NANOSENSORS™ at the 63rd Annual Meeting of the Biophysical Society of Japan (Nara, Sept 24–26, 2025)Wed Sep 24 2025
We’re delighted to be in Nara, Japan for the 63rd Annual Meeting of the Biophysical Society of Japan at the Nara Prefectural Convention Center. Visit us at the NanoAndMore Japan booth (#36) to talk AFM and explore how NANOSENSORS™ probes can enable your next result in structural biology, membrane mechanics, single-molecule biophysics, and high-speed/low-noise imaging in liquid.
Let’s meet, compare notes, and match the right probe to your instrument and experiment.
NanoWorld® at the 63rd Annual Meeting of the Biophysical Society of Japan (Nara, Sept 24–26, 2025)Wed Sep 24 2025
NanoWorld® at the 63rd Annual Meeting of the Biophysical Society of Japan (Nara, Sept 24–26, 2025)
Hello from Nara! NanoWorld® is exhibiting with our partner NanoAndMore Japan at the 63rd Annual Meeting of the Biophysical Society of Japan. If you’re working at the frontiers of biophysics—membranes, proteins, cell mechanics, or high-resolution imaging in liquid—come by booth #36 to discuss the best AFM probe for your experiment.
We’ll be showcasing the Pointprobe® and Arrow™ series—trusted worldwide for consistency, tip sharpness, and batch-to-batch reproducibility—plus short-cantilever options for fast dynamics. Our team can help you choose geometries and parameters that improve stability, SNR, and throughput on your instrument.
Let’s connect in Nara and move your research forward—one high-quality probe at a time.
Where: NanoAndMore Japan, Booth #36 When: Sept 24–26, 2025 • Nara Prefectural Convention Center
Meet NanoWorld® at 63rd Annual Meeting of the Biophysical Society of Japan next weekFri Sep 19 2025
NanoWorld® AG CEO Manfred Detterbeck will be at the NanoAndMore Japan booth at the 63rd Annual Meeting of the Biophysical Society of Japan held from September 24– 26, 2025 at Nara Prefectural Convention Center.
Will we meet you there too?
A paper has spatially resolved the switching dynamics using the BudgetSensors® ElectriMulti75-G probes for C-AFMMon Sep 01 2025
Check out this work by Jinhyoung Lee et al. - https://advanced.onlinelibrary.wiley.com/…/advs.202510961… ! The paper shows a monolithically integrated synaptic memory in a van der Waals heterostructure. These devices demonstrate a way to overcome current device integration challenges in resistive random-access memory (ReRAM). This has potential wider implications for recent AI-related technologies, such as large-language models and the Internet-of-Things.
The paper has spatially resolved the switching dynamics using the BudgetSensors
ElectriMulti75-G probes for C-AFM - https://www.budgetsensors.com/force-modulation-afm-probe…
DNA Origami Nanovaccine Demonstrates Full Protection Against SARS-CoV-2 in MiceMon Sep 01 2025
A study recently published in Communications Biology (Nature Portfolio) by Esra Oktay, Farhang Alem, Keziah Hernandez, Michael Girgis, Christopher Green, Divita Mathur, Igor L. Medintz, Aarthi Narayanan, and Rémí Veneziano introduces an innovative DNA origami–based nanovaccine platform targeting the receptor-binding domain (RBD) of SARS-CoV-2.
Their findings highlight the potential of rationally engineered DNA nanoparticles to elicit strong and durable immune protection.
Decoding Morphology in Organic Solar Cells with NANOSENSORS™ PPP-NCHAu AFM ProbesThu Aug 28 2025
Published in Nature Communications (March 2023), the article by Zhenrong Jia et al. investigates a novel ultra-narrow bandgap non-fullerene acceptor, BTPSeV-4F, which effectively suppresses triplet exciton formation in organic photovoltaic devices. This molecular design significantly reduces non-radiative losses, enabling tandem organic solar cells (TOSCs) to reach a power conversion efficiency of 19%, with record-setting short-circuit current density in the rear sub-cell.
High-resolution morphological characterization played a crucial role in correlating device performance with film formation and nanostructure. The authors used tapping mode-AFM
with gold-coated silicon cantilevers (PPP-NCHAu) from NANOSENSORS™ , known for their exceptional stability and tip precision.
Decoding the Ubiquitin Code: How the RQT Complex Clears Colliding RibosomesMon Aug 11 2025
Matsuo et al., recently published a landmark study in Nature Communications (vol. 14, article 79, Jan 10 2023). , looking at how cells recognize and resolve ribosome collisions—a critical event in obeying translational fidelity and avoiding protein quality control failure.
The researchers employed a combination of molecular genetics, biochemical assays, ubiquitin-binding studies, and advanced imaging. Key steps included mutational deletion of ubiquitin‐binding domains in RQT subunits, affinity assays for K63-linked ubiquitin chains, and highspeed atomic force microscopy (HSAFM) to visualize complex behavior at the molecular level. Notably, they used intrinsically disordered regions of Rqt4 mapped by realtime HSAFM.
Strong, tough, rapid-recovery, and fatigue-resistant hydrogels made of picot peptide fibresThu Aug 07 2025
Bin Xue et al. have presented a novel class of biomimetic hydrogels that simultaneously exhibit high stiffness, toughness, fatigue resistance, and ultrafast mechanical recovery—properties that are notoriously difficult to combine in conventional polymeric systems. Their design is inspired by the architecture of mussel foot proteins and is centered around self-assembling peptide fibres termed “picot fibres”, which act as hierarchical load-bearing domains.
Read more...
NanoAndMore Japan is at the 26th International Conference on Non-contact Atomic Force Microscopy this weekMon Aug 04 2025
@NanoAndMore Japan is at the 26th International Conference on Non-contact Atomic Force Microscopy this week.
Please visit our NanoAndMore Japan #AFMprobes booth from 4-8 August 2025 located at the Middle Hall of Toyama Aubade Hall, Toyama, Japan
9-28 Ushijima-machi, Toyama City 930-0858 Japan
Happy Swiss National Holiday 2025Thu Jul 31 2025
Happy Swiss National Holiday 2025 with Smallest Swiss Cross
We are celebrating tomorrow’s #SwissNationalHoliday courtesy of Basel University ( @NanolinoBasel ) with the smallest #SwissCross – made of 20 single atoms.
Enjoy the holiday everyone in #Switzerland!
A NANOSENSORS PointProbe Plus PPP-NCL #AFMprobe was used for this image achieved with #atomicforcemicroscopy (https://www.nanosensors.com/pointprobe-plus-non-contact… ).
All-ferroelectric implementation of reservoir computingMon Jul 28 2025
In the article “All-ferroelectric implementation of reservoir computing”, published in Nature Communications, Zhiwei Chen, Wenjie Li, Shuai Dong, Z. Hugh Fan, Yihong Chen, Xubing Lu, Min Zeng, Minghui Qin, Guofu Zhou, Xingsen Gao, and Jun-Ming Liu report a novel approach for implementing reservoir computing (RC) using a monolithic, fully ferroelectric hardware platform. This work is a result of multidisciplinary collaboration among experts in ferroelectric materials, neuromorphic device engineering, and condensed matter physics.
Read more...
Happy birthday to Gerd BinnigSun Jul 20 2025
One of the co-inventors of AFM! Born on July 20th 1947, in Frankfurt, West Germany, Prof. Binnig has made extensive contributions to scanning probe microscopy techniques, including AFM and STM. For his work on STM, he was distinguished with the 1986 Nobel Prize in Physics, shared with Heinrich Rohrer.
First Atomic Force Microscopy Image on MarsWed Jul 09 2025
On July 9th 2008 this calibration image was acquired by NASA’s Phoenix Mars Lander, making it the first AFM image acquired on another planet! The inclusion of an AFM, as part of Phoenix’s Microscopy, Electrochemistry and Conductivity Analyzer, allowed for imaging at an unprecedented resolution, offering a 20-fold increase compared to the on-board optical microscope.
Photo credit: ASA/JPL-Caltech/University of Arizona/University of Neuchatel
#AFMprobes #AFM #AtomicForceMicroscopy #Mars
Explore our collection and download your favorite poster to use as your desktop and mobile background or request a printed copy!Mon Jun 23 2025
You: “I need high-quality AFM probes, at an affordable price.”
MikroMasch: “We got you.”
You: “I also need free, fun, visually stunning HD and 4K wallpapers.”
MikroMasch: “You wouldn’t believe this…”
Enhanced Exiton-Plasmon Interaction Enabling Observation of Near-Field Photoluminescence in a WSe2-Gold Nanoparticle Hybrid SystemThu Jun 05 2025
Monolayer transition metal #dichalcogenides, such as tungsten diselenide, have recently attracted considerable attention due to their reduced dielectric screening and direct bandgap, which result in high exciton binding energy and strong #photoluminescence.*
The integration of monolayer transition metal dichalcogenides with #plasmonic #nanoparticles enhances their optoelectronic properties through localized surface #plasmons and strong electromagnetic confinement. *
In the article “Enhanced Exciton–Plasmon Interaction Enabling Observation of Near-Field Photoluminescence in a WSe2–Gold Nanoparticle Hybrid System” Anastasia Romashkina, Sandhya Sushil, Angela I. Barreda, Zlata Fedorova, Fatemeh Abtahi, Nathan Doolaard, Zifei Zhang, Christian Helgert, Isabelle Staude, Falk Eilenberger, Thomas Pertsch and Bayarjargal N. Tugchin investigated the photoluminescence response of the hybrid system of monolayer tungsten diselenide and gold nanoparticle arrays through #nearfieldmapping. *
Their study demonstrated a significant enhancement of the excitonic emission by the excited gold nanoparticles via near-field interaction. *
Anastasia Romashkina et al. examined the impact of exciton–plasmon-polariton coupling on the far-field response of the hybrid system. *
There, they observed the phenomenon of exciton-induced transparency, which indicates the intermediate coupling regime and helps resonantly enhance the light-matter interaction in monolayer tungsten diselenide.*
The second harmonic generation intensity from the hybrid system was shown to follow the linear spectral response of the hybrid system, thereby demonstrating the enhanced coupling between surface plasmons and excitons.
Anastasia Romashkina et al.’s research offers insights into the impact of intermediate coupling on the optical properties of hybrid exciton–plasmon systems, which is crucial for the development of advanced #nanophotonicdevices. *
The authors investigate the near-field optical response of the hybrid system with a #scatteringtypeNearfieldopticalMicroscope (#sSNOM), which allows for high-resolution imaging of the evanescent fields of a sample by analyzing the light scattered by the #AFMtip. Figure 2 in the cited article shows the scheme of the used setup. The s-SNOM is based on a tapping-mode #atomicforcemicroscope and uses a tip view #AFMprobe ( NANOSENSORS AdvancedTEC ATEC-NCAu https://www.nanosensors.com/advanced-tip-at-the-end-of-the…) that oscillates above the sample with an amplitude of about 40 nm and a frequency of Ω = 275 kHz. *
Please have a look at the NANOSENSORS blog for the full citation and a direct link to the full article.
SelfAdjust-Air probes , optimized for use with the ScanAsyst®* mode by Bruker.Tue May 20 2025
Check out our latest SelfAdjust-Air probes -an affordable solution, optimized for use with the ScanAsyst®* mode by Bruker. Visit our website for detailed specs, samples, and detailed instructions on how to carry out your imaging experiment!
*ScanAsyst® is a trademark of Bruker Corporation.
Tunable and parabolic piezoelectricity in hafnia under epitaxal strainMon May 19 2025
#Piezoelectrics are a class of #functionalmaterials that have been extensively used for application in modern electro-mechanical and mechatronics technologies. *
The sign of longitudinal piezoelectric coefficients is typically positive but recently a few ferroelectrics, such as ferroelectric polymer poly(vinylidene fluoride) and van der Waals ferroelectric CuInP2S6, were experimentally found to have negative piezoelectricity.
In the article “Tunable and parabolic piezoelectricity in hafnia under epitaxial strain” Hao Cheng, Peijie Jiao, Jian Wang, Mingkai Qing, Yu Deng, Jun-Ming Liu, Laurent Bellaiche, Di Wu and Yurong Yang, using first-principles calculation and measurements, show that the sign of the longitudinal linear piezoelectric coefficient of HfO2 can be tuned from positive to negative via epitaxial strain. *
Nonlinear and even parabolic piezoelectric behaviors are further found at tensile epitaxial strain. *
This parabolic piezoelectric behavior implies that the polarization decreases when increasing the magnitude of either compressive or tensile longitudinal strain, or, equivalently, that the strain increases when increasing the magnitude of electric field being either parallel or antiparallel to the direction of polarization. The unusual piezoelectric effects are from the chemical coordination of the active oxygen atoms. *
These striking piezoelectric features of positive and negative sign, as well as linear and parabolical behaviors, expand the current knowledge in piezoelectricity and broaden the potential of piezoelectric applications towards electro-mechanical and communications technology. *
@NanoWorld Pt/Ir coated Pointprobe® EFM AFM probes were used for the sample #characterization by switching spectroscopy PFM measurements.
Switching spectroscopy PFM measurements were performed on the bare HZO film surface at room temperature with NanoWorld Pointprobe® EFM in a commercially available atomic force microscope, while the LSMO electrode was grounded.
Please have a look at the NanoWorld blog for the full citation and a direct link to the full article.
Happy birthday, Prof. Gerber!Thu May 15 2025
It’s the 15th of May again and it’s time for us to celebrate another birthday of professor Christoph Gerber. Thank you for your contributions to the invention of the Atomic Force Microscope and to the entire field of Nanoscience!
Happy birthday, Prof. Gerber!
NanoWorld® Arrow-EFM conductive AFM probes were used in this articleThu May 15 2025
NanoWorld® Arrow-EFM conductive #AFMprobes https://www.nanoworld.com/electrostatic-force-microscopy-afm-tip-arrow-efm were used for the #PiezoresponseForceMicroscopy ( #PFM) that was used to evaluate the polarization configuration of a wrinkled BTO membrane in the article:
Jie Wang, Zhen Liu, Qixiang Wang, Fang Nie, Yanan Chen, Gang Tian, Hong Fang, Bin He, Jinrui Guo, Limei Zheng, Changjian Li, Weiming Lü and Shishen Yan
Ultralow Strain-Induced Emergent Polarization Structures in a Flexible Freestanding BaTiO3 Membrane
Advanced Science, Volume 11, Issue 25, July 3, 2024, 2401657
Find out more in the NanoWorld blog: https://www.nanoworld.com/blog/ultralow-strain-induced-emergent-polarization-structures-in-a-flexible-freestanding-batio3-membrane/ or refer directly to the original article cited above.
NANOSENSORS™ PointProbe Plus PPP-NCHAuD AFM Probes were used in this articleThu May 15 2025
NANOSENSORS™ PointProbe Plus PPP-NCHAuD AFM Probes ( https://www.nanosensors.com/pointprobe-plus-non-contact-tapping-mode-high-resonance-frequency-au-coating-detector-side-afm-tip-PPP-NCHAuD with gold coating on the detector side) were used for the #frequencymodulationatomicforcemicroscopy (FM-AFM) and #atomicforcemicroscopy ( #AFM) described in the article “Visualization of Electrolyte Reaction Field Near the Negative Electrode of a Lead Acid Battery by Means of Amplitude/Frequency Modulation Atomic Force Microscopy” by Yuki Suzuki, Yuki Imamura, Daiki Katsube, Akinori Kogure, Nobumitsu Hirai and Munehiro Kimura.
Yuki Suzuki, Yuki Imamura, Daiki Katsube, Akinori Kogure, Nobumitsu Hirai and Munehiro Kimura
Visualization of Electrolyte Reaction Field Near the Negative Electrode of a Lead Acid Battery by Means of Amplitude/Frequency Modulation Atomic Force Microscopy
Materials 2023, 16(6), 2146
Highlights
AFM Probe Focus
qp-HBC
uniqprobe™ - HeartBeat Cantilever for ScanAsyst®** and Peak Force Tapping™**
Coating:
Reflective Aluminum
Tip Shape: Circular symmetric
Tip Shape: Circular symmetric
AFM Cantilever:
F
60 kHz
C
0.5 N/m
L
115 µm
ATEC-NC
Tapping Mode AFM Probe with REAL Tip Visibility
Coating:
none
Tip Shape: Visible
Tip Shape: Visible
AFM Cantilever:
F
335 kHz
C
45 N/m
L
160 µm
TESPA
Standard Tapping Mode AFM Probe
Coating:
Reflective Aluminum
Tip Shape: Standard
Tip Shape: Standard
AFM Cantilever:
F
320 kHz
C
42 N/m
L
125 µm
OTESPA
Standard Tapping Mode AFM Probe with AFM Tip at the Very End of the AFM Cantilever
Coating:
Reflective Aluminum
Tip Shape: Optimized Positioning
Tip Shape: Optimized Positioning
AFM Cantilever:
F
300 kHz
C
26 N/m
L
160 µm
