NANOSENSORS heads the world market with its innovative high quality scanning probes for SPM (Scanning Probe Microscopy) and AFM (Atomic Force Microscopy). NANOSENSORS' AFM probes, AFM tips and Cantilevers contribute to many scientific breakthroughs in Nanotechnology.
Nanoscale investigations by scanning probe microscopy have provided major contributions to the rapid development of organic–inorganic halide perovskites (OIHP) as optoelectronic devices. Further improvement of… Read More »Nanoscale Charge Accumulation and Its Effect on Carrier Dynamics in Tri-cation Perovskite Structures
Yeast resistance to antifungal drugs is a major public health issue. Fungal adhesion onto the host mucosal surface is still a partially unknown phenomenon that… Read More »Yeast Nanometric Scale Oscillations Highlights Fibronectin Induced Changes in C. Albicans
In the article “Multi-Channel Exploration of O Adatom on TiO2(110) Surface by Scanning Probe Microscopy” Huan Fei Wen, Yasuhiro Sugawara and Yan Jun describe how… Read More »Multi-Channel Exploration of O Adatom on TiO2(110) Surface by Scanning Probe Microscopy
![Supplementary Figure 1 a – d from “Macroscopic manifestation of domain-wall magnetism and magnetoelectric effect in a Néel-type skyrmion host” by K. Geirhos et al: Typical ferroelectric do-main pattern observed on the (001) cleaved GaV4Se8 crystal surface atT=10 K. a, The topography is characterized by stripes roughly parallel to the [110] axis and folds parallel to the [010] axis. The latter originate in the differently oriented distortion of the ferroelastic domains. The color scale corresponds to the z-displacement of the tip. b ,In the dissipation channel of the nc-AFM every second domain appears bright. For the non-magnetic tip the dissipation originates from electric interactions. The dissipated power is indicated by the color scale. Please have a look at the full article to view the full supplementary figure. NANOSENSORS Platinum Silicide PtSi-FM AFM probes were used for the imaging.](https://www.nanosensors.com/blog/wp-content/uploads/2022/11/Supplementary-Figure-1-a-–-d-from-Macroscopic-manifestation-of-domain-wall-magnetism-and-magnetoelectric-effect-in-a-Neel-type-skyrmion-host-by-K-Geirhos-et-al-PtSi-FM-2-766x620.jpg)
In the article “Macroscopic manifestation of domain-wall magnetism and magnetoelectric effect in a Néel-type skyrmion host” Korbinian Geirhos, Boris Gross, Bertalan G. Szigeti, Andrea Mehlin,… Read More »Macroscopic manifestation of domain-wall magnetism and magnetoelectric effect in a Néel-type skyrmion host
Plant-based scaffolds present many advantages over a variety of biomaterials.* Recent studies explored their potential to be repopulated with human cells and thus highlight a… Read More »Plant-Based Scaffolds Modify Cellular Response to Drug and Radiation Exposure Compared to Standard Cell Culture Models
![Figure 2 from “Electric-field-driven non-volatile multi-state switching of individual skyrmions in a multiferroic heterostructure” by Yadong Wang et al.: Electric-field-induced switching of individual skyrmion. The transferred average strain εave and corresponding magnetic domain evolution processes in the d ~ 350 nm a [Pt/Co/Ta]12 and b [Pt/Co/Ta]8 nano-dots in a cycle of E ranging from +10 to −10 kV cm−1. Positive εave (red dots) represents tensile strain while negative εave (blue dots) represents compressive strain. μ0H represents the external magnetic field except that from the MFM tip and here μ0H is equal to be 0 mT. The inset of b illustrates the spin texture of the magnetic domain that is encompassed by the red box. The stripe domain enclosed by the black box shows the initial state of the magnetic domain evolution path. The gray dots represent the corresponding electric field for the MFM images. The MFM contrast represents the MFM tip resonant frequency shift (Δf). The scale bar represents 250 nm. NANOSENSORS™ PPP-LM-MFMR low moment magnetic AFM probes were used](https://www.nanosensors.com/blog/wp-content/uploads/2022/11/figure-2-from-Electric-field-driven-non-volatile-multi-state-switching-of-individual-skyrmions-in-a-multiferroic-heterostructure-by-Yadong-Wang-et-al-2020-NANOSENSORS-PPP-LM-MFMR-2-930x547.jpg)
Electrical manipulation of skyrmions attracts considerable attention for its rich physics and promising applications. To date, such a manipulation is realized mainly via spin-polarized current… Read More »Electric-field-driven non-volatile multi-state switching of individual skyrmions in a multiferroic heterostructure
Friction in nanoscale contacts is determined by the size and structure of the interface that is hidden between the contacting bodies. One approach to investigating… Read More »Insights into dynamic sliding contacts from conductive atomic force microscopy