mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic audio speaker, comprising: a backing plate comprising a first major surface and a conductive region, the backing plate further comprising a plurality of textural elements disposed on the first major surface; and a flexible layer disposed adjacent the first major surface of the backing plate, the flexible layer comprising a conductive region and an insulative region, wherein the flexible layer is disposed adjacent the backing plate such that the insulative region is positioned between the backing plate and the conductive region of the flexible layer and such that there is a volume of air between the flexible layer and surfaces of the textural elements; wherein the backing plate and the flexible layer are configured to be electrically coupled to a respective one of a pair of signal lines carrying an audio modulated ultrasonic carrier, and further wherein, upon application of the audio modulated ultrasonic carrier the flexible layer is configured to launch a pressure-wave representation the audio modulated ultrasonic carrier signal into the air; wherein the textural elements comprise a plurality of ridges disposed on the first major surface of the backing plate, the ridges being positioned parallel to one another running across all or part of the backing plate, with a corresponding valley disposed between each adjacent pair of parallel ridges; wherein each ridge of the plurality of ridges comprises two surfaces extending from adjacent valleys and a flattened portion running along a peak of the ridge; and wherein a top surface of each ridge of the plurality of ridges comprises a a plurality of high points and depressions that provide a contour to the top surface. a backing plate comprising a first major surface and a conductive region, the backing plate further comprising a plurality of textural elements disposed on the first major surface; and a flexible layer disposed adjacent the first major surface of the backing plate, the flexible layer comprising a conductive region and an insulative region, wherein the flexible layer is disposed adjacent the backing plate such that the insulative region is positioned between the backing plate and the conductive region of the flexible layer and such that there is a volume of air between the flexible layer and surfaces of the textural elements;
A botanical composition and bicalutamide for use in the treatment or reducing the severity of prostate cancer in a subject, wherein the botanical composition comprises extracts in organic medium of Ganoderma lucidum, Salvia miltiorrhiza, and Scutellaria barbata, wherein each extract comprises from about 1 to about 90 percent w/w and wherein the botanical composition is effective for reducing androgen receptor protein expression; wherein an effective amount of the botanical composition and an effective amount of bicalutamide are to be co-administered, and wherein the co-administration of bicalutamide and the botanical composition achieves more effective therapy than administration of either agent alone.
A monoclonal antibody that binds to ANGPTL3 and decreases the level of at least one serum lipid in vivo, wherein the monoclonal antibody binds to an epitope of ANGPTL3 having the amino acid sequence of SEQ ID NO: 10.
A kit for multiplex detection of influenza A or influenza A and influenza B virus in a biological sample, the kit comprising a mixture of primers and probes said mixture comprising a set of oligonucleotides comprising at least one forward primer and at least one reverse primer and at least one probe, wherein the forward primer comprises the nucleotide sequence of SEQ ID NO:1, the reverse primer comprises the nucleotide sequence of SEQ ID NO:2 and the probe comprises the nucleotide sequence of SEQ ID NO:3, and said mixture further comprising one or more sets of oligonucleotides selected from the group comprising: a. a forward primer comprising the nucleotide sequence of SEQ ID NO: 4 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 5 and at least one probe comprising SEQ ID NO:6 to detect swine-origin H1N1; b. a forward primer comprising the nucleotide sequence of SEQ ID NO: 7 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 8 and at least one probe comprising SEQ ID NO:9 to detect swine-origin H1N1; c. a forward primer comprising the nucleotide sequence of SEQ ID NO: 10 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 11 and at least one probe comprising SEQ ID NO:12 to detect seasonal H1N1; d. a forward primer comprising the nucleotide sequence of SEQ ID NO: 13 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 14 and at least one probe comprising SEQ ID NO:15 to detect seasonal H3N2, and e. a forward primer comprising the nucleotide sequence of SEQ ID NO: 16 and a reverse primer comprising the nucleotide sequence selected from SEQ ID NO: 17 and 18 and at least one probe comprising or consisting of SEQ ID NO: 19 to detect influenza B. a. a forward primer comprising the nucleotide sequence of SEQ ID NO: 4 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 5 and at least one probe comprising SEQ ID NO:6 to detect swine-origin H1N1; b. a forward primer comprising the nucleotide sequence of SEQ ID NO: 7 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 8 and at least one probe comprising SEQ ID NO:9 to detect swine-origin H1N1; c. a forward primer comprising the nucleotide sequence of SEQ ID NO: 10 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 11 and at least one probe comprising SEQ ID NO:12 to detect seasonal H1N1; d. a forward primer comprising the nucleotide sequence of SEQ ID NO: 13 and a reverse primer comprising the nucleotide sequence of SEQ ID NO: 14 and at least one probe comprising SEQ ID NO:15 to detect seasonal H3N2, and e. a forward primer comprising the nucleotide sequence of SEQ ID NO: 16 and a reverse primer comprising the nucleotide sequence selected from SEQ ID NO: 17 and 18 and at least one probe comprising or consisting of SEQ ID NO: 19 to detect influenza B.
A simulation apparatus comprising: an existing sound generator simulation part that simulates a sound generation characteristic of an existing sound generator and that provides a simulation result; a virtual sound generator simulation part that simulates a sound generation characteristic of a virtual sound generator and that provides a simulation result; an existing sound generator measurement part that measures the sound generation characteristic of the existing sound generator when the existing sound generator actually generates a sound and that provides a measurement result; a first difference data generation part that compares the simulation result of the existing sound generator with the simulation result of the virtual sound generator, and that generates difference data representing a difference between the simulation result of the existing sound generator and the simulation result of the virtual sound generator; and a first characteristic correction part that corrects the measurement result of the existing sound generator based on the difference data, and that generates virtual sound generator prediction data representing the sound generation characteristic of the virtual sound generator according to the corrected measurement result of the existing sound generator. an existing sound generator simulation part that simulates a sound generation characteristic of an existing sound generator and that provides a simulation result; a virtual sound generator simulation part that simulates a sound generation characteristic of a virtual sound generator and that provides a simulation result; an existing sound generator measurement part that measures the sound generation characteristic of the existing sound generator when the existing sound generator actually generates a sound and that provides a measurement result; a first difference data generation part that compares the simulation result of the existing sound generator with the simulation result of the virtual sound generator, and that generates difference data representing a difference between the simulation result of the existing sound generator and the simulation result of the virtual sound generator; and a first characteristic correction part that corrects the measurement result of the existing sound generator based on the difference data, and that generates virtual sound generator prediction data representing the sound generation characteristic of the virtual sound generator according to the corrected measurement result of the existing sound generator.
Enteral tube feed comprising a lipid component, a carbohydrate component and at least 30 EN % of a protein component based on the total energy content of the enteral tube feed, wherein the protein component comprises a peptide fraction consisting of di-, tri- and oligopeptides with a molecular weight of at most 1kD, wherein the peptide fraction provides at least 10 EN% of the total energy content of the enteral composition, wherein the carbohydrate component consists of at least 50wt% isomaltulose, wherein the enteral tube feed comprises 10-12 wt% protein based on the total weight of the enteral tube feed and wherein the enteral tube feed has an energy density of 1.1-1.4 kcal/mL for use in prevention and treatment of protein malnutrition in ICU patients. at least 30 EN % of a protein component based on the total energy content of the enteral tube feed, wherein the protein component comprises a peptide fraction consisting of di-, tri- and oligopeptides with a molecular weight of at most 1kD, wherein the peptide fraction provides at least 10 EN% of the total energy content of the enteral composition, wherein the carbohydrate component consists of at least 50wt% isomaltulose, wherein the enteral tube feed comprises 10-12 wt% protein based on the total weight of the enteral tube feed and wherein the enteral tube feed has an energy density of 1.1-1.4 kcal/mL for use in prevention and treatment of protein malnutrition in ICU patients.
Auxiliary switch for an electrical switch comprising a rotation part and a switching lever (310; 320; 330; 340) assigned to a configuration of the auxiliary switch, wherein the switching lever (310; 320; 330; 340) is embodied to detect a switching state of the electrical switch and transmit it to the rotation part, and wherein different switching states of the auxiliary switch are set by different rotary positions of the rotation part, characterised in that the auxiliary switch is able to be reconfigured into a first configuration by the insertion of a switching lever assigned to a first configuration of the auxiliary switch, and the auxiliary switch is able to be reconfigured into a second configuration by the insertion of a switching lever assigned to a second configuration of the auxiliary switch the rotation part has at least two engagement points (710; 720; 730) and with the switching lever (310; 320; 330; 340) assigned to a configurations engaging in the engagement point (710; 720; 730) assigned to this configuration, wherein the switching lever assigned to the first configuration is supported at a first end rotatably on the housing of the auxiliary switch, is embodied at a second end to be able to engage in the switching mechanism of the electrical switch, and at a third end engages in the engagement point assigned to the first configuration, and wherein the different switching states of the auxiliary switch have a switching position "ON" and a switching position "OFF".
A method for creating an insulation system for the heat insulation of façades in the region of a window, a flat, cuboid insulation board being cut to size and fastened to the façade, characterised in that the insulation board is cut to size in a point-symmetrical manner relative to the centre thereof, so two mirror-image, angular insulation board parts (2, 2') are produced, which can be attached in a mirror-symmetrical manner on both sides of the window.
Device for mounting a unit having two parallel lateral faces on each of which there is disposed a stud, the device having two parallel lateral slideways that are formed in the compartment in the instrument panel of a vehicle and form a groove that is oriented in a substantially longitudinal direction and has an entry zone and an end zone that is less high than the entry zone, the stud having an elastically compressible part that is intended to vertically push the stud in the end zone of its groove during the longitudinal introduction of the stud into its corresponding groove, the stud comprising a central part from which there extend two opposite symmetrical arms that each bear two lugs, characterized in that the two lugs are turned-back lugs that are substantially parallel to the arms and form longitudinal anchors (32, 33) that are symmetrical with respect to the central part and are elastically compressible vertically.
Burner head for use in a gas turbine system for supplying combustion air and fuel into a combustion chamber of a burner system, the burner head for supplying the combustion air comprising supply nozzles which are arranged about a longitudinal axis and have supply openings for arrangement on the combustion chamber, the supply nozzles being located in the outer region of an end wall such that the radial distance of the centers of the supply openings to the outer circumference of the end wall is smaller than to the longitudinal axis, a fuel nozzle for supplying fuel being assigned to each of at least two of the supply nozzles, characterized in that a central fuel line which comprises a distributor region (42.1) located on the longitudinal axis for distributing fuel to the fuel nozzles is assigned to the burner head for the purpose of supplying fuel, finger-like branch lines for distributing the fuel to the individual fuel nozzles branching off from the distributor region (42.1), in that the supply nozzles are attached to an end wall which is to be connected to the combustion chamber, in that at least one of the branch lines has at least one change of direction in its course, comprising a portion (43.1) which has a direction component that is radially outwards from the distributor region (42.1) and a subsequent portion (43.2) parallel to the longitudinal axis, an angle (α) between the portion (43.1) comprising a radially outward direction component and the following portion (43.2) parallel to the longitudinal axis being more than 90°, in that the end wall is conically tapered against the inflow direction with respect to an air flow during operation, and in that a fuel supply comprising the central fuel line, which comprises the distributor region (42.1), the branch lines and the fuel nozzles, is positioned in a defined manner opposite the supply nozzles by means of a positioning device, the positioning device being designed as a central rod element between the distributor region (42.1) and the end wall, which element extends on the longitudinal axis.
An accessory configured to be mounted on to a display screen of a hand-held device for projecting information displayed on said display screen on reality and thereby converting the hand-held device to a hand-held augmented reality device, the accessory comprising a housing, the housing having: a front surface and a rear surface, a front opening extending from the front surface to the rear surface and through which a user can observe the reality, a rear opening on the rear surface, the housing being configured for mechanically attaching to the hand-held device with the rear opening overlapping a portion of the display screen; a semi-transparent mirror placed in the front opening and between the front and the rear surface; a mirror and viewing optics, the mirror having a reflecting surface directed toward the display screen so as to direct light therefrom upward to the viewing optics, the viewing optics configured to obtain, via the mirror, through the rear opening of the accessory an image of information generated by the hand-held device and displayed in said portion of the display screen and to project said image of information on the semi-transparent mirror for directing said image to an eye of a user, so that the user holding the hand-held device with the accessory mounted thereon sees through the front opening of the accessory the image of information overlaid on said reality. a front surface and a rear surface, a front opening extending from the front surface to the rear surface and through which a user can observe the reality, a rear opening on the rear surface, the housing being configured for mechanically attaching to the hand-held device with the rear opening overlapping a portion of the display screen; a semi-transparent mirror placed in the front opening and between the front and the rear surface; a mirror and viewing optics,
A heat transfer system comprising a reaction vessel and one or more heat transfer baffles comprising at least one distribution channel, wherein heat transfer media circulates through the at least one distribution channel, the or each heat transfer baffle being adjoined to the interior surface of the reaction vessel, wherein the or each heat transfer baffle is adjoined to at least one heat transfer media inlet header and at least one heat transfer media outlet header, characterised in that each heat transfer baffle further comprises at least one relief channel, wherein the heat transfer media does not circulate in the at least one relief channel, and that the relief channel of each heat transfer baffle is vented to the vessel exterior.
Process for preparing a dicarboxylic acid of formula, in which n represents an integer from 1 to 9, in a single step, by action of nitric acid, in the presence of one or more oxides of nitrogen selected from NO, NO 2, N 2 O 3, N 2 O 4, N 2 O 5, NO 3, N 2 O 6, N 4 O and mixtures thereof at a molar concentration in the reaction mixture of greater than 2.5 mmol per kg of reaction mixture, on the compounds of formula or in which n represents the same integral number as in the formula characterized in that the molar ratio R, corresponding to the number of moles of oxides of nitrogen added to the reaction mixture relative to the number of moles of substrate to be oxidized (compounds and/or), is greater than or equal to 1.5.
A method comprising: detecting a plurality of signals received from a plurality of sensor devices; identifying a respective signal strength of each of the plurality of signals; displaying a list of each of the plurality of sensor devices and the respective signal strength of each of the plurality of signals received from each of the plurality of sensor devices; receiving user input to select at least one of the plurality of sensor devices; and transmitting an identifying signal to a control panel device to enroll the at least one of the plurality of sensor devices with the control panel device for configuration thereof. detecting a plurality of signals received from a plurality of sensor devices; identifying a respective signal strength of each of the plurality of signals; displaying a list of each of the plurality of sensor devices and the respective signal strength of each of the plurality of signals received from each of the plurality of sensor devices; receiving user input to select at least one of the plurality of sensor devices; and transmitting an identifying signal to a control panel device to enroll the at least one of the plurality of sensor devices with the control panel device for configuration thereof.
A tire vulcanizer comprising tie rods (8A,8B) extending upward from a base plate, said tie rods (8A,8B) receiving squeezing force applied to a bolster plate (9A,9B) and a top mold when vulcanizing a tire and guiding the lifting/lowering of the bolster plate (9A,9B) and the top mold when opening and closing the top mold; wherein the tie rods (8A,8B) are configured so as to be vertically dividable into at least two or more sections (20,21) at a position in the length direction thereof, characterized in that the dividing position is configured to be between a portion bearing the squeezing force when vulcanizing a tire and a portion providing only the functionality for guiding the lifting/lowering of the bolster plate (9A,9B), the top mold, and the like.
A seal assembly for use with a surgical cannula assembly, comprising: a seal housing defining a seal axis ("S"), the seal housing defining an axial opening therethrough for passage of a surgical object ("O") and having an evacuation port; an object seal in the seal housing for sealed reception of the surgical object, wherein the seal housing defines at least one flow channel configured to permit passage of fluids about a peripheral segment of the object seal, wherein the seal housing includes an intermediate housing component configured for at least partially enclosing the object seal, the intermediate housing component defining a plurality of flow openings in fluid communication with the at least one flow channel to permit passage of fluids proximal of the intermediate housing component; a filter (310, 310', 310") in the seal housing configured for filtering smoke and/or contaminants from the fluids, the filter having a filter material; and an evacuation valve on the seal housing and adjacent the filter, the evacuation valve selectively transitionable between a closed position and an open position to respectively close and open the evacuation port. a seal housing defining a seal axis ("S"), the seal housing defining an axial opening therethrough for passage of a surgical object ("O") and having an evacuation port; an object seal in the seal housing for sealed reception of the surgical object, wherein the seal housing defines at least one flow channel configured to permit passage of fluids about a peripheral segment of the object seal, wherein the seal housing includes an intermediate housing component configured for at least partially enclosing the object seal, the intermediate housing component defining a plurality of flow openings in fluid communication with the at least one flow channel to permit passage of fluids proximal of the intermediate housing component; a filter (310, 310', 310") in the seal housing configured for filtering smoke and/or contaminants from the fluids, the filter having a filter material; and an evacuation valve on the seal housing and adjacent the filter, the evacuation valve selectively transitionable between a closed position and an open position to respectively close and open the evacuation port.
A flexible pipe body comprising: one or more encapsulated or enclosed regions of thermally active material disposed in a layer of the flexible pipe body, wherein the thermally active material is enclosed within a channel region; wherein the thermally active material is a phase change material, and wherein the phase change of the phase change material is from solid to liquid, or from a first solid phase to a second solid phase, on exposure of the phase change material to heat, wherein said one or more encapsulated or enclosed regions comprise at least one helically wound continuous tape extending axially along a portion of the flexible pipe body, and wherein the layer incorporating the phase change material is the innermost layer of the flexible pipe body, and wherein the layer is an interlocked carcass layer. one or more encapsulated or enclosed regions of thermally active material disposed in a layer of the flexible pipe body, wherein the thermally active material is enclosed within a channel region; wherein the thermally active material is a phase change material, and wherein the phase change of the phase change material is from solid to liquid, or from a first solid phase to a second solid phase, on exposure of the phase change material to heat, wherein said one or more encapsulated or enclosed regions comprise at least one helically wound continuous tape extending axially along a portion of the flexible pipe body, and wherein the layer incorporating the phase change material is the innermost layer of the flexible pipe body, and wherein the layer is an interlocked carcass layer.