mhurhangee/patent-ind-claim-en huggingface dataset:
Coriolis flow sensor , comprising a housing and at least a Coriolis-tube with at least two ends being fixed in a tube fixation means, wherein the flow sensor comprises excitation means for causing the tube to oscillate, as well as detection means (11a-c, 111, 111a-c, 211a-c, 311a-c) for detecting at least a measure of displacements of parts of the tube during operation, characterized in that it comprises - a reference mass , comprising the detection means (11a-c, 111, 111a-c, 211a-c, 311a-c) for the Coriolis tube; - further excitation means arranged for causing the reference mass to oscillate with respect to the housing , wherein the further excitation means are provided between the housing or a part rigidly connected to the housing , on the one hand, and to the reference mass on the other hand; - further detection means arranged for detecting at least a measure of displacements of the reference mass and/or the housing during operation; as well as - control means for controlling the excitation means and/or the further excitation means based on movements measured by the detection means (11a-c, 111, 111a-c, 211a-c, 311a-c) and/or further detection means . - a reference mass , comprising the detection means (11a-c, 111, 111a-c, 211a-c, 311a-c) for the Coriolis tube; - further excitation means arranged for causing the reference mass to oscillate with respect to the housing , wherein the further excitation means are provided between the housing or a part rigidly connected to the housing , on the one hand, and to the reference mass on the other hand; - further detection means arranged for detecting at least a measure of displacements of the reference mass and/or the housing during operation; as well as - control means for controlling the excitation means and/or the further excitation means based on movements measured by the detection means (11a-c, 111, 111a-c, 211a-c, 311a-c) and/or further detection means .
A liquid blow molding method of feeding a pressurized liquid (L) from a pressure feeding source into a bottomed tubular preform through a blow nozzle to mold the preform into a liquid container of a predetermined shape containing a content liquid (L), the method comprising: a preliminary pressurizing step of operating the pressure feeding source with the blow nozzle closed with a sealing body to preliminary pressurize a liquid (L) between the pressure feeding source and the blow nozzle ; an operating condition setting step of setting an operating condition of the pressure feeding source on the basis of data acquired by the preliminary pressurizing step; a blow molding step of operating the pressure feeding source with the blow nozzle opened to liquid blow mold the preform into a container of a predetermined shape; and a suck-back step of operating the pressure feeding source in a reverse direction with the blow nozzle opened on the operating condition set in the operating condition setting step to suck back a liquid (L) from inside of the container molded into a predetermined shape in the blow molding step toward inside of the blow nozzle . a preliminary pressurizing step of operating the pressure feeding source with the blow nozzle closed with a sealing body to preliminary pressurize a liquid (L) between the pressure feeding source and the blow nozzle ; an operating condition setting step of setting an operating condition of the pressure feeding source on the basis of data acquired by the preliminary pressurizing step; a blow molding step of operating the pressure feeding source with the blow nozzle opened to liquid blow mold the preform into a container of a predetermined shape; and a suck-back step of operating the pressure feeding source in a reverse direction with the blow nozzle opened on the operating condition set in the operating condition setting step to suck back a liquid (L) from inside of the container molded into a predetermined shape in the blow molding step toward inside of the blow nozzle .
An apparatus for producing spunbonds from continuous filaments , in particular from thermoplastic material, comprising at least one spinneret for spinning the continuous filaments , at least one cooling device for cooling the filaments, at least one stretching device for stretching the filaments, and at least one depositing device, in particular in the form of a depositing foraminous belt for depositing the filaments to form a nonwoven web, wherein at least one diffuser is arranged between the stretching device and the depositing device or the depositing foraminous belt so that filaments and primary air from the stretching device enter into the diffuser , wherein in the region of the at least one diffuser at least two secondary air inlet gaps arranged on opposite sides of the diffuser are provided, through which secondary air enters into the diffuser , wherein at least one secondary air inlet gap , preferably at least two secondary air inlet gaps (11. 12) are formed with the proviso that the secondary air flows in at an inflow angle α with respect to the filament flow direction FS or with respect to the longitudinal central plane M of the apparatus or of the diffuser , wherein this inflow angle α is less than 100°, expediently less than or equal to 90°, preferably less than 80°, preferably less than 70° and particularly preferably less than 65°, wherein in the flow direction of the filaments downstream or below the secondary air inlet gaps , a convergent diffuser section follows, wherein in the flow direction of the filaments the convergent diffuser section is followed by a constriction of the diffuser and wherein the constriction is followed by at least one divergent diffuser section , wherein the convergent diffuser section is designed to be shorter or significantly shorter than the divergent diffuser section and wherein the length of the convergent diffuser section is a maximum of 60% of the length of the divergent diffuser section , wherein the last diffuser section in the filament flow direction FS has diffuser walls which diverge towards the depositing device, wherein these diffuser walls form a diffuser outlet having a width B in relation to the machine direction (MD), wherein at least one extraction device is provided to extract air or process air through the depositing device or through the depositing foraminous belt and and wherein an extraction region provided underneath the diffuser outlet has a width b in the machine direction which width b is greater than the width B of the diffuser outlet .
A heated fluid conduit comprising: a fluid conduit having a body comprising an insulating cover , with a semi-conductive carbon fiber, or a conductive, woven material disposed therein; the semi-conductive carbon fiber, or conductive, woven material comprising two conductors electrically isolated from each other; a first crimp connector engaging the first conductor and a second crimp connector engaging the second conductor , both at the same end of the body , wherein the first crimp connector and the second crimp connector each comprise one or more ridges extending inward from an inner surface, each ridge having a sharp end for penetrating the insulating cover ; the conductors electrically connected in series by a third crimp connector at the other end of the body which penetrates the insulating cover to electrically engage the first and second conductors ; means for connecting an electrical power supply to each first and second crimp connector to form a series circuit and thereby provide a voltage across said conductors and an electrical current therethrough, heating said fluid conduit. a fluid conduit having a body comprising an insulating cover , with a semi-conductive carbon fiber, or a conductive, woven material disposed therein; the semi-conductive carbon fiber, or conductive, woven material comprising two conductors electrically isolated from each other; a first crimp connector engaging the first conductor and a second crimp connector engaging the second conductor , both at the same end of the body , wherein the first crimp connector and the second crimp connector each comprise one or more ridges extending inward from an inner surface, each ridge having a sharp end for penetrating the insulating cover ; the conductors electrically connected in series by a third crimp connector at the other end of the body which penetrates the insulating cover to electrically engage the first and second conductors ; means for connecting an electrical power supply to each first and second crimp connector to form a series circuit and thereby provide a voltage across said conductors and an electrical current therethrough, heating said fluid conduit.
An active electronically scanned array, AESA, tile comprising: a radiator structure ; and a stack of oxide-bonded semiconductor wafers attached to the radiator structure and comprising a low loss glass radio frequency, RF, manifold disposed within the oxide-bonded wafers and a beam former oxide-bonded to the wafer stack ; wherein the oxide-bonded wafers include vias to provide an electrical path for an RF signal through the tile ; and wherein the RF signal path through the oxide-bonded wafers comprises a first portion that propagates from the radiator structure toward the beam former and a second portion that propagates parallel to the beam former, a third portion that propagates away from the beam former and a fourth portion that extends into the beam former and out of the beam former. a radiator structure ; and a stack of oxide-bonded semiconductor wafers attached to the radiator structure and comprising a low loss glass radio frequency, RF, manifold disposed within the oxide-bonded wafers and a beam former oxide-bonded to the wafer stack ; wherein the oxide-bonded wafers include vias to provide an electrical path for an RF signal through the tile ; and wherein the RF signal path through the oxide-bonded wafers comprises a first portion that propagates from the radiator structure toward the beam former and a second portion that propagates parallel to the beam former, a third portion that propagates away from the beam former and a fourth portion that extends into the beam former and out of the beam former.
A globe valve , which includes a body through which a fluid circulation channel passes, which delimits a fluid path (VF) with an inlet and an outlet, as well as a shutter housed inside a branch generally perpendicular to said body, this shutter being movable between a first extreme position in which it obturates said channel and a second extreme position in which it does not obdurate the channel , the valve having an annular seat , the central opening of which is intended to be traversed by said fluid path (VF) characterized by the fact that said channel has, on either side of the region of action of said shutter , that is to say the part of the channel that interferes with said branch , a generally circular liquid circulation section, which is connected continuously, at least in the region of action of said shutter , to a section that is longer than it is wide, that is to say flattened, said body being devoid of any element protruding inwardly of said channel , and said shutter having a spout-shaped, that is to say generally beveled, free end , and being partially engaged in the seat so as to ensure the continuity of the wall of the channel in the fluid circulation position .
Method for recycling a carpet product, the carpet product comprising a fibrous sheet comprising polymer yarns, wherein at least one surface of the sheet is provided with a layer of polymer adhesive, characterised in that the carpet product is a substantially pure polyester carpet product, wherein the polymer yarns comprise polyester having a molecular weight Mw above 50,000 g/mol and a melting point between 180 and 300°C, the adhesive is a polyester adhesive having a crystallinity between 5% and 35% and a viscosity of 5-55 Pa.s at 150°C, the method comprising homogenising the carpet product by extrusion, wherein the melting point, crystallinity and viscosity are determined as indicated in the specification.
Chiming watch provided with a movement and a chiming mechanism, said movement and said chiming mechanism being contained inside a case comprising a case back and a case middle , said chiming mechanism being assembled directly or indirectly on a plate comprised by the movement , said chiming mechanism comprising at least one resonant body attached directly or indirectly to the plate , the movement being attached directly to the case back by means of pillars connecting, by a first of their extremities, said case back and, by their second extremity, said plate and disposed at the periphery of the movement , the pillars being joined to the case back by their first extremity, their second extremity being free, and comprising means of attachment for their attachment to the plate , characterized in that said case is closed by a glass , and in that said pillars are integral with the case back .
A tag manager for configuring an athlete tracking system that tracks a plurality of athletes with a plurality of tracking tags , comprising: a processor ; a wireless transceiver configured to communicate with the tracking tags; and a memory storing a roster list of the athletes, a first list (2814 ) of tag identifiers corresponding to a first collection of the tracking tags allocated to a first location on the athletes, a second list (2814 ) of tag identifiers corresponding to a second collection of the tracking tags allocated to a second location on the athletes, and machine-readable instructions that, when executed by the processor, control the tag manager to: read, via the wireless transceiver, the tag identifier of one of the tacking tags associated with one of the athletes, assign, in the roster list, the tag identifier to the first location on said one of the athletes when the tag identifier is in the first list of tag identifiers, and assign, in the roster list, the tag identifier to the second location on said one of the athletes when the tag identifier is in the second list of tag identifiers. a processor ; a wireless transceiver configured to communicate with the tracking tags; and a memory storing a roster list of the athletes, a first list (2814 ) of tag identifiers corresponding to a first collection of the tracking tags allocated to a first location on the athletes, a second list (2814 ) of tag identifiers corresponding to a second collection of the tracking tags allocated to a second location on the athletes, and machine-readable instructions that, when executed by the processor, control the tag manager to: read, via the wireless transceiver, the tag identifier of one of the tacking tags associated with one of the athletes, assign, in the roster list, the tag identifier to the first location on said one of the athletes when the tag identifier is in the first list of tag identifiers, and assign, in the roster list, the tag identifier to the second location on said one of the athletes when the tag identifier is in the second list of tag identifiers. read, via the wireless transceiver, the tag identifier of one of the tacking tags associated with one of the athletes, assign, in the roster list, the tag identifier to the first location on said one of the athletes when the tag identifier is in the first list of tag identifiers, and assign, in the roster list, the tag identifier to the second location on said one of the athletes when the tag identifier is in the second list of tag identifiers.
An extension cable (EXC1, EXC2) for an ultrasound system, the extension cable comprising: a first electrical connector (FEC) for connecting to a corresponding ultrasound transducer connector (UTC); a second electrical connector (SEC) for connecting to a corresponding console connector (CC); and an electrical cable (ECAB); characterised in that the extension cable (EXC1, EXC2) further comprises: an electrical circuit (ECCT); wherein the electrical circuit (ECCT) is disposed between the first electrical connector (FEC) and the electrical cable (ECAB), and wherein the electrical cable (ECAB) is disposed between the electrical circuit (ECCT) and the second electrical connector (SEC) for extending an electrical connection between the ultrasound transducer connector (UTC) and the console connector (CC); and wherein the electrical circuit (ECCT) is configured to provide a multiple-state output (MSOP), the multiple states being different voltage levels (V 1 , V 2 , V 3 ) corresponding to each of i) the electrical circuit (ECCT) not being electrically connected to the console connector (CC) via the second electrical connector (SEC), ii) the electrical circuit (ECCT) being electrically connected to the console connector (CC) via the second electrical connector (SEC) and the ultrasound transducer connector (UTC) not being electrically connected to the first electrical connector (FEC), and iii) the electrical circuit (ECCT) being electrically connected to the console connector (CC) via the second electrical connector (SEC) and the ultrasound transducer connector (UTC) being electrically connected to the first electrical connector (FEC). a first electrical connector (FEC) for connecting to a corresponding ultrasound transducer connector (UTC); a second electrical connector (SEC) for connecting to a corresponding console connector (CC); and an electrical cable (ECAB); an electrical circuit (ECCT); wherein the electrical circuit (ECCT) is disposed between the first electrical connector (FEC) and the electrical cable (ECAB), and wherein the electrical cable (ECAB) is disposed between the electrical circuit (ECCT) and the second electrical connector (SEC) for extending an electrical connection between the ultrasound transducer connector (UTC) and the console connector (CC); and wherein the electrical circuit (ECCT) is configured to provide a multiple-state output (MSOP), the multiple states being different voltage levels (V 1 , V 2 , V 3 ) corresponding to each of i) the electrical circuit (ECCT) not being electrically connected to the console connector (CC) via the second electrical connector (SEC), ii) the electrical circuit (ECCT) being electrically connected to the console connector (CC) via the second electrical connector (SEC) and the ultrasound transducer connector (UTC) not being electrically connected to the first electrical connector (FEC), and iii) the electrical circuit (ECCT) being electrically connected to the console connector (CC) via the second electrical connector (SEC) and the ultrasound transducer connector (UTC) being electrically connected to the first electrical connector (FEC).
A liposome composition, comprising: liposomes each of which has an inner water phase and an aqueous solution which constitutes an outer water phase and in which the liposomes are dispersed, wherein a content of cholesterols is 15 mol% to 25 mol% with respect to the total amount of lipid components in the liposome composition, and each of the liposomes encapsulates a drug in a dissolved state, and an osmotic pressure of the inner water phase is 2-fold to 8-fold relative to the osmotic pressure of the outer water phase, wherein the lipids constituting the liposome include at least hydrogenated soybean phosphatidylcholine, 1,2-distearoyl-3-phosphatidylethanolamine-polyethylene glycol, and cholesterol, and wherein an average particle size of the liposomes is 5 nm to 100 nm. liposomes each of which has an inner water phase and an aqueous solution which constitutes an outer water phase and in which the liposomes are dispersed, wherein a content of cholesterols is 15 mol% to 25 mol% with respect to the total amount of lipid components in the liposome composition, and each of the liposomes encapsulates a drug in a dissolved state, and an osmotic pressure of the inner water phase is 2-fold to 8-fold relative to the osmotic pressure of the outer water phase, wherein the lipids constituting the liposome include at least hydrogenated soybean phosphatidylcholine, 1,2-distearoyl-3-phosphatidylethanolamine-polyethylene glycol, and cholesterol, and wherein an average particle size of the liposomes is 5 nm to 100 nm.
A method of cleaning and sanitizing a membrane element within a membrane system, the method comprising: circulating a cleaning solution through the membrane system for 2 to 30 minutes at a temperature of 21°C (70°F) to 52°C (125°F), the cleaning solution comprising 0.1 wt.% to 1 wt.% organic acid and 0.01 to 0.1 wt.% anionic surfactant, wherein the organic acid comprises a combination of citric acid, and lactic acid; adding a sanitizing solution to the cleaning solution to produce a boosted antimicrobial solution, the sanitizing solution comprising 0.02 wt.% to 0.15 wt.% percarboxylic acid oxidant; and circulating the boosted antimicrobial solution through the membrane system for an additional 1 to 20 minutes at a temperature of 21°C (70°F) to 52°C (125°F). circulating a cleaning solution through the membrane system for 2 to 30 minutes at a temperature of 21°C (70°F) to 52°C (125°F), the cleaning solution comprising 0.1 wt.% to 1 wt.% organic acid and 0.01 to 0.1 wt.% anionic surfactant, wherein the organic acid comprises a combination of citric acid, and lactic acid; adding a sanitizing solution to the cleaning solution to produce a boosted antimicrobial solution, the sanitizing solution comprising 0.02 wt.% to 0.15 wt.% percarboxylic acid oxidant; and circulating the boosted antimicrobial solution through the membrane system for an additional 1 to 20 minutes at a temperature of 21°C (70°F) to 52°C (125°F).