New machine learning model could encode words to kill cancer cells
US researchers, using new machine learning techniques have developed a virtual molecular library of “words” that encode commands to kill cancer cells.
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US researchers, using new machine learning techniques have developed a virtual molecular library of “words” that encode commands to kill cancer cells.
Understand how quality control assays are being implemented in monitoring the development of CAR-T cells using high-throughput technologies in this article.
Cytokine multiplex assays allow researchers to measure multiple cytokines, chemokines and growth factors from one small sample.
A new Drug Target Review issue is now ready to download! This issue features articles which explore how artificial intelligence can enhance screening and ways to find new hits through simultaneous orthogonal screens. Also included are articles on CRISPR, immuno-oncology and RSV vaccines.
The pipetting robot, flowbot® ONE, is available with a HEPA filter to make clean-up processes easy and effective, enabling you to keep your samples safe.
Swedish researchers have designed synthetic DNA that controls a cells’ protein production using AI.
Get useful insights into whether you should automate your lab and what to consider if you do – all to help you choose the right solution for your specific lab and keep your employees happy.
Researchers have streamlined the traditionally slow process of enzyme engineering. This work might help researchers tailor the suitability of enzymes for custom purposes.
Researchers have used AI to design microneedle patches that restore hair in balding mice.
1 November 2022 | By Standard BioTools
Watch our on-demand webinar to hear about advances toward precision medicine through the use of cutting-edge methods and analysing critical patient immune data in response to therapies and disease progression.
A $1.2 million National Science Foundation grant funds project to use quantum AI to create effective pharmaceuticals faster and cheaper.
The technology works by using an electric field to first capture a single cell in a microfluidic device, followed by applying a rotating electric field to rotate the trapped cell and then measuring the rotation speed.
A new AI model can accelerate drug discovery by accurately predicting human response to novel drug compounds.
Dr Larysa Baraban, physicist at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) is researching a chip that should ultimately make it possible to develop personalised cancer immunotherapies.
The team from Hangzhou Dianzi University developed a three-dimensional-stacked multi-stage inertial microfluidic sort chip to enrich and separate CTCs.