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380 results about "Cell function" patented technology

High throughput functional genomics

InactiveUS20030065452A1High impedance sealReduce lateral flowMaterial nanotechnologyMicrobiological testing/measurementGenomicsBiotechnology
This invention focuses on the marriage of solid-state electronics and neuronal function to create a new high-throughput electrophysiological assay to determine a compound's acute and chronic effect on cellular function. Electronics, surface chemistry, biotechnology, and fundamental neuroscience are integrated to provide an assay where the reporter element is an array of electrically active cells. This innovative technology can be applied to neurotoxicity, and to screening compounds from combinatorial chemistry, gene function analysis, and basic neuroscience applications. The system of the invention analyzes how the action potential is interrupted by drugs or toxins. Differences in the action potentials are due to individual toxins acting on different biochemical pathways, which in turn affects different ion channels, thereby changing the peak shape of the action potential differently for each toxin. Algorithms to analyze the action potential peak shape differences are used to indicate the pathway(s) affected by the presence of a new drug or compound; from that, aspects of its function in that cell are deduced. This observation can be exploited to determine the functional category of biochemical action of an unknown compound. An important aspect of the invention is surface chemistry that permits establishment of a high impedance seal between cell and a metal microelectrode. This seal recreates the interface that enables functional patch-clamp electrophysiology with glass micropipettes, and allows extracellular electrophysiology on a microelectrode array. Thus, the invention teaches the feasibility of using living cells as diagnostics for high throughput real-time assays of cell function.
Owner:HICKMAN JAMES J

Multi-connecting-rod controllable mining mechanism with variable cell function

The invention discloses a multi-connecting-rod controllable mining mechanism with a variable cell function. The multi-connecting-rod controllable mining mechanism is characterized in that one end of a big arm is connected on a frame while the other end of the same is connected with a first connecting rod through a second rotating pair, the other end of the first connecting rod is connected with a second connecting rod, and the other end of the second connecting rod is connected with the middle of a fourth connecting rod; one end of a first driving member is connected to the frame while the other end of the same is connected with a bucket rod, and the other end of the bucket rod is connected with a bucket; the middle of the bucket rod is connected with the middle of the second connecting rod; one end of a second driving member is connected to the frame while the other end of the same is connected with a third connecting rod, the other end of the third connecting rod is connected with the fourth connecting rod through a tenth rotating pair, and the fourth connecting rod is connected to the bucket; a first electromagnetic locking device and a second electromagnetic locking device are respectively mounted on the second rotating pair and the tenth rotating pair and used for performing timely locking on a mining machine under different working conditions. The hydraulic mining machine is flexible, and manufacturing cost of the mining machine is lowered.
Owner:GUANGXI UNIV

High throughput functional genomics

This invention focuses on the marriage of solid-state electronics and neuronal function to create a new high-throughput electrophysiological assay to determine a compound's acute and chronic effect on cellular function. Electronics, surface chemistry, biotechnology, and fundamental neuroscience are integrated to provide an assay where the reporter element is an array of electrically active cells. This innovative technology can be applied to neurotoxicity, and to screening compounds from combinatorial chemistry, gene function analysis, and basic neuroscience applications. The system of the invention analyzes how the action potential is interrupted by drugs or toxins. Differences in the action potentials are due to individual toxins acting on different biochemical pathways, which in turn affects different ion channels, thereby changing the peak shape of the action potential differently for each toxin. Algorithms to analyze the action potential peak shape differences are used to indicate the pathway(s) affected by the presence of a new drug or compound; from that, aspects of its function in that cell are deduced. This observation can be exploited to determine the functional category of biochemical action of an unknown compound. An important aspect of the invention is surface chemistry that permits establishment of a high impedance seal between cell and a metal microelectrode. This seal recreates the interface that enables functional patch-clamp electrophysiology with glass micropipettes, and allows extracellular electrophysiology on a microelectrode array. Thus, the invention teaches the feasibility of using living cells as diagnostics for high throughput real-time assays of cell function.
Owner:HESPEROS
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