ebook: Vaccines in the digital age
In this ebook, we’ll see how digitally enabling your organisation can increase capacity and improve vaccine production.
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In this ebook, we’ll see how digitally enabling your organisation can increase capacity and improve vaccine production.
In a zebrafish model, researchers have found that the protein NAPMT can trigger muscle stem cells to proliferate and heal muscle damage.
CRISPR-Cas9 and stem cell technologies have been used to create a cellular model of acute myeloid leukaemia, revealing therapeutic targets.
This whitepaper describes the automated culturing of hiPSC-derived cells for high-throughput phenotypic screening, using validated phenotypic assays.
Researchers have uncovered a flaw in lab models used to study the human blood-brain barrier and a potential strategy to correct the error.
A study using stem cells has revealed that DCM-causing mutations in LMNA disrupt the organisation of DNA in the nucleus of heart muscle cells.
Researchers have discovered that two enzymes called APOBEC3C and ADAR1 work together to fuel the transition from pre-cancer stem cells to cancer stem cells in leukaemia.
In this whitepaper we explore some of the major bottlenecks in the development lifecycle and the current barriers to effective digital transformation.
The patient-derived model of non-alcoholic fatty liver disease (NAFLD) accurately reproduced the complex human metabolic pathways involved in the development of the disease.
Using a new compound mixture, researchers have created adaptive and regenerative stem cells from human fat cells.
This tissue-specific handbook brings you key publications, in-house protocols and troubleshooting recommendations for your organoid cell culture.
Researchers have developed a new technique that that could one day enable us to grow fully functional human organs in the laboratory.
Researchers will use the in vitro model to study how respiratory viruses, like SARS-CoV-2, cause Acute Respiratory Distress Syndrome (ARDS) and develop potential interventions.
A new study reveals that the healing process following a brain injury could initiate the growth of glioblastoma cancers.
Scientists suggest that research using XPSCs, an intermediate form of embryonic stem cell, could help accelerate the development of stem cell-derived tissues and organs for transplantation.