mhurhangee/ep-ind-claims huggingface dataset:
A kit comprising: a challenge meal formulation comprising food allergen of up to 10% w/w, wherein the allergen component is selected from the group consisting of: peanut, soy, egg, sesame seeds, milk, fish, crustaceans, almond, cashew, hazelnut, pistachio, walnut, sulphites, wheat, mustard and celery allergen; and a challenge meal formulation in which the allergen is absent; wherein the challenge meal formulations comprise a matrix formation component, wherein the matrix formation component comprises a starch component and sucrose; a texturizing component, wherein the texturizing component comprises an oil component and a surfactant; a flavour/colour masking component; and an additive present in an amount of from 0.05% w/w to 1.0% w/w of the oral food challenge meal formulation, wherein the additive is selected from the group consisting of: maltodextrin, dextrin, cyclodextrin and combinations thereof. a challenge meal formulation comprising food allergen of up to 10% w/w, wherein the allergen component is selected from the group consisting of: peanut, soy, egg, sesame seeds, milk, fish, crustaceans, almond, cashew, hazelnut, pistachio, walnut, sulphites, wheat, mustard and celery allergen; and a challenge meal formulation in which the allergen is absent;
Device for holding a bait, in particular a bait for rodents, comprising: - a housing part insertable into a sewer shaft, in particular waste water sewer shaft or cable channel shaft, - at least one bait platform arranged in the housing part, the platform limiting at least one through-opening through which a rodent can access a bait arranged on the bait platform or a bait held on at least one bait-holding means held in the housing part, wherein the at least one through-opening defines a lower region of the housing part located below said opening and an upper region of the housing part located above said opening, - at least one closing body, movably-mounted relative to the bait platform, wherein, in an open position, the closing body is moved away from the bait platform in such a way that the at least one through opening delimited on the side of the bait platform is unblocked, and, in a closing position, is moved towards the bait platform in such a way that the at least one through-opening delimited on the side of the bait platform is blocked, characterized in that, in the closing position of the closing body, the upper region of the housing part is separated from the lower region of the housing part, so that an intrusion of water into the upper region of the housing part is not possible in the closing position of the closing body. - a housing part insertable into a sewer shaft, in particular waste water sewer shaft or cable channel shaft, - at least one bait platform arranged in the housing part, the platform limiting at least one through-opening through which a rodent can access a bait arranged on the bait platform or a bait held on at least one bait-holding means held in the housing part, wherein the at least one through-opening defines a lower region of the housing part located below said opening and an upper region of the housing part located above said opening, - at least one closing body, movably-mounted relative to the bait platform, wherein, in an open position, the closing body is moved away from the bait platform in such a way that the at least one through opening delimited on the side of the bait platform is unblocked, and, in a closing position, is moved towards the bait platform in such a way that the at least one through-opening delimited on the side of the bait platform is blocked, characterized in that, in the closing position of the closing body, the upper region of the housing part is separated from the lower region of the housing part, so that an intrusion of water into the upper region of the housing part is not possible in the closing position of the closing body.
An intraocular shunt inserter for treating glaucoma, comprising: a housing having a distal portion, a proximal portion, a longitudinal axis extending between the distal and proximal portions, the housing further comprising an inner cavity, a guide channel and an elongate slot, the guide channel extending along the longitudinal axis and accessible along an outer surface of the housing, the guide channel having an inner wall, the elongate slot extending along the longitudinal axis along the outer surface of the housing into the inner cavity; and a slider component slidably coupled to the housing along the outer surface thereof, the slider component slidable along the elongate slot for actuating a function of the inserter via the elongate slot, the slider component comprising a guide tab and a friction tab, the guide tab disposed within and slidable along the guide channel of the housing, the friction tab being movable relative to the guide tab and comprising a biasing portion configured to urge the friction tab against the housing for causing the guide tab to be contacted against the inner wall of the guide channel for providing frictional resistance between the slider component and the housing against sliding. a housing having a distal portion, a proximal portion, a longitudinal axis extending between the distal and proximal portions, the housing further comprising an inner cavity, a guide channel and an elongate slot, the guide channel extending along the longitudinal axis and accessible along an outer surface of the housing, the guide channel having an inner wall, the elongate slot extending along the longitudinal axis along the outer surface of the housing into the inner cavity; and a slider component slidably coupled to the housing along the outer surface thereof, the slider component slidable along the elongate slot for actuating a function of the inserter via the elongate slot, the slider component comprising a guide tab and a friction tab, the guide tab disposed within and slidable along the guide channel of the housing, the friction tab being movable relative to the guide tab and comprising a biasing portion configured to urge the friction tab against the housing for causing the guide tab to be contacted against the inner wall of the guide channel for providing frictional resistance between the slider component and the housing against sliding.
A data scheduling apparatus, comprising: an interface unit, configured to obtain a first uplink grant and a second uplink grant, wherein a resource indicated by the first uplink grant overlaps with, in time domain, a resource indicated by the second uplink grant; and a processing unit, configured to: start to schedule data on the resource indicated by the first uplink grant, and start, when a part of data has been scheduled for the first uplink grant, to schedule data on the resource indicated by the second uplink grant, wherein the processing unit is further configured to: perform parallel scheduling for the first uplink grant and the second uplink grant, and when the part of data has been scheduled for the first uplink grant, start, based on the parallel scheduling, to schedule the data on the resource indicated by the second uplink grant, wherein the parallel scheduling comprises a plurality of rounds of data scheduling, and parts of data are allowed to be respectively scheduled for the first uplink grant and the second uplink grant in a round of data scheduling. an interface unit, configured to obtain a first uplink grant and a second uplink grant, wherein a resource indicated by the first uplink grant overlaps with, in time domain, a resource indicated by the second uplink grant; and a processing unit, configured to: start to schedule data on the resource indicated by the first uplink grant, and start, when a part of data has been scheduled for the first uplink grant, to schedule data on the resource indicated by the second uplink grant, wherein the processing unit is further configured to: perform parallel scheduling for the first uplink grant and the second uplink grant, and when the part of data has been scheduled for the first uplink grant, start, based on the parallel scheduling, to schedule the data on the resource indicated by the second uplink grant, wherein the parallel scheduling comprises a plurality of rounds of data scheduling, and parts of data are allowed to be respectively scheduled for the first uplink grant and the second uplink grant in a round of data scheduling.
A low-emissivity coating on a substrate, the coating comprising, in order outward from the substrate: a first dielectric layer; a first nucleation layer; a first Ag layer; a first absorbing barrier layer; a second dielectric layer; a second nucleation layer; a second Ag layer; a second absorbing barrier layer; a third dielectric layer; and optionally, a topcoat layer wherein at least one of the first and the second absorbing barrier layers comprises a suboxide, wherein the oxidation state of the absorbing barrier layer that comprises a suboxide is based on sputtering the layer using a ratio of oxygen flow, sccm, to sputtering power, in kilowatts, that is from 7.5:1 to 8.0:1. a first dielectric layer; a first nucleation layer; a first Ag layer; a first absorbing barrier layer; a second dielectric layer; a second nucleation layer; a second Ag layer; a second absorbing barrier layer; a third dielectric layer; and optionally, a topcoat layer wherein at least one of the first and the second absorbing barrier layers comprises a suboxide, wherein the oxidation state of the absorbing barrier layer that comprises a suboxide is based on sputtering the layer using a ratio of oxygen flow, sccm, to sputtering power, in kilowatts, that is from 7.5:1 to 8.0:1.
Method for a virtual keyboard, the method being characterized in that it comprises the steps of: • defining at least one geometric shape; • placing, along the outline of the geometric shape, a plurality of character icons corresponding to alphanumeric characters; • generating, at least one line, crossing said geometric shape, and having at least two crossing points with said at least one geometric shape and with two of its character icons per line, which are thereby designated as currently highlighted character icons; • assigning said two character icons to two distinct keys on a controller; • automatically, successively highlighting pairs of said character icons; • awaiting a user input designating either of the two character icons currently highlighted. • defining at least one geometric shape; • placing, along the outline of the geometric shape, a plurality of character icons corresponding to alphanumeric characters; • generating, at least one line, crossing said geometric shape, and having at least two crossing points with said at least one geometric shape and with two of its character icons per line, which are thereby designated as currently highlighted character icons; • assigning said two character icons to two distinct keys on a controller; • automatically, successively highlighting pairs of said character icons; • awaiting a user input designating either of the two character icons currently highlighted.
Method for scheduling dataflow components of a distributed dataflow, executed by a scheduling device, wherein scheduling a dataflow component comprises assigning a processing device out of a plurality of processing devices to said dataflow component, the method being characterized by comprising repeating the following steps for successive increasing input message rates -1/β-: - applying an ingress message flow at an ingress message rate-1/β-to a distributed dataflow comprising at least one dataflow component executed by respective processing devices, - determining a total latency (Δt) of at least one of dataflow component, and - determining a serving rate -μ-associated with said ingress message rate -1/β-for said at least one dataflow component, as a function of said ingress message rate -1/β-and said total latency (Δt), by solving an equations system, until the scheduling device is unable to determine a serving rate - μ-associated with the ingress message rate -1/β-because said equations system is unsolvable, thereby determining a maximum serving rate for said at least one dataflow component, and scheduling said at least one dataflow component based on the determined maximum serving rate, wherein scheduling a dataflow component comprises: - determining a processor utilization of the dataflow component as a function of the determined maximum serving rate, and - selecting a processing device such that a sum of the current processor utilization of the processing device and the determined processor utilization of the dataflow component is below a predetermined threshold. - applying an ingress message flow at an ingress message rate-1/β-to a distributed dataflow comprising at least one dataflow component executed by respective processing devices, - determining a total latency (Δt) of at least one of dataflow component, and - determining a serving rate -μ-associated with said ingress message rate -1/β-for said at least one dataflow component, as a function of said ingress message rate -1/β-and said total latency (Δt), by solving an equations system, until the scheduling device is unable to determine a serving rate - μ-associated with the ingress message rate -1/β-because said equations system is unsolvable, thereby determining a maximum serving rate for said at least one dataflow component, and scheduling said at least one dataflow component based on the determined maximum serving rate, wherein scheduling a dataflow component comprises: - determining a processor utilization of the dataflow component as a function of the determined maximum serving rate, and - selecting a processing device such that a sum of the current processor utilization of the processing device and the determined processor utilization of the dataflow component is below a predetermined threshold.
A four-wheel steering system, comprising: a front-wheel steering system that steers front wheels (12 FR, 12 FL) of a vehicle; and a rear-wheel steering system that steers rear wheels of the vehicle in accordance with a steering angle (θ s) that is a rotation angle of a steering wheel, wherein, when a vehicle speed is lower than a vehicle speed threshold, the rear-wheel steering system steers the rear wheels (12 RR, 12 RL) in an opposite direction to that in which the front wheels are steered, and when the vehicle speed is lower than the vehicle speed threshold, the rear-wheel steering system sharply increases a rate of increase in steered angle (θ wr) of the rear wheels with respect to an increase in steering angle (θ s) when an absolute value of the steering angle (θ s) is equal to or larger than an absolute value of an angle threshold (θ th, -θ th). a front-wheel steering system that steers front wheels (12 FR, 12 FL) of a vehicle; and a rear-wheel steering system that steers rear wheels of the vehicle in accordance with a steering angle (θ s) that is a rotation angle of a steering wheel, wherein, when a vehicle speed is lower than a vehicle speed threshold, the rear-wheel steering system steers the rear wheels (12 RR, 12 RL) in an opposite direction to that in which the front wheels are steered, and when the vehicle speed is lower than the vehicle speed threshold, the rear-wheel steering system sharply increases a rate of increase in steered angle (θ wr) of the rear wheels with respect to an increase in steering angle (θ s) when an absolute value of the steering angle (θ s) is equal to or larger than an absolute value of an angle threshold (θ th, -θ th).
A method of preparing a cryogenic sample, in which there is asymmetry or distinction between a first side and an oppositely disposed second side of the sample, whereby the sample is subjected to rapid cooling using a cryogen, comprising the following steps: - Providing two conduits (31a, 31b) for transporting cryogenic fluid, each of which conduits opens out into a mouthpiece (33a, 33b), which mouthpieces are arranged to face each other across an intervening gap; - Placing the sample in said gap; - Pumping cryogenic fluid through said conduits (31a, 31b) so as to concurrently flush from said mouthpieces (33a, 33b), thereby suddenly immersing the sample in cryogenic fluid from two opposite sides, characterized in that the flush of cryogenic fluid applied from a first of said mouthpieces is different to that applied from the second of said mouthpieces. - Providing two conduits (31a, 31b) for transporting cryogenic fluid, each of which conduits opens out into a mouthpiece (33a, 33b), which mouthpieces are arranged to face each other across an intervening gap; - Placing the sample in said gap; - Pumping cryogenic fluid through said conduits (31a, 31b) so as to concurrently flush from said mouthpieces (33a, 33b), thereby suddenly immersing the sample in cryogenic fluid from two opposite sides, characterized in that the flush of cryogenic fluid applied from a first of said mouthpieces is different to that applied from the second of said mouthpieces.
A rotational coupling device, comprising: a coupling disc configured to be disposed about a shaft having a rotational axis; an electromagnet assembly disposed on a first side of the coupling disc, the assembly including a housing; and a conductor disposed within the housing an armature disposed on a second side of the coupling disc opposite the conductor, the coupling disc, the electromagnet assembly and the armature forming an electromagnetic circuit when current is supplied to the conductor to urge the armature towards engagement with the coupling disc; and, characterized by an anti-rotation mechanism (32 or 102 or 112 or 132 or 146) for the electromagnet assembly including at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) configured to be mounted to an outer surface of the housing of the electromagnet assembly and aligned with at least one fixed permanent magnet (80 or 110 or 122 or 142 or 154) mounted to a fixed support structure so as to inhibit movement of the at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) and the electromagnet assembly in either rotational direction about the rotational axis. a coupling disc configured to be disposed about a shaft having a rotational axis; an electromagnet assembly disposed on a first side of the coupling disc, the assembly including a housing; and a conductor disposed within the housing a housing; and a conductor disposed within the housing an armature disposed on a second side of the coupling disc opposite the conductor, the coupling disc, the electromagnet assembly and the armature forming an electromagnetic circuit when current is supplied to the conductor to urge the armature towards engagement with the coupling disc; and, characterized by an anti-rotation mechanism (32 or 102 or 112 or 132 or 146) for the electromagnet assembly including at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) configured to be mounted to an outer surface of the housing of the electromagnet assembly and aligned with at least one fixed permanent magnet (80 or 110 or 122 or 142 or 154) mounted to a fixed support structure so as to inhibit movement of the at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) and the electromagnet assembly in either rotational direction about the rotational axis.
Extrusion installation for the manufacture of a complex profiled-element strip such as a tread, based on elastomer compounds by co-extrusion, and comprising multiple extruders (10, 20, 30, 40, 50, 60) feeding elastomer compounds to an extrusion head, characterized in that the extrusion head receives a proportion of elastomer compound of between 2 and 25% of the total volumetric throughput of the installation from at least one Archimedean-screw extruder (10, 20), and the rest from positive-displacement extruders (30, 40, 50, 60).
A garment (10, 90, 100) to be worn on the foot, wherein the garment (10, 90, 100) is a sock comprising: a foot area; and a heel area (20, 70, 100) extending from the foot area and located to correspond to the heel of a foot when worn by a user, the heel area (20, 70, 100) comprising an elastic border, defined by a first elastic band (22, 72, 112) that extends generally vertically from the bottom of the sock (10, 90, 100) and a second elastic band (24, 74, 114) that extends from the back of the sock (10, 90, 100) horizontally, that substantially surrounds a heel pocket (26, 76, 116), the heel pocket (26, 76, 116) being less elastic than the elastic border, wherein the first and second elastic bands meet at terminating ends thereof, forming a substantially right angle, characterized in that the sock (10, 90, 100) further comprises a third elastic band (28, 78, 118) with a first end located at the intersection of the first and second elastic bands (22, 72, 112; 24, 74, 114), and a second end that extends into the heel pocket (26, 76, 116), or with a first end located at the intersection of the first and second elastic bands (22, 72, 112; 24, 74, 114), and a second end that extends away from the heel pocket (26, 76, 116), wherein the third elastic band (28, 78, 118) has a tapering width that terminates in a point.
An air conditioning apparatus comprising: a body having an air intake port and an air outlet port; a blower fan placed on a downwind side of the air intake port in the body, the blower fan configured to form an air flow that takes air from the air intake port into the body and discharges air from the air outlet port; a heat exchanger provided on the downwind side of the blower fan in the body; and an electric discharge and field generator provided on a upwind side of the heat exchanger in an air trunk of the air flow in the body, the electric discharge and field generator having a box-shaped frame (9, 10) having two opening surfaces respectively positioned on the upwind side and the downwind side, the electric discharge and field generator housing a discharge electrode and a counter electrode in the box-shaped frame (9, 10), wherein the heat exchanger is placed to have a section of an inverted V or W shape with a vertex being directed toward the upwind side, wherein the opening surface on the downwind side of the frame (9, 10) faces an end surface on the upwind side of the heat exchanger, characterized in that the opening surface on the downwind side of the frame (9, 10) is placed to be tilted by 5 degrees and more to 20 degrees or less with respect to the end surface, wherein the counter electrode has an electrode surface placed to be tilted by 15 degrees and more to 30 degrees or less with respect to the opening surface on the downwind side of the frame (9, 10). a body having an air intake port and an air outlet port; a blower fan placed on a downwind side of the air intake port in the body, the blower fan configured to form an air flow that takes air from the air intake port into the body and discharges air from the air outlet port; a heat exchanger provided on the downwind side of the blower fan in the body; and an electric discharge and field generator provided on a upwind side of the heat exchanger in an air trunk of the air flow in the body, the electric discharge and field generator having a box-shaped frame (9, 10) having two opening surfaces respectively positioned on the upwind side and the downwind side, the electric discharge and field generator housing a discharge electrode and a counter electrode in the box-shaped frame (9, 10), wherein the heat exchanger is placed to have a section of an inverted V or W shape with a vertex being directed toward the upwind side, wherein the opening surface on the downwind side of the frame (9, 10) faces an end surface on the upwind side of the heat exchanger, characterized in that the opening surface on the downwind side of the frame (9, 10) is placed to be tilted by 5 degrees and more to 20 degrees or less with respect to the end surface, wherein the counter electrode has an electrode surface placed to be tilted by 15 degrees and more to 30 degrees or less with respect to the opening surface on the downwind side of the frame (9, 10).