mhurhangee/ep-ind-claims huggingface dataset:
An ankle brace (120, 220), comprising: (a) a base (122, 222) wearable in snug covering relationship to portions of an ankle and adjacent portions of a leg and a foot of a person, the base having an exterior surface (131, 231) and an interior surface (139, 239) when worn; and (b) a tension member (123, 223); characterized in that tension member has a first tensioning strap (124A, 224B) and a second tensioning strap (124B, 224A) and that, the tension member is permanently fastened to the interior surface of the base. (a) a base (122, 222) wearable in snug covering relationship to portions of an ankle and adjacent portions of a leg and a foot of a person, the base having an exterior surface (131, 231) and an interior surface (139, 239) when worn; and (b) a tension member (123, 223);
A preformed semi-finished dental article comprising an uncured dental restoration composition comprising: a resin system comprising a free-radically polymerizable semi-crystalline resin having a molecular weight no greater than 3000 g/mole; at least 50 wt-% of nanocluster filler wherein the nanocluster filler comprises primary particles having an average diameter of less than 100 nm; and one or more additional nanoscopic particulate fillers present in an amount ranging from 15 wt-% to 30 wt-%; wherein the uncured dental restoration composition has a first shape that is sufficiently malleable to be formed into a second shape. a resin system comprising a free-radically polymerizable semi-crystalline resin having a molecular weight no greater than 3000 g/mole; at least 50 wt-% of nanocluster filler wherein the nanocluster filler comprises primary particles having an average diameter of less than 100 nm; and one or more additional nanoscopic particulate fillers present in an amount ranging from 15 wt-% to 30 wt-%;
A gasoline fuel composition comprising as an additive a quaternary ammonium salt of formula: wherein X is a substituted alkylene group; Y is O, NH or NR 1 wherein R 1 is H or an optionally substituted hydrocarbyl group; Q + is a moiety that includes a quaternary ammonium cation; A - is an anion; R 2 is an optionally substituted alkylene group; R 3 is hydrogen or an optionally substituted hydrocarbyl group; and n is 0 or a positive integer; provided that n is not 0 when R 3 is hydrogen; wherein Q + is a group having the formula: wherein R 5 is an optionally substituted alkylene, arylene or alkenylene group and each of R 6, R 7 and R 8 is independently an optionally substituted hydrocarbyl group.
A method of handling items, at a first picking station (50, 100), in at least a semi-automated order fulfillment system comprising a holding facility, wherein at least a portion of the holding facility is configured to move dynamically, said first picking station comprising a robot configured to pick items from a source container to the holding facility and to pick items from the holding facility to a destination container the method comprising at least the steps of: - picking by the robot of said first picking station of at least one item from at least one source container to the holding facility, wherein the at least one item is picked from the at least one source container to the holding facility from which it is subsequently picked into a destination container, the source container being configured for holding a plurality of items and for storage in a storage-and-retrieval system; and - picking the at least one item from the holding facility to a destination container; said method being characterised in that at least a portion of the holding facility is shared between multiple pick stations and in that said step of picking the at least one item from the holding facility to a destination container is performed by a robot from a second adjacent picking station (50, 100) that has access to said portion of the holding facility. - picking by the robot of said first picking station of at least one item from at least one source container to the holding facility, wherein the at least one item is picked from the at least one source container to the holding facility from which it is subsequently picked into a destination container, the source container being configured for holding a plurality of items and for storage in a storage-and-retrieval system; and - picking the at least one item from the holding facility to a destination container; said method being characterised in that at least a portion of the holding facility is shared between multiple pick stations and in that said step of picking the at least one item from the holding facility to a destination container is performed by a robot from a second adjacent picking station (50, 100) that has access to said portion of the holding facility.
A helmet system for protection of a user's brain, said helmet system comprising: a) a helmet body; b) one or more inflatable pads attached to said helmet body; c) one or more bi-directional pressure-sensitive valves engageable with at least one coolant-containing canister capable of inflating said inflatable pads and cooling the user's brain; wherein the coolant is capable of providing a cooling rate to the brain ranging from about 0.1° C to 0.5° C/hr; and d) a temperature-sensitive probe capable of determining the user's brain temperature. a) a helmet body; b) one or more inflatable pads attached to said helmet body; c) one or more bi-directional pressure-sensitive valves engageable with at least one coolant-containing canister capable of inflating said inflatable pads and cooling the user's brain; wherein the coolant is capable of providing a cooling rate to the brain ranging from about 0.1° C to 0.5° C/hr; and d) a temperature-sensitive probe capable of determining the user's brain temperature.
A warrant recording system, comprising a setting apparatus and a tire pressure detector, characterized by: the setting apparatus provided with a communication unit, a control unit, and a reading and writing unit, the communication unit further connected with internet for acquiring a standard time; and the tire pressure detector signally connected with the setting apparatus, the tire pressure detector including a central processing unit, an information storing unit, and an air pressure detection unit; the central processing unit is coupled with the information storing unit and the air pressure detection unit, wherein the setting apparatus receives the standard time through the communication unit and writes the standard time into the information storing unit through the reading and writing unit, such that an initial timestamp is recorded by the information storing unit, wherein the initial timestamp refers to the corresponding standard time being written into the tire pressure detector. the setting apparatus provided with a communication unit, a control unit, and a reading and writing unit, the communication unit further connected with internet for acquiring a standard time; and the tire pressure detector signally connected with the setting apparatus, the tire pressure detector including a central processing unit, an information storing unit, and an air pressure detection unit; the central processing unit is coupled with the information storing unit and the air pressure detection unit, wherein the setting apparatus receives the standard time through the communication unit and writes the standard time into the information storing unit through the reading and writing unit, such that an initial timestamp is recorded by the information storing unit, wherein the initial timestamp refers to the corresponding standard time being written into the tire pressure detector.
Gas bag module for a motor vehicle, with a housing enclosing receiving space, which has a cover section and a further section, a gas bag arranged inside the receiving space and an inflator for filling the gas bag arranged inside the receiving space, wherein two fitting bolts (43, 43') extend from the inflator, wherein the housing is designed as a single-part plastic housing and has an assembly opening, through which the gas bag and the inflator are inserted into the receiving space during assembly and which is closed following completion of the assembly, wherein the further section has a first plate-shaped section, which has two through openings (28', 28") for the two fitting bolts (43, 43'), and wherein one fitting bolt protrudes through the one through opening and the other fitting bolt protrudes through the other through opening (28"), wherein the cover section borders directly onto the passenger space at least in some sections in an installed condition of the gas bag module and has a door closing an exit opening, characterised in that the first plate-shaped section has a through opening for a connection socket, which protrudes through this through opening, and in that the diameter of the through openings (28, 28', 28") is clearly greater than the diameters of the components (41, 43, 43') protruding through the same, so that the inflator is not rigidly connected with the housing and its position within the housing is therefore not fixed precisely.
Manually operated arrangement, adaptable for a transfer of said arrangement along a longitudinal extension of a rail, having a cross-section formed by an upper rail head, a rail web and a lower rail base and intended to be able to secure said rail against and to a subjacent crosstie by a horizontal transfer of paired rail fastening clips (3, 3a), included in as parts of fastening elements, and movable along holders (5, 5a), included in as parts of said fastening elements, where said holders co-operate firmly with said crosstie, and where said clips (3, 3a) are adapted to, by a movement from a detached position from said rail base, allow displacing said clips (3, 3a) horizontally in relation to said holders for a securing co-operation with said rail base, - the arrangement is provided with a first lever-shaped means having an opposed pair of levers (6a, 6b) being adaptable to, via its lower end areas (6aa, 6ab), co-operate with said clips (3, 3a) in order to activate counter-directed, horizontal movements of the opposed pair of levers (6a, 6b), - said first lever-shaped means, with its pair of levers (6a, 6b), being turnably arranged around middle horizontal turning shafts (7, 8), and - wherein said first lever-shaped means, via their upper end areas (6ac, 6ad), co-operate with a first extensible or shortenable device in order to bring said upper end areas (6ac, 6ad) away from each other in a securing co-operation displacement of said clips (3, 3a) with said rail base, - and where said arrangement has a means for lifting the crosstie, with said holders and said clips (3, 3a), up to said rail base, characterized in that said lifting means provides an initial adjustment to a maximized height between said rail base and said holders and in that said lifting means comprises a second extensible and/or shortenable device which at the maximized height of said lifting means is adjusted to assume a fully brought together position of said rail base and said crosstie. - the arrangement is provided with a first lever-shaped means having an opposed pair of levers (6a, 6b) being adaptable to, via its lower end areas (6aa, 6ab), co-operate with said clips (3, 3a) in order to activate - said first lever-shaped means, with its pair of levers (6a, 6b), being turnably arranged around middle horizontal turning shafts (7, 8), and - wherein said first lever-shaped means, via their upper end areas (6ac, 6ad), co-operate with a first extensible or shortenable device in order to bring said upper end areas (6ac, 6ad) away from each other in a securing co-operation displacement of said clips (3, 3a) with said rail base, - and where said arrangement has a means for lifting the crosstie,
A method for routing information using entropy labels in a segment routed network having label switched routers, LSRs, that process label stacks corresponding to one or more segments of the segment routed network, which comprises: providing a single entropy label identifier, ELI, and a single entropy label, EL, for a label stack associated with a packet traversing from an ingress LSR to an egress LSR of the segment routed network; inserting the ELI and EL directly below a top-most label in the label stack; and re-using the EL as the packet traverses from the ingress LSR to the egress LSR, wherein the ELI and EL are processed in one or more swap operations to occupy a position directly below a current top-most label as the packet traverses segments of the segment routed network to the egress LSR. providing a single entropy label identifier, ELI, and a single entropy label, EL, for a label stack associated with a packet traversing from an ingress LSR to an egress LSR of the segment routed network; inserting the ELI and EL directly below a top-most label in the label stack; and re-using the EL as the packet traverses from the ingress LSR to the egress LSR, wherein the ELI and EL are processed in one or more swap operations to occupy a position directly below a current top-most label as the packet traverses segments of the segment routed network to the egress LSR.
In a wireless transmitter, wherein an input bit sequence is encoded and transmitted over a wireless medium using a plurality of spatial streams each using a plurality of subcarriers, a method of interleaving comprising: receiving an encoded input bit stream from an encoder; parsing the encoded input bit stream to the plurality of spatial streams, wherein even bits of the encoded input bit stream are parsed to a first spatial stream and odd bits of the encoded input bit stream, adjacent the even bits, are parsed to a second spatial stream; interleaving bits parsed to the first spatial stream over subcarriers using a first interleaving sequence to generate a first plurality of interleaved bits; and interleaving bits parsed to the second spatial stream over subcarriers using a second interleaving sequence distinct from the first interleaving sequence to generate a second plurality of interleaved bits; wherein the first and second interleaving sequences differ by a cyclic shift in the subcarriers used. receiving an encoded input bit stream from an encoder; parsing the encoded input bit stream to the plurality of spatial streams, wherein even bits of the encoded input bit stream are parsed to a first spatial stream and odd bits of the encoded input bit stream, adjacent the even bits, are parsed to a second spatial stream; interleaving bits parsed to the first spatial stream over subcarriers using a first interleaving sequence to generate a first plurality of interleaved bits; and interleaving bits parsed to the second spatial stream over subcarriers using a second interleaving sequence distinct from the first interleaving sequence to generate a second plurality of interleaved bits; wherein the first and second interleaving sequences differ by a cyclic shift in the subcarriers used.
A trace-data processing device, comprising an input, which is configured to receive at least one source-specific trace data stream that comprises trace messages carrying encoded execution-flow information on a program execution flow performed by a source device under test or under observation, hereinafter DUT; a trace-data processing unit (526, 1100), which is configured to derive from the trace data stream runtime information associated with the program execution flow performed by the DUT, - wherein the trace-data processing unit comprises a message-distribution stage, a plurality of parallel message-processing stages (1106.1,...1106.N), and a result consolidation stage connected with the message-processing stages, - wherein the message-distribution stage is configured to distribute the received trace data stream (T1') over the message-processing stages in the form of respective trace data sequences that include at least one trace message, - wherein the message-processing stages (1106.1,...1106.N) are each configured to generate from the trace data sections decoded runtime information sequences associated with a respective section of the program execution flow performed by the DUT, - wherein the result-consolidation stage is configured to receive the runtime information sequences generated by the message-processing stages and to compose and provide at its output runtime information data representing an at least partial reconstruction of the program execution flow performed by the DUT. - wherein the trace-data processing unit comprises a message-distribution stage, a plurality of parallel message-processing stages (1106.1,...1106.N), and a result consolidation stage connected with the message-processing stages, - wherein the message-distribution stage is configured to distribute the received trace data stream (T1') over the message-processing stages in the form of respective trace data sequences that include at least one trace message, - wherein the message-processing stages (1106.1,...1106.N) are each configured to generate from the trace data sections decoded runtime information sequences associated with a respective section of the program execution flow performed by the DUT, - wherein the result-consolidation stage is configured to receive the runtime information sequences generated by the message-processing stages and to compose and provide at its output runtime information data representing an at least partial reconstruction of the program execution flow performed by the DUT.
A reagent for RNA extraction from a biological sample, comprising: lithium chloride; and a surfactant which comprises glycolic acid and deoxycholic acid. lithium chloride; and a surfactant which comprises glycolic acid and deoxycholic acid.
A lower vehicle-body structure of an electric vehicle comprising: a dash panel; a floor having a tunnel formed in a front part below the dash panel at a middle in a vehicle-width direction, the tunnel being adapted for housing an expanding portion expanding upward of a battery unit disposed below the floor; and a floor cross member spanning, above the floor, between side sills disposed on opposite sides of the floor, wherein a rear end of the tunnel is located directly in front of the floor cross member, and a reinforcing bracket is provided extending from the tunnel toward the floor cross member on a rear side of the tunnel so as to be spaced upward from the floor, and connected to an upper part of the floor cross member, wherein the reinforcing bracket includes a tunnel reinforcing bracket extending rearward from the tunnel, and a console support bracket provided on a rear side of the tunnel reinforcing bracket and connected to a rear part of the tunnel reinforcing bracket and the floor cross member on the rear side of the tunnel reinforcing bracket, characterized in that the tunnel reinforcing bracket is connected to an upper end of the floor cross member via the console support bracket. a dash panel; a floor having a tunnel formed in a front part below the dash panel at a middle in a vehicle-width direction, the tunnel being adapted for housing an expanding portion expanding upward of a battery unit disposed below the floor; and a floor cross member spanning, above the floor, between side sills disposed on opposite sides of the floor, wherein a rear end of the tunnel is located directly in front of the floor cross member, and a reinforcing bracket is provided extending from the tunnel toward the floor cross member on a rear side of the tunnel so as to be spaced upward from the floor, and connected to an upper part of the floor cross member, wherein the reinforcing bracket includes a tunnel reinforcing bracket extending rearward from the tunnel, and a console support bracket provided on a rear side of the tunnel reinforcing bracket and connected to a rear part of the tunnel reinforcing bracket and the floor cross member on the rear side of the tunnel reinforcing bracket, characterized in that the tunnel reinforcing bracket is connected to an upper end of the floor cross member via the console support bracket.
A mild hyperthermia treatment apparatus comprising: an imager which generates a planning image; a phased array of ultrasonic transducers; an array of ultrasonic transducer drivers for individually driving the ultrasonic transducers of the phased array to generate multi-foci sonications in a target region; one or more processors (30, 32, 34) programmed to: receive a target temperature profile based on the planning image, and calculate power, frequency and relative phase for the transducer drivers of the ultrasonic transducer driver array which causes the phased array of ultrasonic transducers to generate a multi-foci sonication pattern configured to heat the target region with the target temperature profile, characterised in that the one or more processors is/are further programmed to: calculate the powers, frequencies, and relative phases and/or a number of foci such that the multi-foci sonication profile maintains acoustic pressures in the target region below maximum acoustic pressures. an imager which generates a planning image; a phased array of ultrasonic transducers; an array of ultrasonic transducer drivers for individually driving the ultrasonic transducers of the phased array to generate multi-foci sonications in a target region; one or more processors (30, 32, 34) programmed to: receive a target temperature profile based on the planning image, and calculate power, frequency and relative phase for the transducer drivers of the ultrasonic transducer driver array which causes the phased array of ultrasonic transducers to generate a multi-foci sonication pattern configured to heat the target region with the target temperature profile, characterised in that the one or more processors is/are further programmed to: calculate the powers, frequencies, and relative phases and/or a number of foci such that the multi-foci sonication profile maintains acoustic pressures in the target region below maximum acoustic pressures. receive a target temperature profile based on the planning image, and calculate power, frequency and relative phase for the transducer drivers of the ultrasonic transducer driver array which causes the phased array of ultrasonic transducers to generate a multi-foci sonication pattern configured to heat the target region with the target temperature profile, characterised in that the one or more processors is/are further programmed to: calculate the powers, frequencies, and relative phases and/or a number of foci such that the multi-foci sonication profile maintains acoustic pressures in the target region below maximum acoustic pressures.
Rooftop fastening device for the rooftop mounting of installations which can be mounted on a sloping roof, such as solar modules, solar collectors or photovoltaic modules, with a base hook for attaching to the roof substructure, with a roof covering element attachable to said basic hook and with a fastening element to mount the installation, wherein the base hook, in plan view, is formed essentially in the shape of a letter H with two transverse arms (6, 7), each of which can be screwed to a roof batten, and a connecting arm, wherein the fastening element projects away from the connecting arm and wherein the roof covering element is designed as a cover plate which lies essentially flat over the base hook and is placed over the fastening element but which allows a screwed connection to be made between the installation, or a mounting aid of the installation, and the fastening element, characterised in that the fastening element on the long side of the connecting arm projects away from said arm, wherein the cover plate has an essentially rectangular cover part consisting of lead and with a sheath for the fastening element, said sheath being designed to largely match the shape of the fastening element.