Truth InstrumentsTruth Instruments (致真精密仪器)

AtomExplorer
Compact Multi-Mode AFM

A benchtop AFM built for teaching, QA, and entry-level research. A dual-range scanner (100 μm + 30 μm) switches with one click across 7 imaging modes, and the fully automated workflow takes new users from power-on to first image in 15 minutes.

Scan Range100 / 30 μm
Z Noise0.04 nm
Imaging Modes7 modes
Sample Size≤ 4″ / 100 mm
AtomExplorer benchtop AFM
Overview

A Benchtop AFM Designed for Teaching, QA & Entry Research

AtomExplorer distills the core capability of a research-grade AFM into a desktop instrument: a dual-range scanner (100 μm wide-area + 30 μm high-resolution), 7 imaging modes in one tool, and a one-click automated workflow so that new users are fully productive within 15 minutes.

Ideal for undergraduate labs, graduate onboarding, corporate QA checks, and third-party test services — offering the most cost-effective multi-mode AFM in its class.

Dual-Range Scanner

100 μm wide-area + 30 μm high-resolution, one-click switch, no tip change.

7 Imaging Modes

Contact / Tapping / Phase / EFM / KPFM / MFM / PFM all in one box.

Teaching-Friendly

Bilingual GUI (EN/CN), video tutorials, and standard lab kits — undergrads operate independently.

One-Click Automation

Auto laser find-peak / auto approach / auto scan — first image in under 15 minutes.

Technical

Specifications & Technology

Wide-Area XY100 × 100 μm
High-Resolution XY30 × 30 μm
Z Range10 μm
Z Noise Floor0.04 nm
Scan Angle0 – 360°
Pixel Resolution32×32 – 2048×2048
Max Sample Size4″ / 100 mm
Max Thickness15 mm
Motorized XY StageOptional 25 × 25 mm
TopographyContact / Tapping / Phase
ElectricalEFM / KPFM (lift mode)
MagneticMFM (lift mode)
PiezoelectricPFM (contact)
ArchitectureFPGA digital
Feedback Loopup to 50 kHz
Lock-in Amp1 built-in, >500 kHz BW
Sync ChannelsUp to 8 synchronous
Control SoftwareAtomControl Lite (EN/CN)
Analysis SuiteRoughness / Section / Particles / 3D
Dimensions420 × 380 × 520 mm
Weight~ 35 kg

Dual-Range Scanner

A 100 μm wide-area loop and a 30 μm high-resolution loop share one scan head — switch in software, no hardware swap. A single instrument covers the two typical AFM teaching tasks: "see the big picture" and "see the fine detail".

In the high-resolution range, Z noise drops to 0.04 nm — enough to resolve a graphene single-layer step or a self-assembled monolayer thickness.

Dual-range tube scanner close-up with grid correction comparison

7 Modes in One Box

Contact / Tapping / Phase topography + EFM / KPFM electrical + MFM magnetic + PFM piezoelectric — an entry-level instrument covers every common AFM topic up through graduate-level coursework. No upgrade path required.

Compared with same-price instruments that only support topography + tapping, AtomExplorer drops the barrier to electrical and magnetic AFM down to undergraduate-lab level.

Z noise spectrum and SiC 0.75 nm step resolution

One-Click Automated Workflow

Auto laser find-peak → auto PSD align → auto tip approach — every error-prone manual step is handled by software, so first-time users produce a clean image on their first try.

For shared university labs, this means one demo is enough — anyone can use the tool afterwards without risking tip or sample damage.

Automated workflow — auto approach, find-peak, and scan interface

Teaching and QA Dual-Use

Includes a standard teaching sample kit: graphene step, grating calibration, tape magnetic domains, ferroelectric domains — the full onboarding chain from basics to electromagnetic force. Lab assistants need not prepare their own samples.

In a QA setting, saved measurement recipes can be recalled with one click by shop-floor technicians, with automated PDF report export.

Floppy disk magnetic domains MFM demo
Why AtomExplorer

Why Teaching Labs and QA Teams Choose AtomExplorer

Not a stripped-down research AFM — re-engineered from the ground up for teaching and QA.

Dual-Range Switching

100 μm for the big picture + 30 μm for detail — one-click switch in software, no scan head swap.

7

Imaging Modes

Topography / EFM / KPFM / MFM / PFM all in one instrument — no upgrade needed from undergrad to graduate research.

0.04 nm

Z Noise

Sub-nanometer vertical resolution — clearly resolves graphene steps and self-assembled monolayer thickness.

15 min

From Boot to First Image

Auto find-peak + auto approach delivers a clean image to new users without supervision.

35 kg

Benchtop Design

Single-person portable; 420 × 380 × 520 mm — fits any lab bench.

EN/CN

Bilingual GUI

Switch languages anytime; video tutorials and sample sets ready for bilingual classrooms.

Applications

Real Scans from the Field

AtomExplorer real scan data across teaching samples, energy materials, magnetic recording media, and ferroelectrics.

ZnInS before photocatalysis · Tapping
Energy

ZnInS Before Photocatalysis · Tapping · 5 × 5 μm

ZnInS film topography before photocatalysis — fine grains, smooth surface.

ZnInS after photocatalysis · Tapping
Energy

ZnInS After Photocatalysis · Tapping · 5 × 5 μm

Same region after reaction — roughness rises, confirming surface reactivity.

Graphene oxide · Tapping
2D Materials

Graphene Oxide · Tapping · 10 × 10 μm

Height distribution of single GO sheets — clearly resolves ~1 nm layer thickness.

PS-PBMA copolymer · Phase
Phase

PS-PBMA Copolymer · Phase · 2 × 2 μm

Microphase separation of a block copolymer; phase image clearly resolves the two domains.

Au-Ti electrode · EFM
EFM

Au-Ti Electrode · EFM Lift · 5 × 5 μm

Electrostatic-force imaging of Au-Ti stripe electrodes — the standard EFM teaching sample.

Hard-disk track · MFM
MFM

Hard-Disk Track · MFM Lift · 5 × 5 μm

Single-bit magnetic domains from a hard-disk platter, clearly resolved.

Floppy tape · MFM
MFM

Floppy Tape · MFM Lift · 25 × 25 μm

Classic teaching sample — magnetic-domain stripes illustrate magnetic-recording principles.

PbTiO₃ · PFM
PFM

PbTiO₃ · PFM Contact · 3 × 3 μm

Vertical piezoresponse of a ferroelectric film — bright/dark contrast shows domain structure.

PMN-PT · PFM
PFM

PMN-PT · PFM Contact · 5 × 5 μm

Complex domain structure of a relaxor ferroelectric — PFM phase identifies polarization direction.

CuInP₂S₆ · PFM
PFM

CuInP₂S₆ · PFM Contact · 3 × 3 μm

In-plane polarization imaging of a 2D ferroelectric — a canonical research-frontier sample.

Performance Validation

Real specs. Real data. Real publications.

0.04 nm
Z noise floor
7
Imaging modes
50 kHz
Feedback rate
8 ch
Sync channels
Featured
Publications
Nat. Commun. · 2025 Tsinghua Univ. / HIT — Observation of switchable polar skyrmion bubbles in van der Waals CuInP₂Se₆ (PFM)
Nature · 2020 Fudan Univ. — Enhanced ferroelectricity in ultrathin HfO₂ films grown directly on silicon (PFM)
Nanoscale · 2018 Peking Univ. — Room-temperature ferroelectricity & switchable diode in α-In₂Se₃ thin layers
Int. J. Hydrogen Energy Liaoning Univ. of Sci. & Tech. — In-situ light-assisted KPFM on photocatalytic H₂ evolution
Software & Control

AtomControl Lite

Bilingual Real-time Control

EN/CN GUI with live topography preview, auto-approach status, and 4-step automated workflow (Parameters → Approach → Scan → Retract). Switchable anytime — built for bilingual classrooms.

Comprehensive Analysis

Built-in roughness (Ra/Rq/Rz), cross-section profiling, particle analysis, and 3D visualization with publication-quality export and automated PDF reports.

Recipe & Report Management

Save measurement recipes for QA reuse — one-click recall by shop-floor technicians. PDF reports with topography + parameter tables + section data.

FAQ

Common Questions

The 100 μm wide-area range is for surveying large features, while the 30 μm high-resolution range delivers finer detail with lower noise. Both share one scan head — switch in software with one click, no tip change or hardware swap needed.
Yes. Beyond Contact, Tapping, and Phase topography modes, AtomExplorer includes EFM, KPFM, MFM, and PFM — electrical, magnetic, and piezoelectric imaging. This means undergraduate labs can cover every common AFM topic up through graduate-level research, all on one instrument.
Under 15 minutes from power-on. The automated workflow handles laser find-peak, PSD alignment, and tip approach — all the steps that typically trip up beginners. One demo session is enough for students to operate independently.
Both. With a 0.04 nm Z noise floor, AtomExplorer resolves graphene single-layer steps (~0.34 nm) and self-assembled monolayer thickness. It shares the same FPGA controller architecture as the research-grade AtomEdge Pro, just in a more compact form factor.
Samples up to Φ25 mm (4″ / 100 mm) and 15 mm thick. An optional 25 × 25 mm motorized XY stage adds programmable positioning for batch measurements and QA recipe recall.

Manufactured by Truth Instruments — founded in Qingdao in 2019 with R&D centers in Beijing and Hangzhou. A national-level "Specialized & Sophisticated 'Little Giant'" enterprise; 51% of staff in R&D, holding 70 patents and 31 software copyrights. Deployed across 49+ research institutions including Tsinghua, Peking University, Fudan, Zhejiang, USTC, HIT, CAS Institute of Physics, Westlake University — and industrial customers SMIC, Western Digital, GoerTek, BGI.

National "Little Giant" 70 Patents · 31 Software Copyrights 51% R&D Staff 49+ Research Institutions 5,500 m² Facility
Application Highlights

Compact Body, Full Research Capability

AtomExplorer imaged ZnInS photocatalyst surfaces before and after xenon-lamp illumination at 5×5 μm — tracking light-induced morphological changes in a single scan session. Dual scan range (100×100 μm & 30×30 μm) covers both overview and fine detail.
From 360 GB hard-disk magnetic domain imaging (MFM) to PbTiO₃ ferroelectric domain mapping (PFM) and graphene oxide flake profiling — AtomExplorer delivers 7 modes including EFM, KPFM, and MFM in a bench-friendly footprint.
4–6 Week DeliveryStandard lead time from order
On-site InstallationEngineer-assisted setup & calibration
48 h Tech SupportResponse within 2 business days
Best Value in Class7-mode AFM at entry-level pricing

Ready to Bring AFM into Your Teaching Lab?

Contact our applications team for pricing, lead times, and a live demo.