原子力显微镜探针

Akiyama-Probe (A-Probe) Motion Video

by NANOSENSORS
7 February 202215 March 2023
Videos

Do you want to find out how the NANOSENSORS self-sensing and self-actuating Akiyama Probe (A-Probe) works? Then have a look at this video with its… Read More »Akiyama-Probe (A-Probe) Motion Video

Supercritical carbon dioxide decellularization of plant material to generate 3D biocompatible scaffolds

by NANOSENSORS
29 October 202115 March 2023
Science & Technology

Biocompatible scaffolds that can be repopulated with human cells have many uses such serving as replacement organs and tissues. Therefore there is an increasing interest… Read More »Supercritical carbon dioxide decellularization of plant material to generate 3D biocompatible scaffolds

Happy Swiss National Holiday with Smallest Swiss Cross

by NANOSENSORS
31 July 202115 March 2023
News & Events

We are celebrating today’s Swiss National Holiday courtesy of Basel University with the Smallest Swiss Cross – Made of 20 Single Atoms ( a NANOSENSORS… Read More »Happy Swiss National Holiday with Smallest Swiss Cross

Happy New Lunar Year!

by NANOSENSORS
10 February 202115 March 2023
News & Events

NANOSENSORS wishes you all a happy and successful year of the cow. Shiloutte of cows climbing up a hill.

We wish everyone a good start into the year of the bull/ox/cow!

In‐situ force measurement during nano‐indentation combined with Laue microdiffraction

by NANOSENSORS
22 January 202115 March 2023
Science & Technology

image of a tuning fork based NANOSENSORS self-sensing and self-actuating Akiyama-probe (A-probe)

A NANOSENSORS™ self-sensing self-activating Akiyama probe was used in a home-built Scanning Probe Microscope for this interesting research article. *Florian Lauraux, Sarah Yehya, Stéphane Labat,… Read More »In‐situ force measurement during nano‐indentation combined with Laue microdiffraction

Multi-Channel Exploration of O Adatom on TiO2(110) Surface by Scanning Probe Microscopy

by NANOSENSORS
5 October 202015 March 2023
Science & Technology

Figure 5. from “Multiple images of TiO2(110) surface with atomic resolution and corresponding line profiles” by Huan Fei Wen et al. (a) Frequency shift (∆f) image, (b) tunneling current () image and (c) local contact potential difference (VLCPD) image. (d,e) The line profiles along the blue line on the surface in (b,c). (f0 = 805 kHz, Q = 27623, ∆f = −260 Hz, VDC = 1.3 V, VAC = 1.5 V, A = 500 pm, size: 3.5 × 3.2 nm2). Multiple images of TiO2(110) surface with atomic resolution and corresponding line profiles. (a) Frequency shift (∆f) image, (b) tunneling current () image and (c) local contact potential difference (VLCPD) image. (d,e) The line profiles along the blue line on the surface in (b,c). (f0 = 805 kHz, Q = 27623, ∆f = −260 Hz, VDC = 1.3 V, VAC = 1.5 V, A = 500 pm, size: 3.5 × 3.2 nm2). - Ultrastiff NANOSENSORS SD-T10L100 AFM probes were used.

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

Plant-Based Scaffolds Modify Cellular Response to Drug and Radiation Exposure Compared to Standard Cell Culture Models

by NANOSENSORS
7 September 202015 March 2023
Science & Technology

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