Dnp silicon nitride cantilever

Manufactured by Bruker

The DNP silicon nitride cantilever is a specialized laboratory instrument used for dynamic nuclear polarization (DNP) experiments. It is designed to provide a durable and stable platform for the analysis of various samples. The core function of this cantilever is to facilitate the transfer of polarization from electrons to nuclei, enabling enhanced nuclear magnetic resonance (NMR) signals. The silicon nitride material offers mechanical stability and resistance to ensure reliable performance during DNP experiments.

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Lab products found in correlation

Mz75 microsystems, by Leica (2 mentions) Catalyst atomic force microscope, by Bruker (1 mentions)

Close spelling variants of this product

Silicon nitride cantilevers DNP cantilevers Silicon cantilever Cantilevers

2 protocols using dnp silicon nitride cantilever

Characterizing Microcapsule Surface Roughness

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Single capsules were carefully selected using a dissection microscope (Leica MZ75 microsystems), washed and placed on microscopic slides. The surface roughness of different microcapsules was determined by a Bruker Catalist atomic force microscope (AFM) with a Bruker DNP silicon nitride cantilever. Topographic imaging of the capsules was performed at room temperature using the contact mode. Surface roughness was calculated by using the NanoScope Analysis 1.8 software.

Liu Q., Chiu A., Wang L.H., An D., Zhong M., Smink A.M., de Haan B.J., de Vos P., Keane K., Vegge A., Chen E.Y., Song W., Liu W.F., Flanders J., Rescan C., Grunnet L.G., Wang X, & Ma M. (2019). Zwitterionically modified alginates mitigate cellular overgrowth for cell encapsulation. Nature Communications, 10, 5262.

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Microcapsule Surface and Elasticity Analysis

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Single capsules were carefully selected using a dissection microscope (Leica MZ75 microsystems), washed, and placed on microscopic slides. The surface roughness (Ra) and Young's modulus (YM) of different microcapsules were determined by a Bruker Catalyst atomic force microscope (AFM) with a Bruker DNP silicon nitride cantilever. Topographic imaging of the capsules was performed at room temperature using the contact mode. Ra was calculated by using the NanoScope Analysis 1.8 software. The YM was calculated from 25 force curves on three different capsules with the same software.

Santos A.P., Chevallier S.S., de Haan B., de Vos P, & Poncelet D. (2021). Impact of electrostatic potential on microcapsule-formation and physicochemical analysis of surface structure: Implications for therapeutic cell-microencapsulation. Journal of biomaterials applications, 36(4).

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