Latest News

NanoWorld Retro Trailer passes the 500 views markMon Oct 14 2019

New post - NanoWorld Retro Trailer passes the 500 views mark (https://www.nanoworld.com/…/nanoworld-retro-trailer-passes…/) has been published on NanoWorld Blog. Looks like some people enjoyed a little nostalgia over the weekend and helped the NanoWorld Retro Trailer pass the 500 views mark. Thanks for watching! The AFM probe you can see in the last frames of the video is a NanoWorld High Apect Ratio AFM probe. https://youtu.be/faF7x9jxCKE The NanoWorld Retro Trailer featuring NanoWorld High Aspect Ratio Probes #AtomicForceMicroscopy

From Polymer to Magnetic Porous Carbon Spheres: Combined Microscopy, Spectroscopy, and Porosity StudiesThu Oct 10 2019

Published new post (From Polymer to Magnetic Porous Carbon Spheres: Combined Microscopy, Spectroscopy, and Porosity Studies) on NANOSENSORS Blog In their research paper “From Polymer to Magnetic Porous Carbon Spheres: Combined Microscopy, Spectroscopy, and Porosity Studies” Federico Cesano, Sara Cravanzola, Valentina Brunella, Alessandro Damin and Domenica Scarano, after having first reported the preparation of polymer waste-derived microporous carbon microspheres (SBET ~800 m2/g) 100–300 μm in size, investigate the morphology, porous texture and the surface properties of carbon and of magnetic carbon microspheres by multiple techniques.* The multi-technique methodology they used aims at an extensive description of the different characteristics of activated carbons with magnetic properties. For the Atomic Force Microscopy described in this paper NANOSENSORS™ SSS-MFMR AFM probes for high resolution magnetic force imaging were used for the topography images as well as the MFM imaging. https://www.nanosensors.com/supersharpsilicon-magnetic-force-microscopy-reflex-coating-afm-tip-SSS-MFMR Please have a look at the NANOSENSORS Blog for the full citation and a direct link to the full article. #AmorphousCarbon #Fe3O4 #nanoparticles #AtomicForceMicroscopy

NanoWorld Trailer Retro (2001)Wed Oct 09 2019

We're celebrating #NationalNanoDay with the NanoWorld retro video today. The last frame of the video shows an #AFMprobe tip with a tip radius of smaller than 10 nm . This AFM probe is a High Apect Ratio #AFMtip which is used in #AtomicForceMicroscopy to measure deep trenches and other steep features. Do you recognize it? https://youtu.be/faF7x9jxCKE

Quantitative depth sensing with AFM contact-resonance imaging using BudgetSensors Multi75Al-G and ContAl-GMon Oct 07 2019

Quantitative depth sensing with AFM contact-resonance imaging using BudgetSensors Multi75Al-G and ContAl-G https://aip.scitation.org/doi/full/10.1063/1.5113567 #AFMProbes #AtomicForceMicroscopy

A Short Peptide Hydrogel with High Stiffness Induced by 310‐Helices to β‐Sheet Transition in WaterFri Oct 04 2019

New post - A Short Peptide Hydrogel with High Stiffness Induced by 310‐Helices to β‐Sheet Transition in Water (https://www.nanoworld.com/blog/a-short-peptide-hydrogel-with-high-stiffness-induced-by-310%e2%80%90helices-to-%ce%b2%e2%80%90sheet-transition-in-water/) has been published on NanoWorld Blog. In the article “A Short Peptide Hydrogel with High Stiffness Induced by 310‐Helices to β‐Sheet Transition in Water” by Shu Hui Hiew, Harini Mohanram, Lulu Ning, Jingjing Guo, Antoni Sánchez‐Ferrer, Xiangyan Shi, Konstantin Pervushin, Yuguang Mu, Raffaele Mezzenga and Ali Miserez, a short biomimetic peptide composed of eight amino acid residues derived from squid sucker ring teeth proteins is demonstrated to form hydrogel in water without any cross‐linking agent or chemical modification and exhibits a stiffness on par with the stiffest peptide hydrogels. Their study broadens the range of sec #hydrogel #PeptideHydrogels #AtomicForceMicroscopy #BiomedicalMaterials

In-house grown diamond microspheres attached to our tipless HQ:CSC38 series cantileversMon Sep 30 2019

In-house grown diamond microspheres attached to our tipless HQ:CSC38 series cantilevers for probing mechanical properties of different materials. https://pubs.acs.org/doi/full/10.1021/acs.analchem.9b00693 #AtomicForceMicroscopy #AFMProbes #Nanomechanics #ForceSpectroscopy

Second Day MNE 2019 – NANOSENSORS BlogTue Sep 24 2019

Published new post (Second Day MNE 2019) on NANOSENSORS Blog It is the second day of #MNE2019. Have you already had a chance to meet our CEO Manfred Detterbeck there and discuss the many applications that are possible using our #AFMprobes for #AtomicForceMicroscopy? Manfred Detterbeck is attending the 45th International Conference on Micro & Nano Engineering this week. You too? #nanotechnology #nanofabrication #AFMprobes #microtechnology

Meet us at MNE 2019Mon Sep 23 2019

New post - Meet us at MNE 2019 (https://www.nanoworld.com/blog/meet-us-at-mne-2019/) has been published on NanoWorld Blog. NanoWorld AG CEO Manfred Detterbeck is #MNE2019 the 45th International Conference on Micro & Nano Engineering which is currently being held from September 23rd-26th, 2019 in Rhodes, Greece. Will we meet you there too? meet NanoWorld CEO Manfred Detterbeck at MNE 2019 #micro #AFMprobes #nanotech

Nonlinear Biomechanical Characteristics of Deep Deformation of Native RBC Membranes in Normal State and under Modifier ActionMon Sep 23 2019

Published new post (Nonlinear Biomechanical Characteristics of Deep Deformation of Native RBC Membranes in Normal State and under Modifier Action) on NANOSENSORS Blog The mechanical properties and structural organization of membranes determine the functional state of red blood cells (RBCs). Deformability is one of the key physiological and biophysical indicators of RBC. Changes of the mechanical characteristics of cell membranes can lead to a decrease in the rate of capillary blood flow and to development of stagnant phenomena in the microcirculation, and it can also reduce the amount of oxygen delivered to the tissues.* In the article “Nonlinear Biomechanical Characteristics of Deep Deformation of Native RBC Membranes in Normal State and under Modifier Action” Elena Kozlova, Aleksandr Chernysh, Ekaterina Manchenko, Viktoria Sergunova and Viktor Moroz describe how they evaluated the ability of membranes of native human red blood cells (RBCs) to bend into the cell to a depth comparable in size with physiological deformations using the methods of atomic force microscopy ( AFM ) and atomic force spectroscopy ( AFS ).* As a true estimation of the elastic properties of RBC membranes can be obtained only by measurement of native cell properties the aim of the experiments was to study nonlinear mechanical characteristics of deep deformation of native RBC membranes in normal state and under the action of modifiers, in vitro to make sure that the result would be the closest to the characteristics of a living biological object.* NANOSENSORS™ rounded AFM tips of the type SD-R150-T3L450B with a typical tip radius of 150 nm from the NANOSENSORS Special Developments List were used to measure the deformation of the RBC membrane by atomic force spectroscopy ( AFS ).* https://www.nanosensors.com/pdf/SpecialDevelopmentsList.pdf Please have a look at the NANOSENSORS blog for the full citation and a direct link to the full article

https://www.nanoworld.com/blog/

#ForceSpectroscopy #CellBiology #erythrocytes #AFMprobes

Simultaneous Quantification of the Interplay Between Molecular Turnover and Cell Mechanics by AFM–FRAPWed Sep 18 2019

New post - Simultaneous Quantification of the Interplay Between Molecular Turnover and Cell Mechanics by AFM–FRAP (https://www.nanoworld.com/blog/simultaneous-quantification-of-the-interplay-between-molecular-turnover-and-cell-mechanics-by-afm-frap/?utm_source=Facebook&utm_medium=Blog&utm_content=Simultaneous+Quantification+of+the+Interplay+Between+Molecular+Turnover+and+Cell+Mechanics+by+AFM%E2%80%93FRAP&utm_campaign=NanoWorld+Blog) has been published on NanoWorld Blog. Quantifying the adaptive mechanical behavior of living cells is essential for the understanding of their inner working and function.* In their article “Simultaneous Quantification of the Interplay Between Molecular Turnover and Cell Mechanics by AFM–FRAP” Mark Skamrahl, Huw Colin‐York, Liliana Barbieri and Marco Fritzsche use a combination of atomic force microscopy and fluorescence recovery after photobleaching is introduced which offers simultaneous quantification and direct correlation of molecule kinetics and mechanics in living cells.* Simultaneous quantification of the relationship between molecule kinetics and cell mechanics may thus open up unprecedented insights into adaptive mechanobiological mechanisms of cells.* For the AFM nanoindentation tests described in their publication the authors used NanoWorld Arrow-TL2 tipless cantilevers that were functionalized with a polystyrene bead with 5 µm radius.* https://www.nanoworld.com/array-of-2-tipless-cantilevers-arrow-tl2-afm-tip Please have a look at the NanoWorld blog for the full citation and a direct link to the full article. #CellMechanics #biomechanics #nanoindentation

Discover how nanotools SuperSharpStandard-FMR are applied for imaging and indentation measurementsTue Sep 17 2019

BudgetSensors® MagneticMulti75-G used in a recent study!Mon Sep 16 2019

Direct evidence for grain boundary passivation in Cu(In,Ga)Se2 solar cells through alkali-fluoride post-deposition treatmentsTue Sep 10 2019

Published new post (Direct evidence for grain boundary passivation in Cu(In,Ga)Se2 solar cells through alkali-fluoride post-deposition treatments) on NANOSENSORS Blog The properties and performance of polycrystalline materials depend critically on the properties of their grain boundaries.* In the article “Direct evidence for grain boundary passivation in Cu(In,Ga)Se2 solar cells through alkali-fluoride post-deposition treatments “ Nicoleta Nicoara, Roby Manaligod, Philip Jackson, Dimitrios Hariskos, Wolfram Witte, Giovanna Sozzi, Roberto Menozzi and Sascha Sadewasser investigate the direct evidence for grain boundary passivation in Cu(in,GA)Se2 solar cells through alkali-fluoride treatment. They present a KPFM study on the electronic GB properties in CIGSe deposited by co-evaporation and compare the effect of KF-, RbF-, and CsF-PDT.* Their results suggest that heavier alkali elements might lead to better passivation by reducing the density of charged defects and increasing the formation of secondary phases at grain boundaries.* The KPFM measurements for the study were carried out with platinum iridium coated NANOSENSORS™ PointProbe® Plus PPP-NCLPt AFM probes.* https://www.nanosensors.com/pointprobe-plus-non-contact-tapping-mode-long-cantilever-ptir5-coating-afm-tip-PPP-NCLPt Please have a look at the NANOSENSORS blog for the full citation and a direct link to the full article. #ElectronicProperties #KelvinProbeForceMicroscopy #PolycrystallineMaterials

Check out BudgetSensors® AFM Probes at NanoAndMore Japan booth at JASIS 2019Thu Sep 05 2019

Find out what BudgetSensors® AFM probe would fit best to your application in Atomic Force Microscopy at NanoAndMore Japan booth 6A-402 in exhibition hall 6 at JASIS 2019 this week.

Don't miss your chance to stop at NanoAndMore Japan booth in Chiba today!Thu Sep 05 2019

We’re at JASIS 2019 – you too?Wed Sep 04 2019

We’re at JASIS 2019 – you too?

https://www.nanoworld.com/blog/were-at-jasis-2019-you-too/

You’re welcome to visit us @NanoAndMore Japan https://www.nanoandmore.jp/ booth 6A-402 at #JASIS2019 from September 4-6th, 2019 at Makuhari Messe, Japan to learn more about NanoWorld high quality #AFM probes for #AtomicForceMicroscopy and #ScanningProbeMicroscopy #AFMプローブ #原子間力顕微鏡

Real-Time Observation of Fibrous Zeolites Reactivity in Contact with Simulated Lung Fluids (SLFs) Obtained by Atomic Force Microscope (AFM)Wed Sep 04 2019

New post - Real-Time Observation of Fibrous Zeolites Reactivity in Contact with Simulated Lung Fluids (SLFs) Obtained by Atomic Force Microscope (AFM) has been published on NanoWorld Blog.

https://www.nanoworld.com/blog/

Inhalation of fibrous erionite particles has been linked to malignant mesothelioma. Accordingly, erionite is considered the most carcinogenic mineral. The reactivity and the nature of erionite biotoxicity has been the subject of intensive research. Despite very close chemical and structural relationships between erionite and offretite, the reactivity of offretite in lung fluids remains unknown.* In their paper “Real-Time Observation of Fibrous Zeolites Reactivity in Contact with Simulated Lung Fluids (SLFs) Obtained by Atomic Force Microscope (AFM)”, Matteo Giordani, Georgia Cametti, Fulvio Di Lorenzo and Sergey V. Churakov investigate the interaction of erionite and offretite surfaces with simulated lung fluids by means of in situ atomic force microscope (AFM).* The outcomes presented in the paper mentioned above represent an important step in understanding the complex processes occurring at the surfaces of mineral fibres that could be involved in the toxicological pathway.* The topography scans were performed in tapping mode with a NanoWorld Arrow-UHFAuD https://www.nanoworld.com/ultra-high-frequency-afm-tip-arrow-uhf-aud AFM probes under different experimental conditions. To better discriminate the role of the tip from the actual fluid-surface interaction, additional measurements were performed in air and in water in contact mode using an Al-coated NanoWorld Arrow-CONTR https://www.nanoworld.com/contact-mode-reflex-coated-afm-tip-arrow-contr AFM cantilever. Please have a look at the NanoWorld blog for the full citation and a direct link to the full paper. #offretite #biotoxicity #SurfaceInteraction #AtomicForceMicroscopy

Visit us at JASIS 2019 this week – NANOSENSORS™Wed Sep 04 2019

Visit NANOSENSORS™ at JASIS 2019 this week! Don’t forget to visit us @NanoAndMore Japan booth 6A-402 in hall 6 at #JASIS2019 this week and let them explain with their fancy new #AFMtip models which #AFMprobe among the many options we offer is best for your #AtomicForceMicroscopy and #ScanningProbeMicroscopy application. We are looking forward to seeing you! Many different AFM tip models at the NanoAndMore Japan booth at JASIS 2019 this week #JASIS2019 #AtomicForceMicroscopy #原子間力顕微鏡

NanoAndMore ジャパン がJASIS 2019に出展Tue Sep 03 2019

Come and visit NanoAndMore Japan at JASIS2019Tue Sep 03 2019