mhurhangee/ep-ind-claims huggingface dataset:
An ostomy leak detection system comprising: a sensor device configured to detect one or more parameters or parameter values indicative of a condition of an ostomy product; and one or more auxiliary devices operably connected to the sensor device and configured to receive sensor information indicative of the condition of the ostomy product from the sensor device, wherein the sensor device is a leakage sensor device configured to detect electrical resistance, wherein the one or more auxiliary devices includes at least one of a monitoring device, a wearable device, a consumer electronic device and a server device, and characterised in that the sensor device is adapted to be synced each time an ostomy product is changed out or replaced and in that the one or more auxiliary devices develops ostomy product consumption information in accordance with a count of syncing operations of the sensor device and the one or more auxiliary devices. a sensor device configured to detect one or more parameters or parameter values indicative of a condition of an ostomy product; and one or more auxiliary devices operably connected to the sensor device and configured to receive sensor information indicative of the condition of the ostomy product from the sensor device, wherein the sensor device is a leakage sensor device configured to detect electrical resistance, wherein the one or more auxiliary devices includes at least one of a monitoring device, a wearable device, a consumer electronic device and a server device, and characterised in that the sensor device is adapted to be synced each time an ostomy product is changed out or replaced and in that the one or more auxiliary devices develops ostomy product consumption information in accordance with a count of syncing operations of the sensor device and the one or more auxiliary devices.
A method for determining retention level and/or pore structure of a membrane, the method comprising: (a) passing a challenge solution comprising single-stranded DNA conjugated to dendrimers (dendrimer conjugates), through a microporous membrane, to provide a permeate solution comprising the dendrimer conjugates; (b) obtaining equal volumes of: (i) the challenge solution comprising dendrimer conjugates; and, (ii) the permeate solution comprising dendrimer conjugates; (c) combining (i) with PCR reagents to provide a challenge solution/PCR mix, and combining (ii) with PCR reagents to provide a permeate solution/PCR mix; (d) performing a plurality of PCR cycles using each of the challenge solution/PCR mix, and the permeate solution/PCR mix, to amplify the single-stranded DNA; (e) measuring single-stranded DNA concentration, which correlates to dendrimer conjugate concentration; (f) quantifying the dendrimer conjugate concentration in the challenge solution (quantCo); and quantifying the dendrimer conjugate concentration in the permeate solution (quantCp); and, (g) determining the retention level and/or pore structure of the membrane based on a comparison of the quantCp to the quantCo. (a) passing a challenge solution comprising single-stranded DNA conjugated to dendrimers (dendrimer conjugates), through a microporous membrane, to provide a permeate solution comprising the dendrimer conjugates; (b) obtaining equal volumes of: (i) the challenge solution comprising dendrimer conjugates; and, (ii) the permeate solution comprising dendrimer conjugates; (i) the challenge solution comprising dendrimer conjugates; and, (ii) the permeate solution comprising dendrimer conjugates; (c) combining (i) with PCR reagents to provide a challenge solution/PCR mix, and combining (ii) with PCR reagents to provide a permeate solution/PCR mix; (d) performing a plurality of PCR cycles using each of the challenge solution/PCR mix, and the permeate solution/PCR mix, to amplify the single-stranded DNA; (e) measuring single-stranded DNA concentration, which correlates to dendrimer conjugate concentration; (f) quantifying the dendrimer conjugate concentration in the challenge solution (quantCo); and quantifying the dendrimer conjugate concentration in the permeate solution (quantCp); and, (g) determining the retention level and/or pore structure of the membrane based on a comparison of the quantCp to the quantCo.
Circuit arrangement for reducing a unidirectional flux component (Φ DC) in the soft-magnetic core of a transformer, comprising: - a compensation winding which is magnetically coupled to the core of the transformer; - a transductor which is connected in series with the compensation winding in a compensation current path, wherein the compensation current path has two parallel branches each containing a power winding of the transductor and an uncontrolled valve connected in series, wherein the flow directions of the valves are counter to one another, and wherein each power winding is magnetically coupled to a control winding via a saturatable transductor core; - a control device to which information provided by a detection device about the magnitude and direction of the unidirectional flux component (Φ DC) is fed on the input side, and which, on the output side, generates a control variable which is fed to each control winding so that the saturation state of the transductor core can be varied such that a compensation current is formed in the compensation current path, the effect of which counteracts the unidirectional flux component (Φ DC) in the core of the transformer. - a compensation winding which is magnetically coupled to the core of the transformer; - a transductor which is connected in series with the compensation winding in a compensation current path, wherein the compensation current path has two parallel branches each containing a power winding of the transductor and an uncontrolled valve connected in series, wherein the flow directions of the valves are counter to one another, and wherein each power winding is magnetically coupled to a control winding via a saturatable transductor core; - a control device to which information provided by a detection device about the magnitude and direction of the unidirectional flux component (Φ DC) is fed on the input side, and which, on the output side, generates a control variable which is fed to each control winding so that the saturation state of the transductor core can be varied such that a compensation current is formed in the compensation current path, the effect of which counteracts the unidirectional flux component (Φ DC) in the core of the transformer.
A pharmaceutical formulation, containing: a botulinum toxin type A, a first stabilizer, and a second stabilizer, wherein the first stabilizer is arginine, and wherein the second stabilizer is glutamic acid, or aspartic acid. wherein the first stabilizer is arginine, and wherein the second stabilizer is glutamic acid, or aspartic acid.
Modular system for producing an electronic device which can be lined up with other electronics housings along a lining-up direction, having a housing, which configures a receiving space, and having a printed circuit board which can be inserted into the receiving space of the housing along an insertion direction and which is received in the receiving space in an assembly position, characterized by at least one cooling element which has a first guide apparatus for guidance on a second guide apparatus of the housing, wherein the at least one cooling element can be connected to the printed circuit board in such a way that, when the printed circuit board is inserted into the receiving space, the at least one cooling element is guided, by way of the first guide apparatus, on the second guide apparatus of the housing in a displaceable manner along the insertion direction.
A method of autonomous vehicle driving, the method comprising: receiving, by a computing device having at least one processor, sensor data from one or more autonomous vehicle sensors of an autonomous vehicle to detect a scene around the autonomous vehicle including one or more neighboring vehicles; determining, by the at least one processor and based on the sensor data, one or more driving patterns; grouping, by the at least one processor, the one or more driving patterns based on a primary context corresponding to the one or more driving patterns; determining, by the at least one processor, a driving pattern degradation output indicating degradation corresponding to the one or more grouped driving patterns, the driving pattern degradation output is based on one or more secondary context factors including at least one of: an attentiveness distribution associated with the one or more neighboring vehicles; or an aggressiveness distribution associated with the one or more neighboring vehicles; and sending, by the at least one processor and to an autonomous driving system, the driving pattern degradation output. receiving, by a computing device having at least one processor, sensor data from one or more autonomous vehicle sensors of an autonomous vehicle to detect a scene around the autonomous vehicle including one or more neighboring vehicles; determining, by the at least one processor and based on the sensor data, one or more driving patterns; grouping, by the at least one processor, the one or more driving patterns based on a primary context corresponding to the one or more driving patterns; determining, by the at least one processor, a driving pattern degradation output indicating degradation corresponding to the one or more grouped driving patterns, the driving pattern degradation output is based on one or more secondary context factors including at least one of: an attentiveness distribution associated with the one or more neighboring vehicles; or an aggressiveness distribution associated with the one or more neighboring vehicles; and an attentiveness distribution associated with the one or more neighboring vehicles; or an aggressiveness distribution associated with the one or more neighboring vehicles; and sending, by the at least one processor and to an autonomous driving system, the driving pattern degradation output.
A seal assembly for a turbo machine comprising: a housing; a retainer secured relative to the housing; a seal arranged between the housing and retainer, the retainer retaining the seal to the housing, the seal having an opening extending completely through the seal between generally parallel opposing sides (64, 66) of the seal and configured to receive a penetrating element, the seal comprising a composite material; characterized in that the opening includes a surface having a portion that is at an non-perpendicular angle relative to the generally parallel opposing sides (64, 66) of the seal, the assembly further comprising an anti-rotation feature cooperating with at least one of the housing and retainer to maintain an angular position of the seal relative to the housing. a housing; a retainer secured relative to the housing; a seal arranged between the housing and retainer, the retainer retaining the seal to the housing, the seal having an opening extending completely through the seal between generally parallel opposing sides (64, 66) of the seal and configured to receive a penetrating element, the seal comprising a composite material; characterized in that the opening includes a surface having a portion that is at an non-perpendicular angle relative to the generally parallel opposing sides (64, 66) of the seal, the assembly further comprising an anti-rotation feature cooperating with at least one of the housing and retainer to maintain an angular position of the seal relative to the housing.
A coated microcapsule comprising: a microcapsule comprising a polymeric shell and a liquid core material encapsulated therein; and a metallic coating surrounding said microcapsule, wherein the metallic coating comprises particles of a first metal adsorbed on said polymeric shell and a film of a second metal formed thereon; wherein the particles of the first metal are sterically-stabilised nanoparticles. a microcapsule comprising a polymeric shell and a liquid core material encapsulated therein; and a metallic coating surrounding said microcapsule, wherein the metallic coating comprises particles of a first metal adsorbed on said polymeric shell and a film of a second metal formed thereon; wherein the particles of the first metal are sterically-stabilised nanoparticles.
Method for generating a test run, in particular a load run and/or a speed run, the test run being suitable for simulating a, in particular real, operation of at least one test specimen, a test specimen being a vehicle or a drive train or a vehicle component, having the following working steps: Determining a data set comprising operational data of at least one usage cycle of a vehicle or a plurality of usage cycles of vehicles; Normalizing the operational data of the cycle or cycles of use, wherein normalizing transforms operational data to specific operational data; Check at which points in the usage cycle or cycles emission-relevant events occur; Assigning a driving maneuver present at each of these locations to the emission-relevant events; Generating the test run based on the associated driving maneuvers; and Output of the test run. Determining a data set comprising operational data of at least one usage cycle of a vehicle or a plurality of usage cycles of vehicles; Normalizing the operational data of the cycle or cycles of use, wherein normalizing transforms operational data to specific operational data; Check at which points in the usage cycle or cycles emission-relevant events occur; Assigning a driving maneuver present at each of these locations to the emission-relevant events; Generating the test run based on the associated driving maneuvers; and Output of the test run.
A method performed by a first network device, the method comprising: - obtaining, from an identity management device, information about a user device, - registering, in the first network device, a user identity attribute request for the user device, - committing, to a distributed ledger, a first transaction comprising the user identity attribute request, - receiving a result of the execution of a consensus mechanism for verifying a list of user identity attributes of the user device, wherein the consensus mechanism is executed by devices that are part of the distributed ledger, and - sending, to a second network device, if the result of the execution of the consensus mechanism is positive, a request to access a user identity attribute and a value of the user identity attribute of the user device, wherein the request comprises information on fulfilling at least a condition for recovering the user identity attribute of the user device. - obtaining, from an identity management device, information about a user device, - registering, in the first network device, a user identity attribute request for the user device, - committing, to a distributed ledger, a first transaction comprising the user identity attribute request, - receiving a result of the execution of a consensus mechanism for verifying a list of user identity attributes of the user device, wherein the consensus mechanism is executed by devices that are part of the distributed ledger, and - sending, to a second network device, if the result of the execution of the consensus mechanism is positive, a request to access a user identity attribute and a value of the user identity attribute of the user device, wherein the request comprises information on fulfilling at least a condition for recovering the user identity attribute of the user device.
A computer-implemented method of simulating orthodontic treatment, the computer-implemented method comprising: capturing a first 2D image, the first 2D image comprising a representation of a patient's face and a patient's teeth; identifying one or more shapes associated with at least one of the patient's teeth; building a parametric 3D model of the patient's teeth based on the first 2D image, using one or more case-specific parameters for the one or more shapes associated with the at least one of the patient's teeth; simulating a position of the patient's teeth by rendering the parametric 3D model with the patient's teeth in a predetermined position; simulating a patient's gingiva by building a parameterized gingiva line comprising patient-specific input parameters; and rendering a second 2D image representing the patient's face, the second 2D image representing the patient's teeth in accordance with the predetermined position and the patient's gingiva in accordance with the parameterized gingiva line; characterised in that the method further comprises rendering a leveled gum line, wherein rendering the leveled gum line comprises aligning coordinates of the parameterized gingiva line. capturing a first 2D image, the first 2D image comprising a representation of a patient's face and a patient's teeth; identifying one or more shapes associated with at least one of the patient's teeth; building a parametric 3D model of the patient's teeth based on the first 2D image, using one or more case-specific parameters for the one or more shapes associated with the at least one of the patient's teeth; simulating a position of the patient's teeth by rendering the parametric 3D model with the patient's teeth in a predetermined position; simulating a patient's gingiva by building a parameterized gingiva line comprising patient-specific input parameters; and rendering a second 2D image representing the patient's face, the second 2D image representing the patient's teeth in accordance with the predetermined position and the patient's gingiva in accordance with the parameterized gingiva line; characterised in that the method further comprises rendering a leveled gum line, wherein rendering the leveled gum line comprises aligning coordinates of the parameterized gingiva line.
Compressor block comprising at least one passage opening of driving member, frontal extensions of support and at least one mounting portion, said compressor block comprising: at least one first means of structural connection between the mounting portion and frontal extensions of support defined by at least one structural wall; at least one second means of structural connection between the mounting portion and the frontal extensions of support defined by at least one structural wall; the structural walls (28a, 28b) comprising at least one section of physical association between each other; the compressor block being characterized in that it further comprises: a plurality of reinforcements connecting the passage opening of driving member to the structure of the block; the structural walls (28a, 28b) and the reinforcements comprising at least one section of physical association between each other; the physical association between structural walls (28a, 28b) and reinforcements defining a plurality of openings, and the structural walls (28a, 28b) defining, partially, the main perimeter of the compressor block. at least one first means of structural connection between the mounting portion and frontal extensions of support defined by at least one structural wall; at least one second means of structural connection between the mounting portion and the frontal extensions of support defined by at least one structural wall; the structural walls (28a, 28b) comprising at least one section of physical association between each other; the compressor block being characterized in that it further comprises: a plurality of reinforcements connecting the passage opening of driving member to the structure of the block; the structural walls (28a, 28b) and the reinforcements comprising at least one section of physical association between each other; the physical association between structural walls (28a, 28b) and reinforcements defining a plurality of openings, and the structural walls (28a, 28b) defining, partially, the main perimeter of the compressor block. a plurality of reinforcements connecting the passage opening of driving member to the structure of the block; the structural walls (28a, 28b) and the reinforcements comprising at least one section of physical association between each other; the physical association between structural walls (28a, 28b) and reinforcements defining a plurality of openings, and the structural walls (28a, 28b) defining, partially, the main perimeter of the compressor block.
Pumping means intended for being trailed by a trailing suction hopper dredger, the pumping means comprising at least: - a submergible pump; - a suction tube mounted on an inlet of the submergible pump; - a discharge pipe mounted on an outlet of the submergible pump; - a suction tube mouth at a free end of the suction tube for sucking a mixture of water and seabed material through the suction tube; - a skid structure with a bottom intended for being trailed over an underwater soil or bedrock by means of trailing wires (6,47,48); - connection means for attaching the trailing wires (6,47,48) to the skid structure; - the submergible pump being installed in or on the skid structure, characterized in that the skid structure with the submergible pump is adapted for being trailed by means of trailing wires (6,47,48) suspending from a trailing suction hopper dredger while in use for sucking the mixture of water and seabed material through the suction tube mouth of the suction tube, the suction tube with the suction tube mouth at its free end extending from the submergible pump outside a back side of the skid structure, the suction tube mouth being provided with a dredge drag head, whereby the discharge pipe is a flexible discharge pipe for discharging the mixture of water and seabed material sucked through the suction tube mouth of the suction tube into the trailing suction hopper dredger or into an outboard disposal facility, such as a separate barge, an onshore disposal area or the like. - a submergible pump; - a suction tube mounted on an inlet of the submergible pump; - a discharge pipe mounted on an outlet of the submergible pump; - a suction tube mouth at a free end of the suction tube for sucking a mixture of water and seabed material through the suction tube; - a skid structure with a bottom intended for being trailed over an underwater soil or bedrock by means of trailing wires (6,47,48); - connection means for attaching the trailing wires (6,47,48) to the skid structure; - the submergible pump being installed in or on the skid structure,
A device for closing a wound (130, 230, 330), comprising: a closure element (100, 200, 300) having a delivery configuration and a deployed configuration, the closure element configured to be disposed about an endcap (120, 220, 320) of an endoscope (122, 222) in the delivery configuration; and a release filament (102, 202, 302) having a distal end (102d, 202d) releasably coupled to the closure element and a proximal end extendable within the endcap; wherein the closure element is configured to substantially close about the wound in the deployed configuration, wherein the deployed configuration of the closure element is a shape-memory configuration, wherein the shape-memory configuration of the closure element is a coil, a knot, or a combination thereof. a closure element (100, 200, 300) having a delivery configuration and a deployed configuration, the closure element configured to be disposed about an endcap (120, 220, 320) of an endoscope (122, 222) in the delivery configuration; and a release filament (102, 202, 302) having a distal end (102d, 202d) releasably coupled to the closure element and a proximal end extendable within the endcap; wherein the closure element is configured to substantially close about the wound in the deployed configuration, wherein the deployed configuration of the closure element is a shape-memory configuration, wherein the shape-memory configuration of the closure element is a coil, a knot, or a combination thereof.