Atomic Force Microscope

Dimension 2D AFM

Benchmark AFMs for 2D materials research

Dimension 2D AFMs

Dimension 2D systems combine Bruker’s proven, industry-leading AFM platforms with a curated suite of highest-priority modes and capabilities to meet the critical requirements of modern 2D materials research.

These turnkey systems maintain ultimate stability for up to atomic defect resolution. Motorized staging streamlines flake-finding, stitched optical overviews, automated imaging routines, and large-area surface cleaning or smoothing. An open-access, large-sample, tip-scanning instrument design enables cutting-edge experiments from in-situ device testing to quantum twisting microscope (QTM) integration.

For advanced research requiring additional modes, capabilities, or environmental control, Dimension 2D is a scalable and future-proof solution. It offers customizable configurations, access to an expansive library of additional modes, and expert support that will help your 2D materials research run smoothly.

Application-Focused
hardware and software package
Addresses the exacting demands of 2D materials research in a workflow-ready solution.
Flexible
system design and configuration
Enables a broader range of multi-faceted experiments.
Proven
dimension technology
Delivers utmost stability and resolution, from overview scans to lattice- and atomic-scale images.
Features

Workflow-Ready Solution for 2D Materials Research

Key capabilities and components

Nanolithography and Nanomanipulation

Dimension 2D systems extend AFM beyond measurement to enable direct cutting, folding, or modification of 2D materials through controlled tip-sample interaction.

Comprehensive Library of 2D Materials‑Optimized Modes

Dimension 2D systems integrate an application‑tailored library of AFM modes that provide access to the contrast mechanisms and signal sensitivity needed to characterize structure, properties, and interfaces of 2D materials.

Only Dimension 2D provides:

  • A turnkey suite of essential AFM modes for high‑resolution imaging and nanomechanical testing

  • Access to multiple contrast mechanisms, including electrical, mechanical, lateral force, and tunneling interactions

  • An extensive catalog of optional modes and capabilities for advanced and specialized measurements

Maximum Flexibility for Advanced and Complex Experiments

Dimension 2D systems accommodate evolving research needs, non‑standard configurations, and complex experimental setups without compromising performance. 

Only Dimension 2D offers:

  • An open‑access, tip‑scanning platform architecture compatible with advanced techniques such as quantum twisting microscope (QTM) integration

  • Support for environmentally controlled and non‑standard experimental conditions within the same platform

  • The ability to extend the system with additional modes, capabilities, and accessories as research requirements evolve

Fastest Path from Sample to Data

Dimension 2D systems are configured to streamline the full measurement workflow—from locating flakes to acquiring and analyzing data. 

Only Dimension 2D provides:

  • Large motorized stage for rapid navigation, multi‑site measurements, and large‑area mapping

  • Large-area optical images with addressable coordinates, enabling fast targeting and reliable return‑to‑location imaging

  • API-driven workflows for rapid, consistent, and repeatable data acquisition

  • Integrated data capture and handling, including hyperspectral acquisition and batch analysis workflows

Case Study 1

Enhanced Contrast: Visualizing moire pattern formed by hBN layer on graphene

Torsional force microscopy (TFM), recently developed by Bruker, provides highest‑resolution imaging of 2D materials via enhanced lateral‑force sensitivity — including visualization of moiré superlattices in van der Waals heterostructures. 

In this example, TFM resolves the 2.6 nm moiré pattern produced by the graphene/hBN twist and the underlying 0.246 nm atomic lattice of the graphene in a single image. Adjusting load in the same mode pulls contrast from layers beneath the top film.

Read more about TFM in the original journal article or our application note on torsional resonance modes.

Data courtesy of Dr. Mihir Pendharkar & Prof. David Goldhaber-Gordon, Stanford University.
Case Study 2

Gentle Imaging: Resolving graphene membrane over open pore

PeakForce Tapping® is Bruker’s proprietary technology for controlling peak normal force directly at every pixel — essential for fragile monolayers and suspended films. 

This example shows graphene suspended across an open pore. Where TappingMode produced unusable noise in the image, PeakForce Tapping resolves the membrane cleanly.

Learn more in this webinar, where we asked our experts to talk about their favorite PeakForce Tapping modes.

Data courtesy N. Clark, Univ. of Manchester.
Case Study 3

Co-registered Property Mapping: Distinguishing artifacts in epitaxial graphene on SiC

PeakForce QNM® extracts adhesion, deformation, and stiffness from each PeakForce Tapping force curve. PeakForce TUNA® adds a current channel under applied bias, producing co‑registered mechanical and electrical maps from the same force–distance curve. 

In this example, a multimodal dataset was used to distinguish artifacts from real material changes in epitaxial graphene on SiC. Modulus and adhesion mapped coverage directly, and with a bias applied, the current channel reproduced the same pattern in conductivity contrast.

Hear more about this dataset during the 2D materials section of this webinar.

Sample courtesy Dr. Randolph Elmquist, NIST.
Case Study 4

Surface Potential and Work-Function Contrast: Understanding image contrast

Kelvin probe force microscopy (KPFM) measures the tip–sample contact potential difference, yielding layer-resolved work function and charge maps on graphene, TMDs, and hBN. Bruker's KPFM family spans AM-, FM-, and HV-KPFM for gated devices, plus PeakForce KPFM for lowest-force surface potential on fragile flakes.

In this example showing mechanically exfoliated multilayer graphene on silicon oxide, KPFM and Raman were used together to understand the true origins of image contrast. After cross-checking, the D-band feature here was traced back to mechanical folding rather than dismissed as a Raman artifact.

Case Study 5

Subsurface and Dielectric Imaging: Resolving electrical contrast on buried devices under hBN

Kelvin Scanning microwave impedance microscopy (sMIM) reads the tip–sample impedance at microwave frequency, recovering capacitive and resistive channels that surface-only electrical modes cannot. PeakForce sMIM adds force-controlled engagement for repeatable measurements on soft or loosely adhered samples.

This example shows electrical contrast on buried device structures under hBN. The capacitive channel resolves buried lines and the gaps between them, with the 70 nm nominal gap broadening to ~200 nm FWHM, consistent with subsurface signal spreading through the dielectric.

Hear more about this dataset in this webinar.

Specifications

Dimension 2D Select Specifications

XY-Scan Range90 μm x 90 μm typical, 85 μm minimum
Z-Scan Range10 μm typical, 9.5 μm minimum
Sensor NoiseXY-Position Sensor: ≤0.15 nm RMS; Z-Sensor: 35 pm RMS (typical imaging bandwidth ≤625 Hz)
Glovebox CompatibilityTurnkey integrated MBraun solution available; designed for maximum performance of Dimension systems
 
Dimension Icon 2D

Dimension Nexus 2D
Sample Size/Holder210 mm vacuum chuck for samples: ≤210 mm diameter, ≤15 mm thick150 mm vacuum chuck for samples: ≤150 mm diameter, ≤15 mm thick
Motorized Positioning XY-Stage180 mm × 150 mm inspectable area; 3 μm repeatability, bidirectional; programmable for multi-site measurements150 mm x 150 mm inspectable area; 6 μm repeatability, bidirectional; programmable for multi-site measurements
Vertical Noise Floor (typical imaging bandwidth ≤625 Hz)<30 pm RMS in appropriate environment ≤40 pm RMS in appropriate environment
Acoustic IsolationOperational in environments ≤85 dBC continuous acoustic noiseOperational in environments with ≤75 dBC continuous acoustic noise
Download the brochure for full specs list  
Software

Powered by the NanoScope 6 AFM Controller

Featuring higher speeds, lower noise, and greater AFM mode flexibility, the NanoScope 6 controller allows users to harness the full potential of our high-performance Dimension and MultiMode AFM systems. This latest generation controller provides unprecedented accuracy, precision, and versatility for nanoscale surface measurements in every application.

NanoScope 6 uniquely enables Bruker AFMs to:

  • Operate in more imaging modes than is possible with competing systems, including unique and advanced AFM modes that require complex control and analysis
  • Collect accurate, quantitative data for nanoelectrical and nanomechanical property measurements in every application
  • Optimize and customize scanning parameters to meet even the most demanding research and industry measurement requirements
  • Provide ultimate ease of use with Bruker’s exclusive ScanAsyst® Plus self-optimizing imaging software with enhanced intelligent algorithms and patent-pending smart functionality (find out if your Bruker AFM is eligible for the free ScanAsyst Plus upgrade here)
Contact Expert

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