Momentum Transfer

@momentum-transfer.com

Bringing synchrotron technology to the cloud. We're working to democratize access to high-throughput X-ray measurements and advanced analytics, making materials analysis faster, more affordable, and accessible to all.

𝗪𝗲 𝗹𝗮𝘂𝗻𝗰𝗵𝗲𝗱 𝗮 𝗻𝗲𝘄 𝗦𝗲𝗮𝗿𝗰𝗵-𝗠𝗮𝘁𝗰𝗵 𝘁𝗼𝗼𝗹 for phase ID from XRPD, available on app.momentum-transfer.com   • Free   • Easy to use   • No installation   • Seamlessly connects with data measured by us at the ESRF In case you missed our webinar, we posted the tutorial video showing how to use it.

Crystal phase identification for minerals & advanced materials: search-match on the web

YouTube video by Momentum Transfer

youtube.com

This is fantastic, hope to see a wide adoption! We also hope to see more standardized characterization community-wide, with X-ray diffraction measurements to higher angles, good signal-to-noise, and proper plotting of the low intensity regions for phase verification.

The Cheungsters@thecheungsters.bsky.social · 6mo ago

Our work on "Material Preparation Information File (MPIF)" is now published in Advanced Materials. Please share this with all your colleagues! Thank you to COST Action EU4MOFs and all co-authors! #Chemistry #MOF #synthesis #NobelPrize #COF #research #DataScience doi.org/10.1002/adma...

For those interested in quantitative modeling of microstructure, atomic structure, and local correlated motion: this is a comprehensive example on iron–chromium alloy and a possible reference standard for line profile analysis of nanomaterials! journals.iucr.org/j/issues/202...

A reference material for X-ray diffraction line profile analysis

A nanocrystalline Fe–1.8%Cr steel powder is proposed as a reference material for testing different powder diffraction instruments and configurations, as well as different data-analysis methodologies.

journals.iucr.org

Missed the Deadline? Snow Problem! We've extended abstract submissions to February 22, 2026. One more week to get your research into IUCr2026. No registration required to submit. Papers first, logistics later. 📅 New deadline: Feb 22 👉 Submit now: event.fourwaves.com/...

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The National Crystallization Center is offering a 2 day macromolecular crystallization workshop at its Buffalo NY facility - The workshop is designed to immerse you in crystal growth methods to jumpstart your structural biology efforts - Learn More zurl.co/zGs0c

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We recently started some webinars to discuss total scattering applications in catalysis and how to get started with pair distribution function analysis. In case anybody is interested, we recorded the sessions and you can check them out too.

Here is a fascinating article from our partners at the Spallation Neutron Source Science Center in China: H et al. ACS Appl. Mater. Interfaces 2025, 17, 16, 24220–24228 on null matrix alloys --- specialized high entropy alloys designed to produce no peaks in neutron diffraction!

High-Entropy V-Based Null Matrix Alloys─Short/Long-Range Structural Features, Chemical Stabilities, and Mechanical Properties

Null matrix alloys are special types of alloys with no peaks in the neutron diffraction patterns. These types of materials have tremendous applications in the neutron scattering community as main components for manufacturing advanced reaction vessels for in situ measurements. In the literature, null matrix alloys are often reported to be composed of two different elements/isotopes. In other words, null matrix alloys with more than two elements/isotopes have never been reported. One main reason was the limited solubility of dopants in the parent phases. As such, their physical/chemical properties could not be easily modified through the conventional doping strategies. For the first time, a new family of high-entropy V-based (HEV) alloys, composed of more than five elements, were developed using a two-step arc-melting method. The six investigated samples included V0.939Nb0.010Ta0.011Al0.020Fe0.008Sn0.012 (HEV1), V0.941Nb0.010Ta0.011Al0.020Fe0.008Mo0.011 (HEV2), V0.937Nb0.010Ta0.011Al0.020Sn0.012Mo0.011 (HEV3), V0.949Nb0.010Ta0.011Fe0.008Sn0.012Mo0.011 (HEV4), V0.939Nb0.010Al0.020Fe0.008Sn0.012Mo0.011 (HEV5), and V0.939Ta0.011Al0.020Fe0.008Sn0.012Mo0.011 (HEV6). All six HEV alloys did not show any diffraction peaks in the neutron diffraction patterns. The dopants were found to be homogeneously distributed over the 2a sites of the Im3̅m structure of V by the Rietveld refinement on high-resolution X-ray diffraction data. X-ray pair distribution function (PDF) analysis and small-angle neutron scattering (SANS) ruled out the possibility of chemical ordering or clustering in the investigated samples. Based on the chemical oxidation analysis of O2 at high temperatures, the HEV alloys are found to be more resistant than that the binary V-based alloys. Among the investigated HEV alloys, HEV4 was found to have the highest engineering yield strength. This work provides an important guideline of designing complex null matrix alloys/materials with novel properties.

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We're proud to provide data for scientists all over the world, and want to highlight publications from our users. Check out this recent article on site selectivity and clustering in a high entropy oxide by Masina et al. Inorg. Chem. 2026, 65, 4, 2410–2418.

Revealing Site Selectivity and Clustering in the Compositionally Complex (Cr,Mn,Fe,Mg,Ni)3O4

Cubic spinel high-entropy oxides are compositionally complex, multifunctional materials that continue to garner incredible research interest. They offer tunable magnetic properties, enhanced catalytic...

doi.org

Hello everyone. We heard there's a great materials science community on bluesky, so we've entered the arena. We'll be primarily posting educational content on X-ray scattering, synchrotron access, and about measurement opportunities and releases of data analysis tools for the community.