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Theranostics: From Mice to Men and Back
Jun 25, 2024
Recorded webinar
Presenters: Prof. Dr. Ken Herrmann and Prof. Dr. Katharina Lückerath – Moderator: Hannah Notebaert
X-RAD 320 for irradiation therapy during quantifying study for in vivo collagen reorganization
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Quantifying in vivo collagen reorganization during immunotherapy in murine melanoma with second harmonic generation...
Use of MRI and microCT to evaluate gene therapy for the treatment of discogenic back pain
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MRI images were obtained using the 9.4T Bruker BioSpec system, equipped with 40 mm 1H quadrature volume resonator, and...
High-frequency Ultrasound System For Preclinical Imaging
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The Prospect T1 is an innovative high-frequency ultrasound system designed specifically for in vivo preclinical imaging...
“Range+T “ for Tight Sizing of HMW Libraries
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We decided to do a deep dive into Range+T to get a better handle the method, and to develop best practices for using...
April 2024 publication revealing benefits of using intravital microscopy in trascriptomics studies
May 8, 2024
Transcriptional activation of Bmal1 drives the inflammatory activity of monocytes by modulating mitochondrial unfolded...
Minimal information for studies of extracellular vesicles (MISEV2023)
May 7, 2024
MISEV2023 is intended to aid any and all EV researchers: from those just starting their EV journey to more established...
Omics Studies of Tumor Cells under Microgravity Conditions
May 6, 2024
It is important for the analysis of data from space experiments to distinguish unspecific stress reactions from...
Apr 4, 2016
Next-generation sequencing (NGS) technologies have enabled high-throughput and low-cost generation of sequence data;however, de novo genome assembly remains a great challenge, particularly for large genomes. NGS short reads are often insufficient to create large contigs that span repeat sequences and to facilitate unambiguous assembly. Plant genomes are notorious for containing high quantities of repetitive elements, which combined with huge genome sizes, makes accurate assembly of these large and complex genomes intractable thus far. Using two-color genome mapping of tiling bacterial artificial chromosomes (BAC) clones on nanochannel arrays delivered by BioNano Genomics, scientists completed high-confidence assembly of a 2.1-Mb, highly repetitive region in the large and complex genome of Aegilops tauschii.
Brand profile
A revolutionary NanoChannel technology for Genome mapping of extremely long DNA without amplification, providing long-range contiguity and eliminating PCR bias.
More info at:
www.bionanogenomics.com
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