mhurhangee/ep-ind-claims huggingface dataset:
A device for binding at least one item, comprising: a length of band material having a free end and a tail section, said tail section shaped to form a loop that receives a seal, said loop comprising: an upper band portion; a lower band portion, which is substantially parallel to and spaced from said upper band portion; a preformed end that is opposite from said free end, said preformed end interconnecting said upper band portion and said lower band portion; a first band portion that extends from an end of said lower band portion to a point adjacent to said upper band portion, said first band portion interconnected to a second band portion that is parallel to said upper band portion; wherein said seal is positioned in an interior space defined by said upper band portion, said lower band portion, said preformed end, and said first band portion; and a protrusion formed in said first band portion that extends into said interior space, wherein said protrusion is adapted to engage an edge of the seal and prevent it from dislodging from within the space formed by the loop of band material. a length of band material having a free end and a tail section, said tail section shaped to form a loop that receives a seal, said loop comprising: an upper band portion; a lower band portion, which is substantially parallel to and spaced from said upper band portion; a preformed end that is opposite from said free end, said preformed end interconnecting said upper band portion and said lower band portion; a first band portion that extends from an end of said lower band portion to a point adjacent to said upper band portion, said first band portion interconnected to a second band portion that is parallel to said upper band portion; an upper band portion; a lower band portion, which is substantially parallel to and spaced from said upper band portion; a preformed end that is opposite from said free end, said preformed end interconnecting said upper band portion and said lower band portion; a first band portion that extends from an end of said lower band portion to a point adjacent to said upper band portion, said first band portion interconnected to a second band portion that is parallel to said upper band portion; wherein said seal is positioned in an interior space defined by said upper band portion, said lower band portion, said preformed end, and said first band portion; and a protrusion formed in said first band portion that extends into said interior space, wherein said protrusion is adapted to engage an edge of the seal and prevent it from dislodging from within the space formed by the loop of band material.
A carton for cut sheets of paper disposed in layers, having a bottom wall, opposite side walls (12, 13), and opposite end walls (14, 15) wherein the carton comprises: an opening in each of the opposite end walls (14, 15) a carry handle secured to an inner surface of each end wall in aligned registry with a respective opening, said carry handles (32, 33) having a stowed position inside the carton and an extended position outside the carton for lifting and carrying the carton; and at least one spacer panel (42, 43; 50) in said carton, said at least one spacer panel having cutouts (44, 51, 52), in aligned registry with respective carry handles (32, 33), each cutout having a width and a length adequate to accommodate the respective carry handle when it is in its stowed position and prevent contact between the carry handle (32, 33) and paper in the carton.
A household cleaning composition comprising: a. from 1.0 % to 50% by weight of the total composition of a surfactant system; and b. a polyvinyl alcohol copolymer, wherein the polyvinyl alcohol copolymer comprises vinyl alcohol monomers, vinyl acetate monomers, and alkyl-1-ene monomers, wherein the alkyl-1-ene monomers have an alkyl chain comprising on average from 8 to 20 carbon atoms, wherein the polyvinyl alcohol copolymer has: i. an average degree of hydrolysis (dH) of from 30% to 80%, ii. a weight average degree of polymerisation (dP) of from 200 to 800, and iii. an average degree of alkyl-1-ene monomer molar substitution (dS) of from 0.25% to 4.0%. a. from 1.0 % to 50% by weight of the total composition of a surfactant system; and b. a polyvinyl alcohol copolymer, wherein the polyvinyl alcohol copolymer comprises vinyl alcohol monomers, vinyl acetate monomers, and alkyl-1-ene monomers, wherein the alkyl-1-ene monomers have an alkyl chain comprising on average from 8 to 20 carbon atoms, i. an average degree of hydrolysis (dH) of from 30% to 80%, ii. a weight average degree of polymerisation (dP) of from 200 to 800, and iii. an average degree of alkyl-1-ene monomer molar substitution (dS) of from 0.25% to 4.0%.
An access point, AP, device, comprising a lower housing, a printed circuit board, PCB, assembly, and an upper cover, wherein the PCB assembly is located in a cavity between the upper cover and the lower housing; and the PCB assembly comprises a PCB, an antenna, a first device, and a second device; the antenna is fastened to an upper surface of the PCB, and the upper surface is a surface that is of the PCB and that is close to the upper cover; the first device is located on the upper surface, and a height of the first device is less than a first height threshold; and the second device is located on a lower surface of the PCB, the lower surface is a surface that is of the PCB and that is close to the lower housing, and a height of the second device is greater than the first height wherein the PCB assembly further comprises a shielding cover; a height from a top of the antenna to the upper surface of the PCB is a first height, a height from a top of the shielding cover to the upper surface of the PCB is a second height, and a difference between the first height and the second height is greater than a second height threshold; and the shielding cover is fastened to the upper surface of the PCB, and the first device is located in a cavity between the shielding cover and the PCB, wherein a minimum distance between the shielding cover and the top of the antenna is 12 mm. device, comprising a lower housing, a printed circuit board, PCB, assembly, and an upper cover, wherein the PCB assembly is located in a cavity between the upper cover and the lower housing; and the PCB assembly comprises a PCB, an antenna, a first device, and a second device; the antenna is fastened to an upper surface of the PCB, and the upper surface is a surface that is of the PCB and that is close to the upper cover; the first device is located on the upper surface, and a height of the first device is less than a first height threshold; and the second device is located on a lower surface of the PCB, the lower surface is a surface that is of the PCB and that is close to the lower housing, and a height of the second device is greater than the first height wherein the PCB assembly further comprises a shielding cover; a height from a top of the antenna to the upper surface of the PCB is a first height, a height from a top of the shielding cover to the upper surface of the PCB is a second height, and a difference between the first height and the second height is greater than a second height threshold; and the shielding cover is fastened to the upper surface of the PCB, and the first device is located in a cavity between the shielding cover and the PCB, wherein a minimum distance between the shielding cover and the top of the antenna is 12 mm.
A nitrogen-containing aromatic compound, which is represented by the general formula: in the formula, L represents an m+n-valent aromatic hydrocarbon group having 6 to 30 carbon atoms or aromatic heterocyclic group having 3 to 30 carbon atoms and free of a fused heterocycle having 4 or more rings, a group arising from a triarylamine having 9 to 30 carbon atoms, or a group arising from a diaryl sulfone having 6 to 24 carbon atoms, X's each represent N-A, O, S, or Se, A's each independently represent an alkyl group having 1 to 30 carbon atoms, a cycloalkyl group having 3 to 30 carbon atoms, an alkenyl group having 2 to 30 carbon atoms, an alkynyl group having 2 to 30 carbon atoms, a silyl group having 3 to 18 carbon atoms, an acyl group having 2 to 19 carbon atoms, an aromatic hydrocarbon group having 6 to 50 carbon atoms, or an aromatic heterocyclic group having 3 to 50 carbon atoms and free of a fused heterocycle having 4 or more rings, R's each independently represent hydrogen, an alkyl group having 1 to 30 carbon atoms, a cycloalkyl group having 3 to 30 carbon atoms, an alkenyl group having 2 to 30 carbon atoms, an alkynyl group having 2 to 30 carbon atoms, an aromatic hydrocarbon group having 6 to 30 carbon atoms, or an aromatic heterocyclic group having 3 to 30 carbon atoms and free of a fused heterocycle having 4 or more rings, m represents an integer of 1 to 4, n represents an integer of 0 to 3, and a sum of the m and the n is 2 to 4.
A nasal mask comprising: a nasal chamber formed by an interior of the nasal mask configured to cover a nose of a patient; an exhalation scoop fixed adjacent a lower portion of mask and adapted to overlie an upper lip of the patient when the mask is worn, the exhalation scoop formed of a flexible material such that the exhalation scoop is adapted to be folded back on itself to permit access to a mouth of the patient while the nasal mask remains on the patient; and an end-tidal CO 2 manifold comprising an end-tidal CO 2 port such that samples of both the nasal and oral exhalation flow through the manifold, and exit the end-tidal CO 2 port to a gas sampling device, a first opening located behind the exhalation scoop to overlie the upper lip of the patient for sampling exhaled CO 2 expelled from the mouth of the patient, and a second opening located on the interior of the nasal mask to underlie the nares of the patient for sampling exhaled CO 2 expelled from the nose of the patient. a nasal chamber formed by an interior of the nasal mask configured to cover a nose of a patient; an exhalation scoop fixed adjacent a lower portion of mask and adapted to overlie an upper lip of the patient when the mask is worn, the exhalation scoop formed of a flexible material such that the exhalation scoop is adapted to be folded back on itself to permit access to a mouth of the patient while the nasal mask remains on the patient; and an end-tidal CO 2 manifold comprising an end-tidal CO 2 port such that samples of both the nasal and oral exhalation flow through the manifold, and exit the end-tidal CO 2 port to a gas sampling device, a first opening located behind the exhalation scoop to overlie the upper lip of the patient for sampling exhaled CO 2 expelled from the mouth of the patient, and a second opening located on the interior of the nasal mask to underlie the nares of the patient for sampling exhaled CO 2 expelled from the nose of the patient.
A barrier (120, 306, 406, 506, 620, 720) for use in negative pressure wound therapy, the barrier comprising: a base layer defining a plurality of perforations extending entirely through the base layer, wherein the plurality of perforations are positioned, sized, and configured to allow flow therethrough for negative pressure wound therapy, wherein the base layer defines a top surface and a bottom surface that is configured to be positioned adjacent the surface of a wound; and top surface structures (132, 134,138) positioned on the top surface of the base layer, wherein the top surface structures are positioned, sized, and configured to space porous foam material away from the perforations of the base layer when porous foam material is positioned on top of the barrier after the barrier is positioned in the wound. a base layer defining a plurality of perforations extending entirely through the base layer, wherein the plurality of perforations are positioned, sized, and configured to allow flow therethrough for negative pressure wound therapy, wherein the base layer defines a top surface and a bottom surface that is configured to be positioned adjacent the surface of a wound; and top surface structures (132, 134,138) positioned on the top surface of the base layer, wherein the top surface structures are positioned, sized, and configured to space porous foam material away from the perforations of the base layer when porous foam material is positioned on top of the barrier after the barrier is positioned in the wound.
An electromagnetic structure configured for processing quantum information and for admitting 2 N electromagnetic propagation modes (18, 19; 38, 39, 40, 42; 58, 59, 60, 62; C1, C2, C3, C4), at least one pair of said propagation modes being coupled together; and wherein each of said propagation modes is associated with a corresponding N-qubit quantum state indicative of the occupation of the propagation mode by a coherent state that propagates in said electromagnetic structure, and wherein N>1; said electromagnetic structure being connectable to an electromagnetic source configured for exciting in input to the electromagnetic structure an input quantum state, on the basis of which the electromagnetic structure generates an output quantum state, said input quantum state being formed by the quantum superposition of a single photon or by a coherent state with an arbitrary average number μ of photons.
A laser machining system (100, 200, 300), in particular a laser welding system, for machining a workpiece by means of a laser beam, wherein the laser machining system comprises: - a laser machining head for irradiating a laser beam onto a workpiece for generating a vapor capillary; - an optical measuring device for measuring a depth of the vapor capillary by means of an optical measuring beam; - an image capturing unit adapted to capture an image of an area of the workpiece comprising the vapor capillary and a measuring spot generated on the workpiece by the optical measuring beam, characterised in that the laser machining system is adapted to determine a position of the measuring spot and a position of the vapor capillary for measuring the depth of the vapor capillary based on the captured image, and wherein the laser machining system further comprises an adjustment device adapted to adjust the position of the measuring spot to the position of the vapor capillary determined for measuring the depth of the vapor capillary. - a laser machining head for irradiating a laser beam onto a workpiece for generating a vapor capillary; - an optical measuring device for measuring a depth of the vapor capillary by means of an optical measuring beam; - an image capturing unit adapted to capture an image of an area of the workpiece comprising the vapor capillary and a measuring spot generated on the workpiece by the optical measuring beam, the laser machining system is adapted to determine a position of the measuring spot and a position of the vapor capillary for measuring the depth of the vapor capillary based on the captured image, and wherein the laser machining system further comprises an adjustment device adapted to adjust the position of the measuring spot to the position of the vapor capillary determined for measuring the depth of the vapor capillary.
A system for phased array signal beam tracking, comprising: a phased array transmitter configured to transmit a signal beam at a selected transmit beam angle from a plurality of different transmit beam angles; and a beam gain angle coding assembly configured to modulate a gain of the signal beam to produce a resulting gain profile of the signal beam, the resulting gain profile comprising offset angle coding that indicates an offset incident angle of the signal beam at a receiving antenna; a first receiver configured to receive the signal beam; a correlator configured to cross-correlate the resulting gain profile or waveform of the received signal beam against a plurality of angle coded waveforms to determine an offset incident angle of the received signal beam, each angle coded waveform corresponds to a respective one of a plurality of different offset incident angles of an incident signal beam, wherein the offset incident angle of the received signal beam corresponds to an angle coded waveform of the plurality of angle coded waveforms with a highest correlation to the waveform of the received signal beam; a module configured to determine an angle error, wherein the angle error is a difference between an actual angle of incidence of the received signal beam and the offset incident angle of the received signal beam; and a transmitter configured to transmit the angle error to a second receiver associated with the phased array transmitter, the angle error being used to steer the phased array transmitter. a phased array transmitter configured to transmit a signal beam at a selected transmit beam angle from a plurality of different transmit beam angles; and a beam gain angle coding assembly configured to modulate a gain of the signal beam to produce a resulting gain profile of the signal beam, the resulting gain profile comprising offset angle coding that indicates an offset incident angle of the signal beam at a receiving antenna; a first receiver configured to receive the signal beam; a correlator configured to cross-correlate the resulting gain profile or waveform of the received signal beam against a plurality of angle coded waveforms to determine an offset incident angle of the received signal beam, each angle coded waveform corresponds to a respective one of a plurality of different offset incident angles of an incident signal beam, wherein the offset incident angle of the received signal beam corresponds to an angle coded waveform of the plurality of angle coded waveforms with a highest correlation to the waveform of the received signal beam; a module configured to determine an angle error, wherein the angle error is a difference between an actual angle of incidence of the received signal beam and the offset incident angle of the received signal beam; and a transmitter configured to transmit the angle error to a second receiver associated with the phased array transmitter, the angle error being used to steer the phased array transmitter.
System for measuring a distance travelled by a guided vehicle designed for being electrically connected to a power line, the system comprising: - a sensor system configured for being installed on-board the guided vehicle and for measuring, for at least one field component of an electromagnetic field of said power line, values of said at least one field component; - a processing unit connected to the sensor system, said processing unit being configured for receiving, for each of the field components for which said values have been measured, the measured values; characterized in that the processing unit is configured for automatically calculating, for at least one of the field components for which said values have been measured, a travelled distance Δx = x j -x i that has been travelled by the guided vehicle by solving, for the considered field component, the following equations: y j = W x j t j; and y i = W x i t i wherein y j is the value measured by the sensor system for said considered field component at position x j and time t j; y i is the value measured by the sensor system for said considered field component at position x i and time t i; W(x k,t k) is a wave function configured for modelling the values y k measured for the considered field component in function of the position x k and time t k, wherein the positions x k are defined along the power line; the travelled distance Δx = x j -x i being the distance travelled by the guided vehicle between two measurements of the considered field component performed respectively at time t i at position x i and at time t j at position x j and resulting in measured values y i and y j respectively. - a sensor system configured for being installed on-board the guided vehicle and for measuring, for at least one field component of an electromagnetic field of said power line, values of said at least one field component; - a processing unit connected to the sensor system, said processing unit being configured for receiving, for each of the field components for which said values have been measured, the measured values; y j is the value measured by the sensor system for said considered field component at position x j and time t j; y i is the value measured by the sensor system for said considered field component at position x i and time t i; W(x k,t k) is a wave function configured for modelling the values y k measured for the considered field component in function of the position x k and time t k, wherein the positions x k are defined along the power line; the travelled distance Δx = x j -x i being the distance travelled by the guided vehicle between two measurements of the considered field component performed respectively at time t i at position x i and at time t j at position x j and resulting in measured values y i and y j respectively.
A flame retardant material comprising: (a) a fabric substrate; (b) a coating on the substrate, wherein the coating is optionally corona-treated, the coating comprising a flame retardant polyolefin composition comprising: (i) an ethylene based plastomer with a density in the range of 0.857 to 0.915 g/cm 3 and an MFR 2 (190°C; 2.16 kg) in the range 0.5 - 30 g/10 min, wherein the ethylene based plastomer is a copolymer of ethylene and at least one C 3 - C 10 alpha-olefin; (ii) a propylene based plastomer with a density in the range of 0.850 to 0.910 g/cm 3 and an MFR 2 (230 °C/2.16 kg) in the range 0.01 - 30 g/10 min, wherein the propylene based plastomer is a copolymer of propylene and ethylene or a C 4 - C 10 alpha-olefin; and (iii) a flame retardant comprising an ammonium polyphosphate; (c) an acrylic-modified polyethylene primer layer on top of the coating; and (d) a lacquer topcoat on top of the primer layer, wherein the lacquer topcoat comprises a polyurethane or a fluoropolymer. (a) a fabric substrate; (b) a coating on the substrate, wherein the coating is optionally corona-treated, the coating comprising a flame retardant polyolefin composition comprising: (i) an ethylene based plastomer with a density in the range of 0.857 to 0.915 g/cm 3 and an MFR 2 (190°C; 2.16 kg) in the range 0.5 - 30 g/10 min, wherein the ethylene based plastomer is a copolymer of ethylene and at least one C 3 - C 10 alpha-olefin; (ii) a propylene based plastomer with a density in the range of 0.850 to 0.910 g/cm 3 and an MFR 2 (230 °C/2.16 kg) in the range 0.01 - 30 g/10 min, wherein the propylene based plastomer is a copolymer of propylene and ethylene or a C 4 - C 10 alpha-olefin; and (iii) a flame retardant comprising an ammonium polyphosphate; (i) an ethylene based plastomer with a density in the range of 0.857 to 0.915 g/cm 3 and an MFR 2 (190°C; 2.16 kg) in the range 0.5 - 30 g/10 min, wherein the ethylene based plastomer is a copolymer of ethylene and at least one C 3 - C 10 alpha-olefin; (ii) a propylene based plastomer with a density in the range of 0.850 to 0.910 g/cm 3 and an MFR 2 (230 °C/2.16 kg) in the range 0.01 - 30 g/10 min, wherein the propylene based plastomer is a copolymer of propylene and ethylene or a C 4 - C 10 alpha-olefin; and (iii) a flame retardant comprising an ammonium polyphosphate; (c) an acrylic-modified polyethylene primer layer on top of the coating; and (d) a lacquer topcoat on top of the primer layer, wherein the lacquer topcoat comprises a polyurethane or a fluoropolymer.