New single-cell lipidomics method may unlock cancer treatments
A new method for a fragmentation-based identification of lipids could enable the study of cancer cells in detail not seen before.
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A new method for a fragmentation-based identification of lipids could enable the study of cancer cells in detail not seen before.
Learn more about Euretos computational disease model and how it predicts many of the known drug targets for RA.
iPS-cell-derived microglia in brain organoids have enabled scientists to understand early brain development and microglia-associated disease.
This ebook outlines Euretos’ approach to target discovery and indication expansion. Whilst also discussing data-driven target selection.
Lipid nanoparticles have been used to encapsulate CRISPR-Cas9 and deliver it to cells in mice, where it was highly effective at knocking down expression of a target protein.
The scientists discovered that dual knockout of genes in organoids grown from human tissue can generate a model of a potential therapeutic target for gastroesophageal junction cancer.
This exclusive interview highlights some of Dr Arthur Suckow’s insights into how his team uses RNA therapies to treat rare diseases such as Charcot-Marie-Tooth 1A.
Dr Sheraz Gul examines how patient-driven imaging strategies can be utilised to aid the translation of initial research all the way into the clinic.
Japanese researchers showed for the first time processes that are crucial targets for treating liver cancer are enhanced by saturated fatty acid diets.
The research has shown in high-resolution detail how certain lipids interact with pacemaker ion channels to enhance their activity.
The molecules, called SGDGs, may lead to new ways to treat age-related neurological diseases.
A study has shown that mRNA delivered via lipid nanoparticles blocks multiple variants of SARS-CoV-2 from entering cells in mice.
A new single-cell nanoparticle targeting-sequencing approach can measure the cellular uptake of lipid nanoparticles carrying mRNA therapies.
A new genetic discovery adds weight to a theory that motor neurone diseases are caused by abnormal lipid processing pathways inside brain cells.
In their latest study, researchers at Moffitt Cancer Center have shown that cancer cells in an acidic environment undergo lipid synthesis and accumulation.