Meet DENSsolutions
We care, we innovate, we deliver.
DENSsolutions is your partner for in situ electron microscopy research, providing advanced solutions for cooling, heating, biasing, gas and liquid environments. Our MEMS-based sample carriers transform your electron microscope into a nanotechnology lab, allowing you to perform meaningful research at the nanoscale with a tremendous impact on a global scale. With state-of-the-art technology, user-friendly software, and dedicated support, we assist you from sample management to data analysis, ensuring reliable and accurate results every time.
Our In Situ Solutions
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Latest News
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In situ TEM cooling meets high-precision heating: Exploring BaTiO₃ phase transitions with Lightning Arctic
In a recent paper published involving Prof. Leopoldo Molina-Luna from TU Darmstadt, the DENSsolutions Lightning Arctic system was utilized to study the phase transitions and domain evolution of single-crystal BaTiO₃. By utilizing the system’s cryogenic cooling and heating capabilities, the team achieved unparalleled stability and resolution, enabling direct observations of phase behavior and domain wall dynamics from -175 °C all the way to 200 °C.
Introducing Infinity: DENSsolutions’ pioneering 8-contact environmental in situ solution
DENSsolutions introduces its latest product: Infinity – an innovative in situ solution that can combines heating and biasing capabilities in both gas and liquid environments. In this article, we interview our Senior Mechanical Engineer Christian Deen-van Rossum, who takes us through the key features of this innovation, highlighting its benefits, diverse applications, and offering an inside look into the development journey of this advanced solution.
In situ LPEM: Illuminating the electrochemical nanoscale dynamics of active materials
In a recent study published in the renowned journal of ACS Nano, a team of researchers employed the DENSsolutions Stream system to investigate the dynamics of electrochemically driven active materials. This research, involving our dear user at UC Irvine, Prof. Dr. Joe Patterson, is a major step forward in using electrochemical liquid EM to understand the dissipative self-assembly processes that generate active materials – a research space that remains largely unexplored.
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