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A Transposon Vector From Aedes Aegypti For Use In Vertebrate And Invertebrate Gene Transfer

Background: Therapeutic delivery of genes is a rapidly evolving technique used to treat or prevent a disease at the root of the problem. Another widely used variation of this technique is to insert a transgene into animals and crops for production of desirable proteins. The global transgenic market is currently $24B with annual growth projections of 10%.  Brief Description: UCR Researchers have identified a novel transposon from Aedes aegypti mosquitoes. This mobile DNA sequence can insert itself into various functional genes to either cause or reverse mutations. They have successfully developed a transposon vector system that can be used in both unicellular & multicellular organisms, which can offer notable insight to enhance current transgenic technologies as well as methods of gene therapy.

Markers to Identify Primary Cells from Tumor Biopsies

Researchers at UC Irvine have developed a novel immunofluorescent imaging strategy to identify cell subsets of interest, in particular cancer stem cells, endothelial progenitor cells, and other primary adherent cells from tumor biopsies.

Cell Identification Strategy Using Functionalized Micropallet Arrays

Cell identification is an important procedure for many applications. Current processing methods for single cell identification from a large heterogeneous population face drawbacks such as loss of cell morphology, removal of surface markers, damage to the membrane, and loss of cell viability.Therefore, an improved method for single cell identification that preserves cell viability and overcomes the previously mentioned limitations is desired. Researchers at UC Irvine have invented a method to identify and collect single adherent cells from a mixed population using an existing micropallet array platform. This allows users to identify and extract single cells from a mixed population for subsequent studies or processing.

Real-Time, Label-Free Detection of Nucleic Acid Amplification in Droplets Using Impedance Spectroscopy and using Solid-Phase Substrates

Researchers at UC Irvine have developed a technology to detect the presence of nucleic acid amplification in a droplet. This technology yields real time detection of DNA or RNA amplication in a high throughput integrated microfluidic platform.

Dielectrophoresis-Based Cell Destruction to Eliminate/Remove Unwanted Subpopulations of Cells

This invention allows for label free cell separations and cell enrichment.


This invention enables the direct measurement of the comprehensive activity of multiple kinase enzymes simultaneously, thereby enabling the mapping of functional kinase networks.   

Novel IGF2 Signalling Inhibition

Researchers at the University of California Davis have developed novel proteins for the inhibition of IGF2 signaling without adversely affecting glucose metabolism.

A Method For Autocatalytic Genome Editing

The CRISPR/CAS9 (clustered regularly interspaced short palindromic repeats/CRISPR-associated genes) system has been found to be adaptable to nearly every organism studied including mammalian cells, fruit flies, and plants.  The broad adaptability of this system has lead in the past year to significant strides in refining the methodology and in the generation of many additional applications.  The innovation we propose is based solidly on existing technologies and should work in flies, mosquitos, human cells, and plants. 

The Reconstruction Of Ancestral Cells By Enzymatic Recording

This invention enables the barcoding of individual cells at the DNA level, thereby facilitating lineage tracing of cells. 

A Method for Producing Guide RNA Molecules for CRISPR Genome Editing

Guide RNAs are RNAs that guide the insertion or deletion of uridine into mitochondrial mRNAs in the process of RNA editing. They are also an essential component for clustered regularly interspaced short palindromic repeats (CRISPR)-mediated genome editing, which has been widely used to knock out genes in human cells, rodents, zebra fish, C. elegans, Drosophila, yeast, and plants. The earlier methods for guide RNA production in vivo were limited to using U6 and U3 snRNA promoters. There was no reliable and efficient method for producing guide RNA in vitro.

Targeted biological signal enhancement

This research tool consists of a two-vector system that can recruit an amplified biological signal to intra-cellular targets of interest.

Markers To Identify Primary Cells From Tumor Biopsies

Researchers at UC Irvine have developed a novel immunofluorescent imaging strategy to identify cell subsets of interest, in particular cancer stem cells, endothelial progenitor cells, and other primary adherent cells from tumor biopsies.

A Novel Rapid and Highly Sensitive Cell Based System for the Detection and Characterization of HIV

Dr. Benhur Lee and colleagues in the UCLA Department of Microbiology, Immunology and Molecular Genetics have developed a novel system to detect and characterize HIV with unprecedented sensitivity and rapidity.  


The fate of somatic cells can be reprogrammed to the pluripotent state by the combination of a few transcription factors, resulting in induced pluripotent stem cells (iPSCs). One of the most important aspects of somatic cell reprogramming is the possibility of using iPSCs to model human diseases in order to recapitulate their development, pathology and drug responsiveness. Although the field of iPSCs has advanced significantly in recent years, much still remains unclear in the reprogramming process itself, the differentiation potential of cells and their future use in clinical therapy. Recent evidence suggests that iPSCs can exist in alternative states, which can influence the potential of cells to make different cell types. Thus, it has become critically important to develop an efficient method to identify and isolate these alternative states, which will provide tremendous insights in the reprogramming process and differentiation potential of the cells.

Privacy Preserving Genomic Mobile Device Computational Infrastructure

The technology is infrastructure forsecure and private operationsusinghuman genomes. The properties include methods for private and secure genomic operations between two individuals (or an individual and a physician) who wish to compare their genomes without revealing them to each other Makes use of well-known cryptographic tools. The technology has low overhead. The technology is used for personalized medicine and social applications where access to the human genome is useful, such as paternity testing or determination of common ancestry.

In-vitro display technology using double labeling of single molecules to visualize conformational dynamics

Directed evolution and drug discovery require high-throughput, efficient screens of DNA libraries to isolate the candidates that exhibit the desired observable phenotype. Berkeley researchers have developed a new double fluorescent method to label ribosome-bound nascent chains which allows for high-throughput screening based on conformational dynamics. This can be used in conjunction with existing ribosome or mRNA display technologies and single molecule direct sequencing methods to provide a rapid link between single molecule conformational phenotypes and the corresponding phenotype.

String Matching in Hardware using the FM-Index

UC Researchers have developed a Field-Programmable-Gate-Array (FPGA) based hardware implementation that utilizes the FM-Index for exact pattern matching for string searching.  This method of FM-Index string matching has a higher effective throughput than brute force due to the higher number of character comparisons per cycle performed by the FM-Index.  Further, the speed of this method is in the order of two orders of magnitude greater than Bowtie software tools and ten to seventy times faster than the traditional method using FHAST.  

Targeted Amplification of Mammalian Genome Sequences Using a Novel Deep Sequencing Approach: High Resolution Analysis of Mammalian Transcriptomes Using Designed Primers

Sequencing based approaches of gene expression analysis generate millions of sequence tags, thus providing the dynamic range required to investigate genes of low abundance. Currently available digital gene expression analysis systems offer the potential for high-throughput transcriptomic measurements, however truly quantitative data are routinely not obtained. The most widely used RNA-seq protocol relies upon fragmentation of mRNA generating a library of uniformly distributed fragments of mRNA. This protocol requires large amounts of starting material (100ng of mRNA) limiting its application in many fields such as in developmental biology, where it is impractical to get such large amounts. Furthermore, this protocol maintains the relative order of transcript expression resulting in poor representation of low abundance transcripts at current sequencing depths. Multireads and biases introduced by transcript length and random hexamer primer hybridization further restrict reliable quantitation of low abundance transcripts for large mammalian transcriptomes. While random priming strategies amplify starting material (mRNA or cDNA) by exploiting hybridization and extension potential of hexamer/heptamer primers, they often result in low yield of good quality reads arising out of mis-hybridization of primers and primer dimerization. In a recent experiment, the inventors used a widely available sequencer to generate sequence tags via random priming strategy. Only 18% of the reads mapped uniquely to the transcriptome and low abundant transcripts were significantly under-represented because of poor dynamic range. Since many genes (signal transduction, transcription factors) are only expressed at relatively low levels, currently available strategies fall short in statistically quantifying these genes.

Stable Human Embryonic Kidney 293 Cells Expressing Rpn11-Htbh

The 26S proteasome is the macromolecular machine of the ubiquitin proteasome-dependent degradation pathway that is responsible for most of the nonlysosomal protein degradation in both the nucleus and cytosol. It is involved in many important biological processes such as cell cycle progression, apoptosis, and DNA repair. Human proteasome complexes are conventionally purified by ultracentrifugation and multiple chromatographic techniques, which are time consuming and require a lot of materials. A strategy that allows for fast and effective purification of human proteasomes will be an important research tool. Researchers at the University of California, Irvine have developed a new affinity purification strategy for rapid and effective isolation of the human 26S proteasome. The 293 cell line is robust and can stably express Rpn11-HTBH. It is a cell line that allows the affinity purification of the human 26S proteasome under both native and denaturing conditions. It allows the purification of the human 26S proteasome complex after in vivo cross-linking.

A Semisynthetic Approach to Production of Keppra

UCLA researchers have designed novel metabolic pathways in E. Coli to easily produce the starting chiral synthons for Keppra synthesis from glucose.

Synthetic transcriptional control elements

Much of bacterium’s regulatory potential is included in 5’-untranslated regions (5’-UTRs), which control the expression of physically adjacent downstream genes.  When engineering custom regulators for 5’-UTRs, there is a tradeoff between ease of design for regulators of translation and versatility of output for regulators of transcriptional continuation.  Scientists at UC Berkeley have developed a method for converting cis-regulators of translation into synthetic translation-coupled regulators of transcription and related compositions.  The compositions and methods involve a nucleic acid construct including a synthetic translation-coupled regulator of transcription (synthetic TCRT) that includes a cis-regulator of translation coupled to an adapter.  The resulting custom regulators are easy to design, can operate on entire operons and can be composed into logics and higher-order functions. 


Plant growth and development depends on the coordination of gene expression in a tissue-, temporal-, or signal-dependent manner. Often, the complex expression pattern observed for a given gene derives from regulation at both the transcriptional and post-transcriptional levels. This multi-layered approach to gene control is part of what makes plants robust, adaptable, and efficient as living photosynthetic systems. Complex gene regulation requires a multi-level approach. Current technology for transgene regulation in plants is based almost exclusively on transcriptional activation. For example, tissue-specific and stress-responsive promoters are extensively employed for inducible gene regulation, though many of these conditional promoters are species-specific. Alternative splicing of mRNA is an important mechanism of gene regulation in plants. The two possible consequences of alternative splicing of an mRNA are: (i) to change the protein coding sequence, by inserting or deleting sequences, or by shifting the reading frame, or (ii) to change the fate of the mRNA, by inserting or deleting sequences that target the RNA for degradation, localization, or other processes. This research has identified how to use RNA elements that regulate alternative splicing of mRNAs for inducible control of gene expression.

Plasmid Expressing Recombinant RILP-GST Protein

Researchers at the University of California, Irvine have developed a plasmid that expresses recombinant GST-RILP protein. RILP is a Rab7 effector protein and therefore selectively binds the GTP-bound form of Rab7.

Regulation Of Transcription With Unnatural Amino Acid Molecules

Small molecule regulation of transcription is intrinsic to cellular function and indispensible to the construction of new biological sensing, control, and expression systems. However, there are currently only a handful of strategies for engineering such regulatory components and fewer still that can give rise to an arbitrary large set of inducible systems whose members respond to different small molecules, display uniformity and modularity in their mechanisms of regulation, and combine to actuate universal logics. Scientists at UC Berkeley developed a new platform for small molecule regulation of gene expression based on genetically encoded unnatural amino acids (UAAs). In this system, any genetically encoded UAA can be used as a small molecule attenuator or activator of gene transcription. Furthermore, the logics intrinsic to the network defined by expanded genetic codes can be actuated.

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