mhurhangee/ep-ind-claims huggingface dataset:
A separating agent for optical isomers, comprising: an inclusion complex including a π-conjugated polymer in a polymer compound having a hydroxy group or an amino group; and a porous organic or inorganic carrier, wherein the inclusion complex is immobilized on the porous organic or inorganic carrier by physical adsorption or by a chemical bond, and wherein the polymer compound is a polysaccharide. wherein the inclusion complex is immobilized on the porous organic or inorganic carrier by physical adsorption or by a chemical bond, and wherein the polymer compound is a polysaccharide.
Battery stack, having at least one battery level with at least one battery cell and a detection device, the detection device being configured for detecting at least one battery characteristic of the at least one battery cell of the at least one battery level of the battery stack, the detection device having a carrier with at least one electrical line element and at least one contact element with a contact section for contacting a mating contact section of the at least one battery cell, the contact element having a sensor section for detecting the at least one battery characteristic of the battery cell and the sensor section being connected in a data-communicating manner to the at least one line element for forwarding the at least one detected battery characteristic, characterized in that the contact element is designed to be flexible at least in sections and has a magnetic element for magnetically fixing the contact section to the mating contact section.
A complete genomic analysis device, the device comprising: a thermal chip module comprising multiple self-contained composite liquid cell locations; a mechanically actuated lid for the thermal chip module; a CLC production station configured to access each self-contained CLC location of the thermal chip module; a sample receiving location; a reagent receiving location; a robotically controlled liquid handler configured to transfer liquid between the sample receiving location, the reagent receiving location, and the thermal chip module; and an interrogation station configured to interrogate each self-contained CLC location of the thermal chip module. a thermal chip module comprising multiple self-contained composite liquid cell locations; a mechanically actuated lid for the thermal chip module; a CLC production station configured to access each self-contained CLC location of the thermal chip module; a sample receiving location; a reagent receiving location; a robotically controlled liquid handler configured to transfer liquid between the sample receiving location, the reagent receiving location, and the thermal chip module; and an interrogation station configured to interrogate each self-contained CLC location of the thermal chip module.
An atherectomy and thrombectomy system comprising: a catheter body (112, 210) extending from a proximal catheter portion to a distal catheter portion, the catheter body including an aspiration lumen extending from the distal catheter portion to the proximal catheter portion; an atherectomy assembly coupled with the distal catheter portion, the atherectomy assembly includes a rotatable cutter; a thrombectomy assembly coupled with the distal catheter portion, characterised in that, the thrombectomy assembly is operable in atherectomy and thrombectomy configurations, the thrombectomy assembly includes: a jet body positioned within the aspiration lumen, an inflow orifice extending through the catheter body and in communication with the aspiration lumen, and an outflow orifice extending through the catheter body and in communication with the aspiration lumen, the inflow orifice is closer to the jet body than the outflow orifice; wherein a cyclical flow is generated by the jet body through the outflow and inflow orifices; in the thrombectomy configuration, the cyclical flow abrades and entrains thrombus (606, 608) and delivers thrombus into the aspiration lumen; and in the atherectomy configuration the rotatable cutter cuts plaque (610, 612) into plaque particulate, and the cyclical flow entrains the plaque particulate and delivers the plaque particulate into the aspiration lumen. a catheter body (112, 210) extending from a proximal catheter portion to a distal catheter portion, the catheter body including an aspiration lumen extending from the distal catheter portion to the proximal catheter portion; an atherectomy assembly coupled with the distal catheter portion, the atherectomy assembly includes a rotatable cutter; a thrombectomy assembly coupled with the distal catheter portion, characterised in that, the thrombectomy assembly is operable in atherectomy and thrombectomy configurations, the thrombectomy assembly includes: a jet body positioned within the aspiration lumen, an inflow orifice extending through the catheter body and in communication with the aspiration lumen, and an outflow orifice extending through the catheter body and in communication with the aspiration lumen, the inflow orifice is closer to the jet body than the outflow orifice; wherein a cyclical flow is generated by the jet body through the outflow and inflow orifices; a jet body positioned within the aspiration lumen, an inflow orifice extending through the catheter body and in communication with the aspiration lumen, and an outflow orifice extending through the catheter body and in communication with the aspiration lumen, the inflow orifice is closer to the jet body than the outflow orifice; wherein a cyclical flow is generated by the jet body through the outflow and inflow orifices; in the thrombectomy configuration, the cyclical flow abrades and entrains thrombus (606, 608) and delivers thrombus into the aspiration lumen; and in the atherectomy configuration the rotatable cutter cuts plaque (610, 612) into plaque particulate, and the cyclical flow entrains the plaque particulate and delivers the plaque particulate into the aspiration lumen.
An aircraft control system, comprising: a processor; and a non-volatile computer readable storage medium having stored therein computer-executable components executable by the processor, the computer-executable components comprising: a mapping component configured to map noise-restricted areas of a flight path defined by respective relative positions of an aircraft to ground noise restriction locations; and a noise abatement component that configured to compute a thrust and to control the aircraft in the noise restriction locations, wherein the thrust computed by the noise abatement component facilitates operation of the aircraft while retaining noise below a defined noise level, wherein the noise abatement component is configured to compute the thrust and to control the aircraft in the noise restriction locations based on a line-of-sight distance from the aircraft to a geographical point of interest. a processor; and a non-volatile computer readable storage medium having stored therein computer-executable components executable by the processor, the computer-executable components comprising: a mapping component configured to map noise-restricted areas of a flight path defined by respective relative positions of an aircraft to ground noise restriction locations; and a noise abatement component that configured to compute a thrust and to control the aircraft in the noise restriction locations, wherein the thrust computed by the noise abatement component facilitates operation of the aircraft while retaining noise below a defined noise level, wherein the noise abatement component is configured to compute the thrust and to control the aircraft in the noise restriction locations based on a line-of-sight distance from the aircraft to a geographical point of interest. a mapping component configured to map noise-restricted areas of a flight path defined by respective relative positions of an aircraft to ground noise restriction locations; and a noise abatement component that configured to compute a thrust and to control the aircraft in the noise restriction locations, wherein the thrust computed by the noise abatement component facilitates operation of the aircraft while retaining noise below a defined noise level, wherein the noise abatement component is configured to compute the thrust and to control the aircraft in the noise restriction locations based on a line-of-sight distance from the aircraft to a geographical point of interest.
A method of producing a fibre-reinforced product which method comprises the steps of: a) placing at least one porous member in a mould; b) placing one or more layer(s) of reinforcing fibres in the mould; c) introducing resin for distribution through the porous member to the fibre layers; and d) allowing the resin to cure and the porous distribution member to coalesce to form a continuous layer wherein the porous member is placed so as to form an outermost layer when coalesced, said outer layer having the same characteristics as traditional gelcoat materials. a) placing at least one porous member in a mould; b) placing one or more layer(s) of reinforcing fibres in the mould; c) introducing resin for distribution through the porous member to the fibre layers; and d) allowing the resin to cure and the porous distribution member to coalesce to form a continuous layer
A system for providing a sterile fluid connection between a first fluid channel and a second fluid channel, comprising a first coupling element arranged at an orifice of the first fluid channel and a second coupling element arranged at an orifice of the second fluid channel, wherein the first coupling element and the second coupling element each comprise a foil that closes the orifice of the respective fluid channel (2, 3) and may be peeled off of the orifice, wherein the system comprises a connecting element separated from the first coupling element and the second coupling element, which is configured to accommodate the first coupling element and the second coupling element in the region of the orifices of the fluid channels (2, 3) at least in some sections and to press the orifices of the fluid channels (2, 3), which are closed by the foils, against one another, wherein the connecting element has a recess arranged essentially in the plane of the orifices of the fluid channels (2, 3) for passing the foils through the connecting element, characterized in that the connecting element is configured as a union clamp, and in that the union clamp has a bottom part, a top part connected to the bottom part by means of a hinged joint and a clamping element arranged on a side essentially opposite to the hinged joint for locking the top part at the bottom part, wherein the union clamp comprises a fixing element connected to the clamping element in an articulated way as well as a locking element arranged in the region of the hinged joint, wherein the fixing element is configured to span the top part of the union clamp, starting from the clamping element, and wherein the locking element is configured to lock the fixing element in a position spanning the top part of the union clamp.
A data cache method in a multi-node system, wherein the multi-node system comprises a cache medium, a disk array, and multiple nodes, wherein each node has a respective independent processor, and the method comprises: dividing (S201, S401, S601) a cache area in the cache medium into multiple sub-areas, wherein each sub-area is corresponding to a node in the multi-node system; dividing (S202, S402, S602) each of the sub-areas into a thread cache area and a global cache area, wherein there is a mapping established between the thread cache area and the disk array by adopting a fully associative mapping manner, and there is a mapping established between the global cache area and the disk array by adopting a set-associative mapping manner; when a process reads a file, detecting a read frequency of the file; and when the read frequency of the file is greater than a first threshold and the size of the file does not exceed a second threshold, caching the file in the thread cache area of one of the sub-areas, or when the read frequency of the file is greater than the first threshold and the size of the file exceeds the second threshold, caching the file in the global cache area of one of the sub-areas. dividing (S201, S401, S601) a cache area in the cache medium into multiple sub-areas, wherein each sub-area is corresponding to a node in the multi-node system; dividing (S202, S402, S602) each of the sub-areas into a thread cache area and a global cache area, wherein there is a mapping established between the thread cache area and the disk array by adopting a fully associative mapping manner, and there is a mapping established between the global cache area and the disk array by adopting a set-associative mapping manner; when a process reads a file, detecting a read frequency of the file; and when the read frequency of the file is greater than a first threshold and the size of the file does not exceed a second threshold, caching the file in the thread cache area of one of the sub-areas, or when the read frequency of the file is greater than the first threshold and the size of the file exceeds the second threshold, caching the file in the global cache area of one of the sub-areas.
Closure element for securing a ball joint, wherein the closure element comprises two mutually transversely arranged brackets (14, 16), and wherein a first bracket is provided for securing the ball joint and the second bracket is provided for positioning the closure element during the mounting of the ball joint, characterized in that the first bracket features a blocking side and a bracket side, wherein the blocking side has a fastening slot for fixing the closure element and the bracket side features the second bracket.
A panel comprising: a frame having a first frame portion and a second frame portion, the first and second frame portions each being provided with a longitudinal channel, a gripper member comprising a gripper element, the gripper element being located within the channel of the second frame portion to form a resilient slot therein, wherein the gripper element is a flexible flap of the same width as, or wider than, the width of the channel of the second frame portion, which acts to close off the channel of the second frame portion to provide, together with a wall of the channel of the second frame portion, the resilient slot, and sheet material extending across the frame between the frame portions, wherein a first edge portion of the sheet material is inserted into the channel of the first frame portion and a second edge portion of the sheet material is inserted into the channel of the second frame portion, wherein the first edge portion of the sheet material comprises a region of stiffened edging (6; 6a; 6b) that is located within the channel of the first frame portion and wherein the resilient slot provided by the gripper element is arranged to receive and grip the second edge portion of the sheet material when the second edge portion of the sheet material is inserted into the resilient slot. a frame having a first frame portion and a second frame portion, the first and second frame portions each being provided with a longitudinal channel, a gripper member comprising a gripper element, the gripper element being located within the channel of the second frame portion to form a resilient slot therein, wherein the gripper element is a flexible flap of the same width as, or wider than, the width of the channel of the second frame portion, which acts to close off the channel of the second frame portion to provide, together with a wall of the channel of the second frame portion, the resilient slot, and sheet material extending across the frame between the frame portions, wherein a first edge portion of the sheet material is inserted into the channel of the first frame portion and a second edge portion of the sheet material is inserted into the channel of the second frame portion, wherein the first edge portion of the sheet material comprises a region of stiffened edging (6; 6a; 6b) that is located within the channel of the first frame portion and wherein the resilient slot provided by the gripper element is arranged to receive and grip the second edge portion of the sheet material when the second edge portion of the sheet material is inserted into the resilient slot.
Composite material comprising 10-95 wt.% of a particulate or fibrous filler derived from plant- or animal-based materials and at least 5 wt.% of a polyester derived from an aliphatic polyalcohol with 2-15 carbon atoms and a polyacid, wherein the polyacid comprises at least 10 wt.% of citric acid as tricarboxylic acid.
Laser welding system comprising: a source for a laser beam; a collimator which is adapted to collimate the laser beam; and a focusing means which is adapted to focus the collimated laser beam onto a concentrated point on a workpiece to be welded, wherein an optical element is arranged between the collimator and the focusing means, the optical element being adapted to spread a power distribution of the laser beam along a first direction running at an angle to an axis of the collimated laser beam, characterized by a bifocal element which is arranged either between the optical element and the collimator or between the optical element and the focusing means. a source for a laser beam; a collimator which is adapted to collimate the laser beam; and a focusing means which is adapted to focus the collimated laser beam onto a concentrated point on a workpiece to be welded, wherein an optical element is arranged between the collimator and the focusing means, the optical element being adapted to spread a power distribution of the laser beam along a first direction running at an angle to an axis of the collimated laser beam, characterized by a bifocal element which is arranged either between the optical element and the collimator or between the optical element and the focusing means.
A mold-tool system for use with a molding-system platen structure, the mold-tool system comprising: a frame assembly being connectable with the molding-system platen structure and including a hot-runner frame assembly of a mold-runner system, and a melt distribution assembly being connected to a set of shooting-pot assemblies and configured to distribute a melt to the set of shooting-pot assemblies, the melt distribution assembly including a relatively lower pressure circuit and a relatively higher pressure circuit with the relatively lower pressure circuit being configured to connect a machine nozzle of a melt liquefier assembly with the set of shooting-pot assemblies, and the relatively higher pressure circuit being configured to connect the set of shooting-pot assemblies with a mold assembly, characterised by the set of shooting-pot assemblies being supported by the frame assembly and control of each shooting-pot assembly of the set of shooting-pot assemblies being independent, wherein each shooting-pot assembly includes a plunger, a shooting-pot housing defining an internal chamber configured to receive the melt, and a sleeve-refill valve, the shooting-pot housing being configured to interface via ports with the lower pressure circuit and the higher pressure circuit, and the sleeve-refill valve being configured to slide along the shooting-pot housing so as to open and close the ports. a frame assembly being connectable with the molding-system platen structure and including a hot-runner frame assembly of a mold-runner system, and a melt distribution assembly being connected to a set of shooting-pot assemblies and configured to distribute a melt to the set of shooting-pot assemblies, the melt distribution assembly including a relatively lower pressure circuit and a relatively higher pressure circuit with the relatively lower pressure circuit being configured to connect a machine nozzle of a melt liquefier assembly with the set of shooting-pot assemblies, and the relatively higher pressure circuit being configured to connect the set of shooting-pot assemblies with a mold assembly, characterised by the set of shooting-pot assemblies being supported by the frame assembly and control of each shooting-pot assembly of the set of shooting-pot assemblies being independent, wherein each shooting-pot assembly includes a plunger, a shooting-pot housing defining an internal chamber configured to receive the melt, and a sleeve-refill valve, the shooting-pot housing being configured to interface via ports with the lower pressure circuit and the higher pressure circuit, and the sleeve-refill valve being configured to slide along the shooting-pot housing so as to open and close the ports.
A fastening element, comprising: a gripping portion; a plurality of gripping elements extending from the gripping portion; a supporting portion being defined by at least one supporting-portion wall extending from the gripping portion in a direction opposite that of the gripping elements, the supporting portion having a supporting-portion width smaller than a gripping-portion width of the gripping portion, such that a top flange is formed by the gripping portion relative to the supporting portion on at least one side of the fastening element; and an anchoring portion extending from a distal end of at least one supporting-portion wall and parallel to the gripping portion so as to form a bottom flange relative to the supporting portion on the at least one side corresponding to the top flange, a groove formed between the bottom flange and the top flange; characterized by one or more protrusions extending from a plane comprising a bottom surface of the anchoring portion and extending beyond an envelope surface of the fastening element body so as to create an interference fit when inserted into a housing. a gripping portion; a plurality of gripping elements extending from the gripping portion; a supporting portion being defined by at least one supporting-portion wall extending from the gripping portion in a direction opposite that of the gripping elements, the supporting portion having a supporting-portion width smaller than a gripping-portion width of the gripping portion, such that a top flange is formed by the gripping portion relative to the supporting portion on at least one side of the fastening element; and an anchoring portion extending from a distal end of at least one supporting-portion wall and parallel to the gripping portion so as to form a bottom flange relative to the supporting portion on the at least one side corresponding to the top flange, a groove formed between the bottom flange and the top flange; characterized by one or more protrusions extending from a plane comprising a bottom surface of the anchoring portion and extending beyond an envelope surface of the fastening element body so as to create an interference fit when inserted into a housing.
Molecule of general formula: wherein A is selected from a receptor or a ligand of a receptor-ligand system; X is selected from an oxygen atom or a carbon atom; y is an integer number from 0 to 10; L is a molecule of general formula: Z is an integer number comprised in the range 2 to 10; and enantiomers thereof, wherein the ligand-receptor system is selected from: biotin-avidin, biotin-streptavidin, biotin-neutravidin, alkyne residue-azide residue. A is selected from a receptor or a ligand of a receptor-ligand system; X is selected from an oxygen atom or a carbon atom; y is an integer number from 0 to 10; L is a molecule of general formula: Z is an integer number comprised in the range 2 to 10; and enantiomers thereof, wherein the ligand-receptor system is selected from: biotin-avidin, biotin-streptavidin, biotin-neutravidin, alkyne residue-azide residue.