This is a broad portfolio that includes all aspects of life sciences. Some of the representative areas are bioengineering (brain computer interface, chips to grow and monitor cellular activities, and bioprinting), vaccines and therapeutics (nanolipoprotein particles for the delivery of vaccines and drugs, carbon nanotubes for drug delivery, KRAS inhibitors, and anti-bacterial minerals), medical diagnostics (molecular diagnostics, point-of-care testing, imaging, and forensic), life science instrumentation (PCR instruments, rapid PCR, fluid partitioning, microfluidics, and biosensors), and methods for the extraction and purification of rare earth elements using lanmodulin and other natural/synthetic bacterial proteins.
Portfolio News and Multimedia
In a groundbreaking development for addressing future viral pandemics, a multi-institutional team involving Lawrence Livermore National Laboratory (LLNL) researchers has successfully combined an artificial intelligence (AI)-backed platform with supercomputing to redesign and restore the effectiveness of antibodies whose ability to fight viruses has been compromised by viral evolution.
The team’s research is published in the journal Nature and showcases a novel antibody design platform comprising experimental data, structural biology, bioinformatic modeling and molecular simulations — driven by a machine-learning algorithm.
A Lawrence Livermore National Laboratory (LLNL) researcher and a colleague who helped him and his team commercialize their biomedical technology have garnered a national technology transfer award.
The award, from the Federal Laboratory Consortium (FLC), represents the 42nd technology transfer award that LLNL has won from the FLC since 1985.
Lawrence Livermore National Laboratory (LLNL) has joined forces with Precision Neuroscience Corporation (Precision) to advance the technology of neural implants for patients suffering from a variety of neurological disorders, including stroke, spinal cord injury and neurodegenerative diseases such as Lou Gehrig's disease.
Under the three-year collaboration, outlined in a Cooperative Research and Development Agreement (CRADA), LLNL scientists and engineers will work with Precision to develop future versions of the company’s neural implant – a thin-film microelectrode array called the Layer 7 Cortical Interface – with enhanced longevity.
LLNL researchers have discovered that some inexpensive and commercially available molecules used for other applications, could render certain lanthanide and actinide elements highly fluorescent. These molecules are not sold for applications involving the detection of REEs and actinides via fluorescence. They are instead used as additives in cosmetic products and/or in the pharmaceutical…
Many of the disadvantages of current interface devices can be overcome with LLNL’s novel interface design, which relies on area array distribution where independent interface connector subassemblies are positioned in a planar grid. Not only is the interface device expandable area-wise (without increasing contact force), but it could also be expanded height-wise, with multiple layers of these…
LLNL’s high throughput method involves proteome-wide screening for linear B-cell epitopes using native proteomes isolated from a pathogen of interest and convalescent sera from immunized animals. LLNL researchers have applied their newly developed generalizable screening method to the identification of pathogenic bacteria by screening linear B-cell epitopes in the proteome of Francisella…
Commercial fiber optic cables are the current standard for carrying optical signals in industries like communications or medical devices. However, the fibers are made of glass, which do not have favorable characteristics for applications that require flexibility and re-routing, e.g. typically brittle, limited selection of materials, dimension constraints.
LLNL has developed a brain-on-a-chip system with a removable cell-seeding funnel to simultaneously localize neurons from various brain regions in an anatomically relevant manner and over specific electrode regions of a MEA. LLNL’s novel, removable cell seeding funnel uses a combination of 3D printing and microfabrication that allows neurons from select brain regions to easily be seeded into…
LLNL has developed a novel process of production, isolation, characterization, and functional re-constitution of membrane-associated proteins in a single step. In addition, LLNL has developed a colorimetric assay that indicates production, correct folding, and incorporation of bR into soluble nanolipoprotein particles (NLPs).
LLNL has developed an approach, for formation of NLP/…