Scientific Library
AAV - advantages for Gene delivery in vivo
Adenoassociated viruses (AAV) are small (20-30 nm), ssDNA, non-enveloped and replication-defective viruses that infect human and other primate species, but which, up to now, have not been reported as being
Adenovirus: weapons of mass transduction for gene delivery
Adenovirus (AV) are non-enveloped and non-integrative icosaedral viruses. Recombinant AV (genetically modified with respect to the wild-type in order to lose their capacity of replication) are widely used
HD-LCI video of HUVEC Transfection with Cytofect Kit
See human cells glow with green fluorescent protein in this time-lapse video. These images were captured over 20 hours via Lumascope 620.
[youtube https://www.youtube.com/watch?v=k5esUe_rrr4]
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High Definition
Cost-efficient pre-optimized transfection reagents
The main challenge when choosing a transfection reagent is that we don't know how it will work with our own cell type of interest. It is also time consuming to find the optimal conditions. Well, here's
3D Cell culture: Innovative cell culture devices for more predictive 3D models
One of the biggest challenges as a researcher in life sciences, is to obtain proof of concept the more predictive as possible. To help you to reach your objectives, many innovative tools are being developed
3D cell culture Biochip - versatile for more physiological applications
By mimicking in-vivo environments, 3D cell culture models appear nowadays as the best in-vitro study model to work in an in-vivo like study model and to obtain more physiologically relevant data and proof
AIM Biochips - 3D cell culture platform for Immunotherapy and T Cell therapy studies
As mentioned in a previous post the DAX Biochips from AIM Biotech are an innovative and versatile microfluidic platform, allowing researchers to more easily develop 3D cell culture models, to work as close
Reprogramming stem cells: a new innovative technology for the development of consistent and functional human cells
To overcome current cell model limitations, bit.bio have developed a new, innovative technology to reprogram human stem cells with precise control of transcription factor expression through iPSC engineering.
Consistent, scalable human iPSC-derived glutamatergic neurons and skeletal myocytes
As detailed in a separate post, bit.bio have developed a novel cellular reprogramming technology, opti-ox™1 (optimized inducible overexpression), that can generate functional cells with high consistency