mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article comprising a liquid pervious topsheet, a liquid impervious backsheet, and an absorbent core comprising an absorbent material between a top core wrap sheet and a back core wrap sheet, said absorbent core being positioned in between said topsheet and said backsheet, said absorbent core having a first and second longitudinal edge and a first and second transverse edge; wherein the absorbent core is provided with a plurality of attachment zones comprising at least a first and a second attachment zone (145, 155) located at a distance of each other, said first and second attachment zone (145, 155) extending next to each other from a crotch region in the direction of the first and/or second transverse edge; wherein in said first and second attachment zone: said top core wrap sheet is attached to said back core wrap sheet along an attachment which extends, seen in a transverse direction of the absorbent core, over a transverse distance which is at least 1 mm, preferably at least 2 mm, more preferably at least 3mm, most preferably at least 4 mm; and/or said top core wrap sheet is attached to said back core wrap sheet along a discontinuous attachment at a plurality of locations at a distance of each other, seen in the transverse direction of the absorbent core; such that upon wetting of the absorbent material, a first and second channel (140, 150) are created at said first and second attachment zone (145, 155), respectively, wherein the first and second attachment zones (145, 155) are parallel in a rear part of the crotch region, whilst the transverse distance between the first and second attachment zones (145, 155) gradually increases in the direction of the first transverse edge of the absorbent core, wherein the first transverse edge is a front transverse edge of the absorbent core. said top core wrap sheet is attached to said back core wrap sheet along an attachment which extends, seen in a transverse direction of the absorbent core, over a transverse distance which is at least 1 mm, preferably at least 2 mm, more preferably at least 3mm, most preferably at least 4 mm; and/or said top core wrap sheet is attached to said back core wrap sheet along a discontinuous attachment at a plurality of locations at a distance of each other, seen in the transverse direction of the absorbent core; such that upon wetting of the absorbent material, a first and second channel (140, 150) are created at said first and second attachment zone (145, 155), respectively, wherein the first and second attachment zones (145, 155) are parallel in a rear part of the crotch region, whilst the transverse distance between the first and second attachment zones (145, 155) gradually increases in the direction of the first transverse edge of the absorbent core, wherein the first transverse edge is a front transverse edge of the absorbent core.
A harness for breathing apparatus, the harness comprising a shoulder strap and a back plate or frame, the shoulder strap comprising: a first elongate strap portion generally extending along a first longitudinal axis; a second elongate strap portion attached to the first strap portion and generally extending along a second longitudinal axis that is oblique to the first axis; and a first attachment portion attaching a first end of the shoulder strap to the back plate or frame of the harness and a second attachment portion (32, 42) attaching a second end of the shoulder strap to the back plate or frame of the harness, wherein the first strap portion extends from an upper portion of the back plate across the shoulder of a wearer and the second strap portion extends from the first strap portion obliquely towards the side and under the arm of the wearer. a first elongate strap portion generally extending along a first longitudinal axis; a second elongate strap portion attached to the first strap portion and generally extending along a second longitudinal axis that is oblique to the first axis; and a first attachment portion attaching a first end of the shoulder strap to the back plate or frame of the harness and a second attachment portion (32, 42) attaching a second end of the shoulder strap to the back plate or frame of the harness, wherein the first strap portion extends from an upper portion of the back plate across the shoulder of a wearer and the second strap portion extends from the first strap portion obliquely towards the side and under the arm of the wearer.
Pneumatic impulse wrench for tightening screw joints, comprising a housing with an air inlet passage, an exhaust air outlet passage, and a manually operated throttle valve, a motor, an output shaft, and an impulse unit coupling the motor to the output shaft, a torque indicating means for generating electric signals in response to the output torque, an electrically activated inlet valve and a programmable operation control unit communicating with the impulse wrench, characterized in that • the inlet valve is located in the air inlet passage and arranged to control the air flow through the air inlet passage, • an electrically activated exhaust valve is arranged to control the exhaust air flow through the outlet passage, • wherein the control unit is arranged to individually activate said inlet valve and said exhaust valve in accordance with a programmed tightening strategy and in relation to signals received from the torque indicating means. • the inlet valve is located in the air inlet passage and arranged to control the air flow through the air inlet passage, • an electrically activated exhaust valve is arranged to control the exhaust air flow through the outlet passage, • wherein the control unit is arranged to individually activate said inlet valve and said exhaust valve in accordance with a programmed tightening strategy and in relation to signals received from the torque indicating means.
An apparatus for the removal of tissue comprising: a first jaw member including first and second elongated members, the first and second elongated members having proximal and distal ends and defining a channel therebetween; and a second jaw member having proximal and distal ends and defining a tissue contacting surface, wherein the distal end of the second jaw member is in a spaced apart relationship with the first jaw member when in a first position, and the distal end of the second jaw member extends into the channel defined between the distal ends of first and second elongated members when in a second position, and the proximale end of the second jaw member being pivotably coupled between the proximal ends of the first and second elongated members; the apparatus being characterized in that: the distal end of the second jaw member is configured as a pencil and extends beyond the distal end of first and second elongated members of the first jaw member when the jaws are in the second position to provide an operational end that includes a selectively energizable electrode tip for delivering electrosurgical energy in a monopolar configuration to spot cauterize tissue. a first jaw member including first and second elongated members, the first and second elongated members having proximal and distal ends and defining a channel therebetween; and a second jaw member having proximal and distal ends and defining a tissue contacting surface, wherein the distal end of the second jaw member is in a spaced apart relationship with the first jaw member when in a first position, and the distal end of the second jaw member extends into the channel defined between the distal ends of first and second elongated members when in a second position, and the proximale end of the second jaw member being pivotably coupled between the proximal ends of the first and second elongated members; the apparatus being characterized in that: the distal end of the second jaw member is configured as a pencil and extends beyond the distal end of first and second elongated members of the first jaw member when the jaws are in the second position to provide an operational end that includes a selectively energizable electrode tip for delivering electrosurgical energy in a monopolar configuration to spot cauterize tissue. the distal end of the second jaw member is configured as a pencil and extends beyond the distal end of first and second elongated members of the first jaw member when the jaws are in the second position to provide an operational end that includes a selectively energizable electrode tip for delivering electrosurgical energy in a monopolar configuration to spot cauterize tissue.
An aircraft antenna system comprising: a communication sub-system disposed within an aircraft, the communication sub-system comprising: one or more power supply components configured to generate a direct current, DC, power supply; and a first capacitive coupling device configured to capacitively couple an alternating current, AC, transmit signal to the DC power supply to form an antenna input signal; an antenna module disposed on the aircraft configured to receive the antenna input signal, the antenna module comprising: a second capacitive coupling device configured to de-couple the DC power supply and the AC transmit signal; and communication circuitry configured to generate one or more transmission signals based on the AC transmit signal; and an electrical line configured to carry the antenna input signal from the communication sub-system to the antenna module, wherein the first capacitive coupling device is configured to capacitively couple the AC transmit signal and one or more additional AC signals to the DC power supply to form the antenna input signal; and characterized in that the one or more additional AC signals comprise an AC control signal including one or more control commands configured to selectively adjust one or more characteristics of the antenna module. a communication sub-system disposed within an aircraft, the communication sub-system comprising: one or more power supply components configured to generate a direct current, DC, power supply; and a first capacitive coupling device configured to capacitively couple an alternating current, AC, transmit signal to the DC power supply to form an antenna input signal; one or more power supply components configured to generate a direct current, DC, power supply; and a first capacitive coupling device configured to capacitively couple an alternating current, AC, transmit signal to the DC power supply to form an antenna input signal; an antenna module disposed on the aircraft configured to receive the antenna input signal, the antenna module comprising: a second capacitive coupling device configured to de-couple the DC power supply and the AC transmit signal; and communication circuitry configured to generate one or more transmission signals based on the AC transmit signal; and a second capacitive coupling device configured to de-couple the DC power supply and the AC transmit signal; and communication circuitry configured to generate one or more transmission signals based on the AC transmit signal; and an electrical line configured to carry the antenna input signal from the communication sub-system to the antenna module, wherein the first capacitive coupling device is configured to capacitively couple the AC transmit signal and one or more additional AC signals to the DC power supply to form the antenna input signal; and characterized in that the one or more additional AC signals comprise an AC control signal including one or more control commands configured to selectively adjust one or more characteristics of the antenna module.
A precision landing system comprising: a vehicle including: at least one receiver configured to receive position information for structures and a landing zone of a landing site; at least one processor coupled to a memory, wherein the memory includes three-dimensional geometric structural information for a landing site, wherein the at least one processor is configured to: receive the position information from the at least one receiver; assign geographical coordinates to the three-dimensional geometric structural information using the position information for the structures and the landing zone of the landing site; output the three-dimensional geometric structural information and graphical rendering information; and a display device, wherein the display device is configured to render and display a three-dimensional representation of the landing site in real-time based on the three-dimension geometric structural information and the graphical rendering information output from the at least one processor. at least one receiver configured to receive position information for structures and a landing zone of a landing site; at least one processor coupled to a memory, wherein the memory includes three-dimensional geometric structural information for a landing site, wherein the at least one processor is configured to: receive the position information from the at least one receiver; assign geographical coordinates to the three-dimensional geometric structural information using the position information for the structures and the landing zone of the landing site; output the three-dimensional geometric structural information and graphical rendering information; and receive the position information from the at least one receiver; assign geographical coordinates to the three-dimensional geometric structural information using the position information for the structures and the landing zone of the landing site; output the three-dimensional geometric structural information and graphical rendering information; and a display device, wherein the display device is configured to render and display a three-dimensional representation of the landing site in real-time based on the three-dimension geometric structural information and the graphical rendering information output from the at least one processor.
A lighting device comprising: a hollow and translucent gas-filled envelope (12, 22, 52) connected to a base (13, 23, 53); a light mixing element (10, 20, 30, 50, 60) arranged within the envelope (12, 22, 52); and at least one light emitting diode (11,21,31,51) arranged within the envelope (12, 22, 52), arranged to emit light into the light mixing element (10, 20, 30, 50, 60) and arranged in thermal contact with the light mixing element (10, 20, 30, 50, 60); wherein the light mixing element (10, 20, 30, 50, 60) comprises a thermally conductive and translucent ceramic material; wherein light emitted from the light emitting diode (11, 21, 31, 51) is mixed within the light mixing element (10, 20, 30, 50, 60), distributed from the light mixing element (10, 20, 30, 50, 60) through the thermally conductive and translucent ceramic material, and transmitted through the translucent envelope (12, 22, 52), wherein a distance (d) between the light mixing element (10, 20, 30, 50, 60) and the envelope is equal to or smaller than the thickness of the summed effective thermal boundary layers at the light mixing element (10, 20, 30, 50, 60) side and at the envelope side, such that the direct heat conduction may transfer heat more efficiently than the natural convection. a hollow and translucent gas-filled envelope (12, 22, 52) connected to a base (13, 23, 53); a light mixing element (10, 20, 30, 50, 60) arranged within the envelope (12, 22, 52); and at least one light emitting diode (11,21,31,51) arranged within the envelope (12, 22, 52), arranged to emit light into the light mixing element (10, 20, 30, 50, 60) and arranged in thermal contact with the light mixing element (10, 20, 30, 50, 60); wherein the light mixing element (10, 20, 30, 50, 60) comprises a thermally conductive and translucent ceramic material; wherein light emitted from the light emitting diode (11, 21, 31, 51) is mixed within the light mixing element (10, 20, 30, 50, 60), distributed from the light mixing element (10, 20, 30, 50, 60) through the thermally conductive and translucent ceramic material, and transmitted through the translucent envelope (12, 22, 52), wherein a distance (d) between the light mixing element (10, 20, 30, 50, 60) and the envelope is equal to or smaller than the thickness of the summed effective thermal boundary layers at the light mixing element (10, 20, 30, 50, 60) side and at the envelope side, such that the direct heat conduction may transfer heat more efficiently than the natural convection.
A stable glucagon formulation comprising: (a) a glucagon peptide or salt thereof, wherein the glucagon peptide or salt thereof is not prepared by drying in the presence of a non-volatile buffer having a pH of 2 to 4 to produce a glucagon peptide having a pH memory of 2 to 4; (b) an ionization stabilizing excipient, wherein the ionization stabilizing excipient is a mineral acid; and (c) an aprotic polar solvent; wherein (i) the glucagon peptide or salt thereof is dissolved in the aprotic solvent in an amount from about 0.1 mg/mL up to the solubility limit of the glucagon peptide or salt thereof, and (ii) the ionization stabilizing excipient is dissolved in the aprotic solvent in an amount to stabilize the ionization of the glucagon peptide or salt thereof wherein the ionization stabilizing excipient is at a concentration of 0.1 mM to less than 100 mM. (a) a glucagon peptide or salt thereof, wherein the glucagon peptide or salt thereof is not prepared by drying in the presence of a non-volatile buffer having a pH of 2 to 4 to produce a glucagon peptide having a pH memory of 2 to 4; (b) an ionization stabilizing excipient, wherein the ionization stabilizing excipient is a mineral acid; and (c) an aprotic polar solvent;
A single screw compressor comprising a main rotor and at least one gate rotor, a casing for the main rotor having a discharge port at a discharge end of the casing, and a slide slidable within a bore in the casing adjacent the main rotor, the slide having a cut-out between first (2,2') and second sealing parts of the slide, characterised in that the slide is slidable between a high volume ratio position where the cut-out is within the casing and provides a path to the discharge port, and a low volume ratio position where the slide is beyond the discharge end of the casing to provide a fixed discharge path in the bore of the casing.
A source evolved node B, eNB, (304; 504) for handover operations in a network, comprising: processing circuitry; and computer-readable storage media having stored thereon instructions for execution by the processing circuitry to configure the source eNB to: send (314; 514) a measurement control message to a user equipment, UE (302; 502); receive (320; 520; 602) a measurement report from the UE (302; 502); decide (322; 522) to make a handover of the UE (302; 502) to a target eNB (306; 506), the handover to comprise a random-access, RACH-less handover of the UE (302; 502) to the target eNB (306; 506); send (324; 524; 604) a handover request to the target eNB (306; 506); receive (328; 528; 606) a handover request acknowledgment from the target eNB (306; 506), the handover request acknowledgement including an uplink grant schedule; send a handover command to the UE (302; 502), the handover command including the uplink grant schedule; and stop a data transmission by the source eNB (304; 504) to the UE (302; 502) based upon an indication that a handover operation is complete, wherein the source eNB (304; 504) is responsible for deciding when to stop transmitting to the UE (302; 502). processing circuitry; and computer-readable storage media having stored thereon instructions for execution by the processing circuitry to configure the source eNB to: send (314; 514) a measurement control message to a user equipment, UE (302; 502); receive (320; 520; 602) a measurement report from the UE (302; 502); decide (322; 522) to make a handover of the UE (302; 502) to a target eNB (306; 506), the handover to comprise a random-access, RACH-less handover of the UE (302; 502) to the target eNB (306; 506); send (324; 524; 604) a handover request to the target eNB (306; 506); receive (328; 528; 606) a handover request acknowledgment from the target eNB (306; 506), the handover request acknowledgement including an uplink grant schedule; send a handover command to the UE (302; 502), the handover command including the uplink grant schedule; and stop a data transmission by the source eNB (304; 504) to the UE (302; 502) based upon an indication that a handover operation is complete, send (314; 514) a measurement control message to a user equipment, UE (302; 502); receive (320; 520; 602) a measurement report from the UE (302; 502); decide (322; 522) to make a handover of the UE (302; 502) to a target eNB (306; 506), the handover to comprise a random-access, RACH-less handover of the UE (302; 502) to the target eNB (306; 506); send (324; 524; 604) a handover request to the target eNB (306; 506); receive (328; 528; 606) a handover request acknowledgment from the target eNB (306; 506), the handover request acknowledgement including an uplink grant schedule; send a handover command to the UE (302; 502), the handover command including the uplink grant schedule; and stop a data transmission by the source eNB (304; 504) to the UE (302; 502) based upon an indication that a handover operation is complete, wherein the source eNB (304; 504) is responsible for deciding when to stop transmitting to the UE (302; 502).
An ophthalmic imaging system, configured to automatically detect a retinal break, comprising: an optical coherence tomography system configured to acquire an image of a retina; a computing device coupled to the OCT system and configured to segment the OCT image by identifying a retinal layer in the OCT image; generate a plurality of metrics based on the segmented OCT image, wherein the plurality of metrics includes: a thickness of a neurosensory retina; and a radius of curvature indicative of a degree of concavity of an inner limiting membrane; detect the retinal break based on the plurality of metrics by; determining the thickness of a neurosensory retina is less than a threshold thickness; and determining the radius of curvature indicative of a degree of concavity of an inner limiting membrane is less than a threshold radius of curvature; and an audio/visual/tactile device in communication with the computing device configured to provide at least one of an audio, visual, and tactile indication of the detected retinal break to a user. an optical coherence tomography system configured to acquire an image of a retina; a computing device coupled to the OCT system and configured to segment the OCT image by identifying a retinal layer in the OCT image; generate a plurality of metrics based on the segmented OCT image, wherein the plurality of metrics includes: a thickness of a neurosensory retina; and a radius of curvature indicative of a degree of concavity of an inner limiting membrane; detect the retinal break based on the plurality of metrics by; determining the thickness of a neurosensory retina is less than a threshold thickness; and determining the radius of curvature indicative of a degree of concavity of an inner limiting membrane is less than a threshold radius of curvature; and an audio/visual/tactile device in communication with the computing device configured to provide at least one of an audio, visual, and tactile indication of the detected retinal break to a user. a thickness of a neurosensory retina; and a radius of curvature indicative of a degree of concavity of an inner limiting membrane; detect the retinal break based on the plurality of metrics by; determining the thickness of a neurosensory retina is less than a threshold thickness; and determining the radius of curvature indicative of a degree of concavity of an inner limiting membrane is less than a threshold radius of curvature; and