| Open AccessSelf-immolative poly(thiocarbamate) with localized H2S signal amplification for precise cancer imaging and therapy
Hydrogen sulfide is essential in many biological processes and a promising cancer imaging and signalling molecule and therapeutic agent, but the potential applications are hindered by its low endogenous levels. Here, the authors develop a nanoplatform based on H2S-responsive self-immolative poly(thiocarbamate) with localized H2S signal amplification capability and use the nanoplatform to encapsulate an H2S-responsive fluorescent probe or an anticancer prodrug.
- Qingyu Zong
- , Jun Li
- & Youyong Yuan
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Article
| Open AccessAI-powered omics-based drug pair discovery for pyroptosis therapy targeting triple-negative breast cancer
Cancer-targeted drug discovery can be achieved by transcriptomics screening on patients. Here this group reports a drug target screening model built upon triple-negative breast cancer (TNBC) cohort and drug database with the selected drug pair exhibiting effective pyroptosis induction and TNBC tumor growth inhibition.
- Boshu Ouyang
- , Caihua Shan
- & Zhiqing Pang
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Article
| Open AccessQuasi-equilibrium growth of inch-scale single-crystal monolayer α-In2Se3 on fluor-phlogopite
The controlled growth of large-area single-crystalline 2D semiconductors remains a significant challenge for their electronic applications. Here, the authors report a quasi-equilibrium growth method to synthesize inch-scale monolayer α-In2Se3 with high mobility and ferroelectric field-effect transistor performance.
- Kunpeng Si
- , Yifan Zhao
- & Yongji Gong
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Article
| Open AccessA singular plasmonic-thermoelectric hollow nanostructure inducing apoptosis and cuproptosis for catalytic cancer therapy
Thermoelectric catalytic therapy is an emerging therapeutic approach but faces the issue of limited temperature variations in living organisms. Here the authors address this issue by developing urchin-like Cu2−xSe hollow nanospheres that display a cascade of plasmonic photothermal and thermoelectric conversion processes for plasmonic-thermoelectric catalytic cancer therapy.
- Lu Yang
- , Zhiyu Zhao
- & Jun Lin
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Article
| Open AccessOptimising CNT-FET biosensor design through modelling of biomolecular electrostatic gating and its application to β-lactamase detection
Functionalised carbon nanotube field-effect transistors have great potential in biosensing, but optimising the attachment of receptor proteins can be challenging. Here the authors use computational modelling to help predict how attached proteins affect electrical conductance in a nano-carbon biosensor.
- Rebecca E. A. Gwyther
- , Sébastien Côté
- & D. Dafydd Jones