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显微镜

材料型原子力显微镜

帮助科学家发现、研究和理解材料科学领域的前沿课题

高分辨率原子力显微镜，适用于极具挑战性的研究

随着原子力显微镜成为尖端材料研究的主要技术进入其第四个十年，使用其高分辨率数据不断推动研究发现，所涵盖的学科和应用领域数不胜数。自20世纪80年代引入首个商用系统以来，布鲁克一直在不断扩展AFM功能。随着技术的成熟，AFM使科学家有机会表征更为复杂的样品的特性，而不仅仅局限于形貌特征。我们对帮助您更轻松地开展更多研究的承诺，是确保布鲁克AFM始终处于仪器创新的最前沿的推动力。例如，布鲁克AFM独家提供PeakForce Tapping®技术，正在以每天发表三篇经过同行评审的文章的速度帮助研究人员推进新的纳米力学、纳米电学和纳米电化学研究。

Our Technology

Industry-Leading AFMs Built with Cutting-Edge Technology

Introduction to Atomic Force Microscopy

Learn how atomic force microscopes work, what they can be used for, and how AFM compares to other materials characterization technologies.
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Atomic Force Microscopy for Materials

Download our in-depth introductory guide to atomic force microscopy and its materials characterization capabilities.
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How to Choose an AFM

See our recommendations for common atomic force microscope applications and measurement needs.
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产品

查找适合您应用的最佳AFM

Large-Sample AFM Systems

尺寸 XR SPM

Dimension XR 原子力显微镜

全套AFM系统，为先进材料研究提供独特的、首创的模式和能力。
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尺寸快速扫描 AFM

Dimension FastScan 原子力显微镜

最早的——至今依然是性能最好的——大样品、快速扫描的原子力显微镜，在不牺牲分辨率的情况下提高速度和产能。
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Dimension Icon 原子力显微镜产品图像

Dimension Icon 原子力显微镜

大样品原子力显微镜为科学和工业界的纳米科技研究人员带来最高水平的性能、功能和易操作性。
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Dimension Edge AFM

Dimension Edge 原子力显微镜

最优的大样品AFM，在同类产品中具有最高性能。
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Small-Sample AFM Systems

MultiMode 8-HR AFM

MultiMode 8-HR 原子力显微镜

高标准的研究型AFM，具有最高的分辨率和可扩展的多功能性。
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Innova AFM

Innova 原子力显微镜

最优的研究型原子力显微镜，提供常规的高分辨率成像以及灵活性。
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Specialty AFM Systems

Dimension IconIR

The leading-edge photothermal IR spectroscopy platform for advanced nanoscale, sub-micron, and macro scale applications
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Innova-IRIS AFM

Innova-IRIS 原子力-拉曼显微镜联用系统

第一也是唯一一个完整的尖端增强拉曼光谱（TERS）解决方案。
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NanoWizard NanoOptics AFM

Nanowizard NanoOptics 原子力显微镜

为与光学技术无缝集成而优化的AFM实现了广泛的纳米级光学成像应用。
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NanoWizard V NanoScience AFM

NanoWizard V NanoScience

领先的生物型AFM在单个平台上解决材料和生命科学的应用问题。
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AFM Probes

布鲁克 AFM 探头

布鲁克 AFM 探针

在同类产品中具有最高水平的AFM性能、功能和易操作性，使不同的用户都能得到专家级的结果。
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Bruker's NanoScope 6 Controller

2023 AFM Probes 小册子 [PDF]

了解更多关于该产品的关键特性、测量能力和技术规格。
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AFM 模式

用AFM拓展您的应用

With an unrivalled — and still growing — suite of available imaging modes, Bruker has an AFM technique for every investigation.

Bruker AFM modes allow researchers to probe their samples’ electrical, magnetic, or materials properties at the nanoscale with unmatched confidence. Bruker’s proprietary PeakForce Tapping technology represents a new core imaging paradigm that provides unprescedented high-resolution imaging, extends AFM measurements into a range of samples not previously accessed, and uniquely enables simultaneous nanoscale property mapping.

This and our other AFM mode advances — such as DataCube, Ringing, ss-PFM, and our new Torsional Resonance Dynamic Friction Microscopy (TR-DFM) modes — are enhancing other correlative and quantitative mapping techniques to enable the development of new modes and deliver new possibilities in an ever-expanding set of topograhical, mechanical, electrical, and chemical applications.

See All AFM Modes
应用

研究特性和纳米尺度表面结构

石墨烯研究

石墨烯和二维材料

利用非破坏性的原子力显微镜技术对石墨烯和其它二维材料进行形貌和性能成像。
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AFM 电池研究

电池材料

最高分辨率的材料表征和原位分析，解决先进电池研究中的关键挑战。
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聚合物

对聚合物表面进行非破坏性的原位AFM成像，以了解粘附性、润湿性、磨损、降解、相分布等。
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应用程序库

在闭环轻敲模式下获得的高分辨间规聚丙烯形貌，扫描范围5 μm。 阅读更多
间规聚丙烯结晶动力学研究。聚合物从室温（左）快速加热至在160°C达到完全熔化状态。在128 °C下进行等温结晶，获得了片状晶体，如右图所示，在结晶101分钟后，AFM图像揭示了部分结晶的聚丙烯。
高定向裂解石墨表面的C36H74 烷自组装结构。片状聚集体中4.5 nm的周期结构清晰可见，改尺寸与完全伸展的C36H74 链长一致。
使用TR-TUNA模式能同时采集含有金图案的硅片上松散结合的单壁碳纳米管的形貌和导电性分布，成像范围为1 μm。
使用PeakForce QNM （PFQNM） 模式在液体中获得的方解石晶格真原子像，晶格缺陷清晰可见。数据由贝德·皮滕格博士提高。
使用轻敲模式获得的高定向裂解石墨表面甲醇聚集体的高分辨图像。三幅图像清晰显示了间距为 5 nm 的人字纹结构，其中间距为0.5 nm的精细周期结构也清晰可见。扫描范围为250 nm，高度方向标尺为1 nm。数据由贝德·皮滕格博士提供。
使用峰值力轻敲模式获得的铝硅酸盐玻璃图像，代表了工业样品在空气中成像的最高分辨率。保持尖的针尖是获得高分辨的关键。针尖重构结构表明成像后针尖半径仍为1 nm，说明在这个极具挑战的坚硬表面上成像并未磨损针尖。成像范围为 5 um，5000x5000 像素。峰值力设定值为 600pN，使用的是FastScan B 探针。数据由胡水清博士提供。
使用PeakForce TUNA模块采集的高定向裂解石墨表面的电流分布图，清晰显示了石墨的原子晶格相，周期为0.25 nm。过去要获得如此高分辨的结果只能使用扫描隧道显微镜。所用探针为PF-TUNA，电流色标为60 pA，高度标尺为0.5 nm。图片由哈特穆特·斯塔德勒博士提供。
DCUBE-PFM 测量清楚地显示 BiFeO3 薄膜上每个铁电畴结构在不同电压下的翻转。
使用 Dimension XR纳米力学系统获得的粘附力分布揭示了亚分子尺度下的聚甲基丙烯酸甲酯高分子链结构 。
聚苯乙烯-聚甲基丙烯酸甲酯混合物样品的损耗模量分布图的三维呈现。蓝色区域模量更高，红色区域模量更低，分别对应于聚苯乙烯基质和聚甲基丙烯酸甲酯嵌入物。损耗模量分布图使用布鲁克专利的快速力阵列模式采集，扫描范围为5微米，分辨率为256 × 256，振动频率约为590 kHz。
使用PeakForce QNM 模式采集的在六方氮化硼上的石墨烯模量分布图像，揭示了与高度局部应变缓解对齐后向相应晶格的过渡。参考Nature Physics 10, 451-456(2014)。
聚甲基丙烯酸甲酯（青色）基质中的间规聚丙烯（紫罗兰色）区域。三维形貌图中的色标表示模量，能清晰地揭示出间规聚丙烯在基质中的渗透。图像尺寸为 8 μm。
垂直站立碳纳米管的电流分布成像。只有使用PeakForce TUNA模式才可能获得该样品的导电性分布。
使用高速峰值力轻敲模式获得的刷形高分子链结构。扫描范围为1 μm，扫描速率为5 Hz。样本由教堂山北卡罗来纳大学S. Sheiko.
聚（3-己基噻吩）（P3HT）有机导电纳米线的导电性分布图。使用PeakForce TUNA模块在3 V偏压下测的。扫描范围为3 μm，电流标尺为80 pA。
使用高速峰值力轻敲模式获得的间规聚丙烯（sPP）聚环氧乙烷（PEO）共混物的高分辨形貌。扫描范围为3 μm，扫描速率为5 Hz。
此模量图显示了包装材料截面上的超低密度聚乙烯与聚苯乙烯/低密度聚乙烯密封胶之间的过渡层精细结构。高分辨模量图说明粘结层中的片晶结构作为成核位点向密封胶中生长，界面中的片晶尺度为1 μm 。扫描范围为 3 μm。
使用PeakForce TUNA模块获得的垂直碳纳米管层的形貌（A）和电流分布（B）图。该结果使用传统的接触模式无法获得。扫描范围为1 μm。
在MultiMode 8原子力显微镜上使用峰值力轻敲模式获得的云母形貌和粘附力原子相。扫描范围为15 nm。
使用PeakForce QNM模式获得的聚二乙基硅氧烷 （PDES）模量分布图。扫描范围为 3 μm ，模量标尺为 1.5 到 15 MPa。
闭环测试的狭缝结构形貌，清晰显示了双大马士革沟槽内的接触空洞结构。使用布鲁克独有的聚焦离子束刻蚀探针无损地在Dimension Icon系统下获得此极具挑战性的样品形貌。
使用Dark Lift扫描电容显微镜对静态随机存取存储器样品进行精密的二维掺杂区域表征。扫描范围为15 μm。
液相下云母表面的单个DNA折纸三角形自组装体，各连接点上的精细结构清晰可见。扫描范围为250 nm，在 闭环下获得。样品由加州理工学院的 P. 罗瑟蒙德提供。
硅基动态随机存取存储器单元的扫描电容显微镜成像结果。dC/dV分布图显示了存储器内部的掺杂子二维分布，揭示了存储器内部的失效位点和包括栅极长度在内关键参数。使用Dark Lift技术能确保掺杂浓度分布的精确性。扫描范围为25 μm，采用闭环扫描。
资源

浏览我们的 AFM 库

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观看我们的 AFM 网络研讨会

我们的网络研讨会涵盖最佳实验操作，新产品介绍，为棘手的问题提供快速解决方案，并给您带来最新的应用、模式或技术介绍。

其他资源

期刊俱乐部

订阅我们的每月期刊俱乐部电子邮件，以随时向 AFM 提供最新研究信息。
AFM 材料期刊俱乐部

AFM 材料电子书

了解原子力显微镜及其材料特性功能在这个介绍性电子书。
下载电子书

电池研究电子书

本电子书介绍了锂离子电池材料的主要分析技术。特别是，它侧重于纳米缩进和原子力显微镜表征。
下载电子书

AFM纳米电模式的最新进展

本电子书讨论了 DataCube 纳米电模式背后的技术，以及如何应用它们来执行高光谱映射，最后详细介绍了几个案例研究。
下载电子书

PeakForce Tapping Poster

Download your 24x36" print-ready poster. Printing instructions included.
Download Poster

Atomic Force Microscopy Covers the Landscape of Polymer Characterization

This article provides an overview of Bruker's AFM microscopes and modes for the mechanical, electrical, and chemical characterization of polymers at the nanoscale as well as the tools we provide to support the correlative microscopy that drives innovation in polymer research.
Download White Paper

Leveraging Torsional Resonance AFM to Study Moiré Superlattices in 2D Materials

See how Stanford University researchers recently applied torsional resonance dynamic friction microscopy (TR-DFM) to resolve moirés formed in twisted bilayer graphene and in a layer of graphene atop hexagonal boron nitride (hBN).
Read the Article in Microscopy and Analysis March/April 2024

Advancing In-Plane Property Measurements with Torsional Resonance–Based Modes

Learn how TR-based modes can resolve in-plane anisotropy and measure dynamic friction to enable routine atomic lattice imaging, even for 2D materials, and can be combined with other modes provide unique capabilities.
Read the Article in Microscopy and Analysis March/April 2024

Advancing In-Plane Property Measurements with Torsional Resonance–Based Modes

Learn how TR-based modes can resolve in-plane anisotropy and measure dynamic friction to enable routine atomic lattice imaging, even for 2D materials, and can be combined with other modes provide unique capabilities.
Read the Article in Microscopy and Analysis March/April 2024
Bruker's NanoScope 6 Controller

2023 AFM Probes 小册子 [PDF]

了解更多关于该产品的关键特性、测量能力和技术规格。
下载PDF文档

New AFM Modes

PeakForce TUNA Mode

扭转共振模式

在垂直和横向两个维度上动态探测样品
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Map of Vc+ created by collecting spectra at points in a 10x10 matrix

Switching Spectroscopy Piezoresponse Force Microscopy (SS-PFM)

Quantitative ferroelectric hysteresis loop measurement with highest sensitivity and accuracy
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A new PeakForce Tapping add-on for compositional mapping

Ringing Mode

A new PeakForce Tapping add-on for compositional mapping
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Publications

Browse Atomic Force Microscopy Articles

Article Year Article Title Authors AFM System Mode Research Area
2022 Implementation of an Experimental Setup to Qualitatively Detect Hydrogen Permeation Along Grain Boundaries in Nickel Using Scanning Kelvin Probe Force Microscopy Under Varying Atmospheres Gruenewald, P.; Hautz, N.; Motz, C. Icon PeakForce KPFM Fuel Cell, Nanoelectrical
2019 Nanoscale DMA With the Atomic Force Microscope: A New Method for Measuring Viscoelastic Properties of Nanostructured Polymer Materials Pittenger, B.; Osechinskiy, S.; (…); Mueller, T. Icon AFM-nDMA Polymers, Nanomechanical
2021 Investigating the Relationship Between the Mechanical Properties of Plasma Polymer-Like Thin Films and Their Glass Transition Temperature Vinx, N.; Damnan, P.; (…); Thiry, D. Icon AFM-nDMA, PeakForce QNM Polymers, Nanomechanical
2020 Comparison of Fresh and Aged Lithium Iron Phosphate Cathodes Using a Tailored Electrochemical Strain Microscopy Technique Simolka, M.; Kaess, H.; Friedrich, K. A. Icon AFM-nDMA, PeakForce QNM Batteries, Nanomechanical, Nanoelectrochemical
2020 Nanoscale Viscoelastic Characterization of Asphalt Binders Using the AFM-nDMA Test Aljarrah, M.; Masad, E. Icon AFM-nDMA, PeakForce QNM Bitumen, Nanomechanical
2021 Analysis of LiCoO₂ Electrodes Through Principal Component Analysis of Current–Voltage Datacubes Measured Using Atomic Force Microscopy Maeda, Y.; Taguchi, N.; Sakaebe, H. Icon Datacube, Scanning Spreading Resistance Microscopy (SSRM) Batteries, Nanoelectrical
2017 Morphology Dynamics of Single-Layered Ni(OH)2/iOOH Nanosheets and Subsequent Fe Incorporation Studied by in Situ Electrochemical Atomic Force Microscopy Deng, J.; Nellist, M. R.; (…); Boettcher, S. W. Icon Electrochemical AFM (EC-AFM) Batteries, Nanoelectrochemical
2020 Failure Progression in the Solid Electrolyte Interphase (SEI) on Silicon Electrodes Guo, K.; Kumar, R.; (…); Gao, H. Icon Electrochemical AFM (EC-AFM); PeakForce Tapping Batteries, Nanoelectrochemical
2018 Structural Evolution of Metal (Oxy)hydroxide Nanosheets During the Oxygen Evolution Reaction Dette, C.; Hurst, M. R.; (…); Boettcher, S. W. Icon Electrochemical AFM (EC-AFM); PeakForce Tapping Fuel Cells, Nanoelectrochemical
2021 Signal Origin of Electrochemical Strain Microscopy and Link to Local Chemical Distribution in Solid State Electrolytes Schön, N.; Schierholz, R.; (…); Hausen, F. Icon Electrochemical Strain Microscopy (ESM) Batteries, Nanoelectrochemical
2018 Imaging Photogenerated Charge Carriers on Surfaces and Interfaces of Photocatalysts With Surface Photovoltage Microscopy Chen, R.; Fan, F.; (…); Li, C. Icon Kelvin Force Probe Microscopy (KPFM) Fuel Cells, Nanoelectrical
2017 Visualizing the Nano Cocatalyst Aligned Electric Fields on Single Photocatalyst Particles Zhu, J.; Pang, S.; (…); Li, C. Icon Kelvin Force Probe Microscopy (KPFM) Fuel Cells, Nanoelectrical
2018 A Facile Space-Confined Solid-Phase Sulfurization Strategy for Growth of High-Quality Ultrathin Molybdenum Disulfide Single Crystals Li, D.; Xiao, Z.; (…); Lu, Y. MultiMode Kelvin Probe Force Microscopy (KPFM); Piezoresponse Force Microscopy (PFM) 2D Materials, Nanoelectrical
2018 Twistable Electronics With Dynamically Rotatable Heterostructures Ribeiro-Palau, R.; Zhang, C.; (…); Dean, C. R. Icon Lateral Force Microscopy (LFM) 2D Materials, Nanomechanical
2021 Large-Area, Two-Dimensional MoS2 Exfoliated on Gold: Direct Experimental Access to the Metal–Semiconductor Interface Pollmann, E.; Sleziona, S.; (…); Schleberger, M. Icon PeakForce KPFM 2D Materials, Nanoelectrical
2021 Band Edge Energy Tuning through Electronic Character Hybridization in Ternary Metal Vanadates Richter, M. H.; Peterson, E. A.; (…); Gregoire, J. M. Icon PeakForce KPFM Nanoelectrical
2020 Intergranular Corrosion Behavior of Low-Chromium Ferritic Stainless Steel Without Cr-Carbide Precipitation After Aging Hu, S.; Mao, Y.; (…); Hänninen, H. Icon PeakForce KPFM Metals, Nanoelectrical
2021 Long-Term Corrosion Behavior of the 7A85 Aluminum Alloy in an Industrial-Marine Atmospheric Environment Zhao, Q.; Guo, C.; (…); Li, X. MultiMode PeakForce KPFM Metals, Nanoelectrical
2021 Microstructure – Electron Work Function Relationship: A Crucial Step Towards “Electronic Metallurgy” Luo, Y.; Tang, Y.; (…); Li, D.Y. MultiMode PeakForce KPFM Metals, Nanoelectrical
2021 Electron Work Function: An Indicative Parameter Towards a Novel Material Design Methodology Luo, Y.; Tang, Y.; (…); Li, D. Y. MultiMode PeakForce KPFM Nanoelectrical
2021 Fusion of Purple Membranes Triggered by Immobilization on Carbon Nanomembranes Riedel, R.; Frese, N.; (…); Gölzhäuser, A. MultiMode PeakForce KPFM Nanoelectrical
2021 In situ Investigation of Oxidation Across a Heterogeneous Nanoparticle–Support Interface During Metal Support Interactions Datta, A.; Deolka, S.; (…); Porkovich, A. J. MultiMode PeakForce KPFM Nanoparticles, Nanoelectrical
2021 Defect-Assisted Electronic Metal–Support Interactions: Tuning the Interplay Between Ru Nanoparticles and CuO Supports for pH-Neutral Oxygen Evolution Porkovich, A. J.; Kumar, P.; (…); Datta, A. MultiMode PeakForce KPFM Nanoparticles, Nanoelectrical
2020 Understanding Crystallographic Orientation Dependent Dissolution Rates of 90Cu-10Ni Alloy: New Insights Based on AFM/SKPFM Measurements and Coordination Number/Electronic Structure Calculations Ma, A.; Zhang, L.; (…); Zheng, Y. MultiMode PeakForce KPFM Metals, Nanoelectrical
2017 Electron Work Function – A Probe for Interfacial Diagnosis Li, D. Y.; Guo, L.; (…); Lu, H. MultiMode PeakForce KPFM Nanoelectrical, Corrosion
2022 Surface Properties and Architectures of Male Moth Trichoid Sensilla Investigated Using Atomic Force Microscopy Baker, T. C.; Zhou, Q.; (…); Tighe, T. B. Icon PeakForce KPFM, PeakForce QNM Biology, Nanoelectrical, Nanomechanical
2021 Structurally Driven Environmental Degradation of Friction in MoS2 Films Curry, J. F.; Ohta, T.; (…); Chandross, M. Icon PeakForce KPFM, PeakForce QNM 2D Materials, Nanoelectrical, Nanomechanical
2020 A Mesoporous Catalytic Fiber Architecture Decorated by Exsolved Nanoparticles for Reversible Solid Oxide Cells Zhou, J.; Yang, J.; (….); Wu, K. Icon PeakForce KPFM, PeakForce QNM Metals, Nanoelectrical, Nanomechanical
2020 The Optical Signatures of Molecular-Doping Induced Polarons in Poly(3-hexylthiophene-2,5-diyl): Individual Polymer Chains Versus Aggregates Mansour, A. E.; Lungwitz, D.; Schultz, (…); Koch, N. Icon PeakForce KPFM, PeakForce QNM Nanoelectrical
2020 Highly Selective Carrier-Type Modulation of Tungsten Selenide Transistors Using Iodine Vapor Fan, S.; Cao, M.; (…); Su, J. Icon PeakForce KPFM, PeakForce QNM Nanoelectrical
2020 Oxidation Promoted Self-Assembly of π-Conjugated Polymers Hicks, G. E. J.; Jarrett-Wilkins, C. N.; (…); Seferos, D. S. Icon PeakForce KPFM, PeakForce QNM Polymers, Nanoelectrical
2021 Extremely Fast Optical and Nonvolatile Control of Mixed‐phase Multiferroic BiFeO3 via Instantaneous Strain Perturbation Liou, Y-D.; Ho, S-Z.; (…); Yang, J-C. Icon PeakForce KPFM, Piezoresponse Force Microscopy (PFM) Ferroelectrics, Nanoelectrical
2020 Assessment of AFM - KPFM and Scanning Spreading Resistance Microscopy (SSRM) for Measuring and Characterizing Materials Aging Processes Baca, Ana Icon PeakForce KPFM, Piezoresponse Force Microscopy (PFM) Nanoelectrical
2021 Mechanical Properties of Organic Electronic Polymers on the Nanoscale Panchal, V.; Dobryden, I.; (…); Venkateshvaran, D. FastScan PeakForce QNM Polymers, Nanomechanical
2019 Automated Multi-Sample Acquisition and Analysis Using Atomic Force Microscopy for Biomedical Applications Dujardin, A.; De Wolf, P.; (…); Dupres, V. FastScan PeakForce QNM Biology, Automation
2019 Lithium Anode Stable in Air for Low-Cost Fabrication of a Dendrite-Free Lithium Battery Shen, X.; Li, Y.; (…); Goodenough, J. B. Icon PeakForce QNM Batteries, Nanomechanical
2021 Nano-Vault Architecture Mitigates Stress in Silicon-Based Anodes for Lithium-Ion Batteries Haro, M.; Kumar, P.,(…); Grammatikopoulos, P. MultiMode PeakForce QNM Batteries, Nanomechanical
2020 Layer-by-Layer Printing of Photopolymers in 3D: How Weak is the Interface? Gojzewski, H.; Guo, Z.; (…); Vancso, G. J. MultiMode PeakForce QNM Additive Manufacturing, Nanomechanical
2021 Nanoscale Redox Mapping at the MoS2-Liquid Interface Du, H.; Huang,Y.; (…); Chen, L. Icon PeakForce SECM 2D Materials, Nanoelectrical, Nanoelectrochemical
2019 Nanoscale Semiconductor/Catalyst Interfaces in Photoelectrochemistry Laskowski, F. A. L.; Oener, S. Z.; (…); Boettcher, S. W. Icon PeakForce SECM Fuel Cells, Nanoelectrochemical
2018 Potential-Sensing Electrochemical Afm Shows CoPi as a Hole Collector and Oxygen Evolution Catalyst on BiVO4 Water-Splitting Photoanodes Nellist, M. R.; Qiu, J.; (…); Boettcher, S. W. Icon PeakForce SECM Fuel Cells, Nanoelectrochemical
2017 Potential-Sensing Electrochemical Atomic Force Microscopy for in Operando Analysis of Water-Splitting Catalysts and Interfaces Nellist, M. R.; Laskowski, F. A. L.; (…); Boettcher, S. W. Icon PeakForce SECM Fuel Cells, Nanoelectrochemical
2017 Atomic Force Microscopy With Nanoelectrode Tips for High Resolution Electrochemical, Nanoadhesion and Nanoelectrical Imaging Nellist, M. R.; Chen, Y.; (…); Boettcher, S. W. Icon PeakForce SECM Nanoelectrochemical
2017 Nanoelectrical and Nanoelectrochemical Imaging of Pt/p-Si and Pt/p+-Si Electrodes Jiang, J.; Huang, Z.; (…); Brunschwig, B. S. Icon PeakForce SECM, PeakForce TUNA Fuel Cells, Nanoelectrical, Nanoelectrochemical
2020 Capillary Condensation Under Atomic-Scale Confinement Yang, Q.; Sun, P.; (…); Geim, A. FastScan, Icon PeakForce Tapping 2D Materials
2020 Supramolecular Copolymerization Driven by Integrative Self‑Sorting of Hydrogen-Bonded Rosettes Aratsu, K.; Takeya, R.; (…); Yagai. S. MultiMode PeakForce Tapping Polymers, Molecules
2021 Optimized Atomic Layer Deposition of Homogeneous, Conductive Al2O3 Coatings for High-Nickel NCM Containing Ready-to-Use Electrodes Negi, R. S.; Culver, S. P.; (…); Elm, M. T. Icon PeakForce TUNA Batteries, Nanoelectrical
2021 On the Importance of Li Metal Morphology on the Cycling of Lithium Metal Polymer Cells Storelli, A.; Rousselot, S.; (…); Dollé, M. Icon PeakForce TUNA Batteries, Nanoelectrical
2021 Conducting Composite Films Based on Chitosan or Sodium Hyaluronate. Properties and Cytocompatibility With Human Induced Pluripotent Stem Cells Jasenská, D.; Kašpárková, V.; (…); Humpolíček, P. Icon PeakForce TUNA Biology, Nanoelectrical
2021 Development of a Photoelectrochemically Self-Improving Si/GaN Photocathode for Efficient and Durable H2 Production Zeng, G.; Pham, T. A.; (…); Toma, F. M. Icon PeakForce TUNA Fuel Cells, Nanoelectrical
2021 Fabrication of PCDTBT Conductive Network via Phase Separation Xu, J.; Liu, Z.; (…); Chen, J. Icon PeakForce TUNA Nanoelectrical
2021 Spatiotemporal Imaging of Anisotropic Charge Transfer in Photocatalyst Particles Li, C.; Chen, R.; (…); Fan, F. Icon PeakForce TUNA Nanoparticles, Nanoelectrical
2021 Current Rectification and Photo-Responsive Current Achieved through Interfacial Facet Control of Cu2O–Si Wafer Heterojunctions Lee, A-T.; Tan, C-S.; Huang, M. H. Icon PeakForce TUNA Photovoltaics, Nanoelectrical
2021 Correlation of Thermoelectric Performance, Domain Morphology and Doping Level in PEDOT:PSS Thin Films Post‐Treated With Ionic Liquids Oechsle, A. L.; Heger, J. E.; (…); Müller‐Buschbaum, P. Icon PeakForce TUNA Photovoltaics, Polymers, Nanoelectrical
2021 Electrically Conductive Silicon Oxycarbide Thin Films Prepared From Preceramic Polymers Ricohermoso, E. III, Klug, F.; (…); Ionescu, E. Icon PeakForce TUNA Polymers, Nanoelectrical
2021 Gate‐Controlled Polarity‐Reversible Photodiodes With Ambipolar 2D Semiconductors Du, J.; Liao, Q.; (…); Zhang, Y. Icon PeakForce TUNA Semiconductors, Nanoelectrical
2021 Influence of Surface Band Bending on a Narrow Band Gap Semiconductor: Tunneling Atomic Force Studies of Graphite With Bernal and Rhombohedral Stacking Orders Ariskina, R.; Schnedler, M.; (…); Estrela-Lopis, I. Icon PeakForce TUNA Semiconductors, Nanoelectrical
2020 Surface Defects State Analysis of Laser Induced Graphene From 4H-SiC Lin, Z.; Ji, L.; (…); Sun, Z. Icon PeakForce TUNA 2D Materials, Nanoelectrical
2020 Effects of the Mixing Sequence on Making Lithium Ion Battery Electrodes Wang, M.; Dang, D.; (…); Cheng, Y-T. Icon PeakForce TUNA Batteries, Nanoelectrical
2020 Harnessing Silicon Facet-Dependent Conductivity to Enhance the Direct-Current Produced by a Sliding Schottky Diode Triboelectric Nanogenerator Ferrie, S.; Darwish, N.; (…); Ciampi, S. Icon PeakForce TUNA Nanoelectrical
2020 Time-Resolved Open-Circuit Conductive Atomic Force Microscopy for Direct Electromechanical Characterization Calahorra, Y.; Kim, W.; (…); Kar-Narayan, S. Icon PeakForce TUNA Nanoelectrical
2020 Local Defect-Enhanced Anodic Oxidation of Reformed GaN Nanowires Colvin, J.; Ciechonski, R.; (…); Timm, R. Icon PeakForce TUNA Nanowires, Nanoelectrical
2020 Silver Nanofilament Formation Dynamics in a Polymer‐Ionic Liquid Thin Film by Direct Write Chao, Z.; Sezginel, K. B.; (…); Fullerton‐Shirey, S. K. Icon PeakForce TUNA Polymers, Nanoelectrical
2020 Nanoscale Observation of the Solid Electrolyte Interface and Lithium Dendrite Nucleation–Growth Process During the Initial Lithium Electrodeposition Wang, S.; Yin, X.; (…); Li, B. Icon PeakForce TUNA
2019 In Situ Observation of the Insulator-to-Metal Transition and Nonequilibrium Phase Transition for Li1–xCoO2 Films With Preferred (003) Orientation Nanorods Chen, Y.; Yu, Q.; (…); Huang, Z. Icon PeakForce TUNA Batteries, Nanowires, Nanoelectrical
2019 Relation Between Charge Transport and the Number of Interconnected Lamellar Poly(3-Hexylthiophene) Crystals Wang, B.; Chen, J.; (…); Zhang, B. Icon PeakForce TUNA Polymers, Nanoelectrical
2018 Electrically Controlled Water Permeation Through Graphene Oxide Membranes Zhou, K-G.; Vasu, K. S.; (…); Nair, R. R. Icon PeakForce TUNA 2D Materials, Nanoelectrical
2018 Nanoscale Imaging of Charge Carrier Transport in Water Splitting Photoanodes Eichhorn, J.; Kastl, C.; (…); Toma, F. M. Icon PeakForce TUNA Fuel Cells, Nanoelectrical
2017 A Liquid Metal Reaction Environment for the Room-Temperature Synthesis of Atomically Thin Metal Oxides Zavabeti, A.; Ou, J.; (…); Daeneke, T. Icon PeakForce TUNA 2D Materials, Nanoelectrical
2021 Uncapped Gold Nanoparticles for the Metallization of Organic Monolayers Martín‐Barreiro, A.; Soto, R.; (…); Cea, P. Icon, MultiMode PeakForce TUNA Nanoelectrical
2021 Exploring the Interface of Skin‐Layered Titanium Fibers for Electrochemical Water Splitting Liu, C.; Shviro, M.; (…); Carmo, M. MultiMode PeakForce TUNA Fuel Cells, Nanoelectrical
2021 Microscopic Characterization of Poly(Sulfur Nitride) Amado, E.; Hasan, N.; (…); Kressler, J. MultiMode PeakForce TUNA Nanoelectrical
2021 Al2O3 Buffer-Facilitated Epitaxial Growth of High-Quality ZnO/ZnS Core/Shell Nanorod Arrays Ru, F.; Xia, J.; (…); Meng, X-M. MultiMode PeakForce TUNA Nanoelectrical
2020 An Ordered and Fail‐Safe Electrical Network in Cable Bacteria Eachambadi, R. T.; Bonné, R.; (…); Manca, J. V. MultiMode PeakForce TUNA Bacteria, Biology, Nanoelectrical
2020 Stabilizing Polymer–Lithium Interface in a Rechargeable Solid Battery Yan, M.; Liang, J-Y.,(…); Wan, L-J MultiMode PeakForce TUNA Batteries, Nanoelectrical
2020 Ultrafast Assembly of Swordlike Cu3(1,3,5-Benzenetricarboxylate)n Metal–Organic Framework Crystals With Exposed Active Metal Sites Ahmed, H.; Yang, X.; (…); Yeo, L. Y. MultiMode PeakForce TUNA Metals, Nanoelectrical
2020 Sn/SnO Hybrid Graphene for Thermal Interface Material and Interconnections With Sn Hybrid Carbon Nanotubes Mittal, J.; Lin, K. L. PeakForce TUNA Nanoelectrical
2021 Non-Destructive Depth-Dependent Morphological Characterization of Ferroelectric:Semiconducting Polymer Blend Films Spampinato, N.; Pecastaings, G.; (…); Pavlopoulou, E. Icon PeakForce TUNA Polymers, Nanoelectrical
2018 Determination of Polypeptide Conformation With Nanoscale Resolution in Water Ramer, G.; Ruggeri, F. S.; (…); Centrone, A. NanoIR Photothermal AFM-IR Biology, Molecules, Nanochemical
2019 Deterministic Optical Control of Room Temperature Multiferroicity in BiFeO3 Thin Films Liou, Y-D.; Chiu, Y-Y.; (…); Yang, J-C. MultiMode Piezoresponse Force Microscopy (PFM) Ferroelectrics, Nanoelectrical
2018 Poling-Free Energy Harvesters Based on Robust Self-Poled Ferroelectric Fibers Zhu, R.; Wang, Z.; (…); Kimur, H. MultiMode Piezoresponse Force Microscopy (PFM) Ferroelectrics, Nanoelectrical
2017 Temporary Formation of Highly Conducting Domain Walls for Non-Destructive Read-Out of Ferroelectric Domain-Wall Resistance Switching Memories Jiang, J.; Bai, Z. L.; (…); Jiang A. Q. Icon Piezoresponse Force Microscopy (PFM); Kelvin Probe Force Microscopy (KPFM) Ferroelectrics, Nanoelectrical
2018 Unidirectional Molecular Assembly Alignment on Graphene Enabled by Nanomechanical Symmetry Breaking Hong, L.; Nishihara, T.; (…); Itami, K. FastScan TappingMode 2D Materials, Molecules
2020 Controlling MOFS ZnO Heterostructure Kinetics Through Selective Ligand Binding to ZnO Surface Steps Tao, J.; Lee, M-S.; (…); Sinnwell, M. A. MultiMode TappingMode
2021 Reversible Planar Gliding and Microcracking in a Single‑Crystalline Ni-Rich Cathode Bi, Y.; Tao, J.,(…); Xiao, J. MultiMode Batteries, Nanoelectrochemical
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