mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic device comprising: a transducer stack comprising a piezoelectric material, said piezoelectric material comprising a top surface, a plurality of side surfaces; a plurality of electrodes and a plurality of ultrasound array bonding pads formed on said top surface, said plurality of electrodes defining elements of an ultrasound array, wherein each electrode is in electrical communication with a respective ultrasound array bonding pad; and characterized in that said ultrasonic device further comprises a printed circuit board comprising a plurality of signal wires embedded therein, wherein said printed circuit board comprises a lateral surface and a plurality of side edges, wherein an end portion of the printed circuit board is provided adjacent to a first side surface of said transducer stack such that an angle between said lateral surface of said printed circuit board and the top surface of said piezoelectric material is at least 60 degrees and wherein an side edge of said printed circuit board is aligned with said top surface; wherein the ultrasonic device further comprises electrical connections provided between said ultrasound array bonding pads and electrically conductive material exposed in said edge of said printed circuit board such that each electrode is electrically connected to a respective signal wire. a transducer stack comprising a piezoelectric material, said piezoelectric material comprising a top surface, a plurality of side surfaces; a plurality of electrodes and a plurality of ultrasound array bonding pads formed on said top surface, said plurality of electrodes defining elements of an ultrasound array, wherein each electrode is in electrical communication with a respective ultrasound array bonding pad; and characterized in that said ultrasonic device further comprises a printed circuit board comprising a plurality of signal wires embedded therein, wherein said printed circuit board comprises a lateral surface and a plurality of side edges, wherein an end portion of the printed circuit board is provided adjacent to a first side surface of said transducer stack such that an angle between said lateral surface of said printed circuit board and the top surface of said piezoelectric material is at least 60 degrees and wherein an side edge of said printed circuit board is aligned with said top surface; wherein the ultrasonic device further comprises electrical connections provided between said ultrasound array bonding pads and electrically conductive material exposed in said edge of said printed circuit board such that each electrode is electrically connected to a respective signal wire.
A neutral composition or a pharmaceutically acceptable salt thereof comprising a peptide sequence and at least one bone targeting moiety, wherein the bone targeting moiety is bonded to the peptide sequence by a linker, wherein the peptide sequence comprises calcitonin, wherein the linker is a sulfosuccinimidyl-4-(N-maleimidomethyl)cyclohexane-1-carboxylate (sulfo-SMCC) and the bone targeting moiety is a residue of {2-[(3-mercaptopropyl)thio]ethane-1,1-diyl}bis(phosphonic acid).
A continuum arm robot section, in which the section comprises at least three segments, featuring a base segment, at least one middle segment and a tip segment, with each segment corresponding to at least one interconnecting portion between pairs of neighbouring discs that form a backbone of the section of the continuum arm robot, wherein the base segment has mg- a greater stiffness than the at least one middle segment and tip segment and the at least one middle segment has a greater stiffness than the tip segment, wherein each segment is made from a compliant and revolute joint pair and characterised in that the stiffness of the joints is determined by the surface roughness of the revolute joint.
An isolator comprising: a first fluid-carrying member and a second fluid-carrying member spaced apart from the first fluid-carrying member; a resistive, semi-conductive or non-conductive component located between the first and the second fluid-carrying member, wherein the resistive, semi-conductive or non-conductive component is adapted to convey fluid flowing from the first fluid-carrying member to the second fluid-carrying member; and a reinforcing composite encircling the first fluid-carrying member, the second fluid-carrying member and the resistive, semi-conductive or non-conductive component, wherein the reinforcing composite comprises: first fibres (342; 450) extending at an angle of between -5 degrees and +5 degrees to a longitudinal axis (A-A) of the resistive, semi-conductive or non-conductive component; second fibres (344, 346; 452) interwoven with the first fibres and extending around the first fluid-carrying member, the second fluid-carrying member and the resistive, semi-conductive or non-conductive component at an angle of between +60 degrees and +90 degrees and/or between -60 degrees and -90 degrees to the longitudinal axis; and a resin. a first fluid-carrying member and a second fluid-carrying member spaced apart from the first fluid-carrying member; a resistive, semi-conductive or non-conductive component located between the first and the second fluid-carrying member, wherein the resistive, semi-conductive or non-conductive component is adapted to convey fluid flowing from the first fluid-carrying member to the second fluid-carrying member; and a reinforcing composite encircling the first fluid-carrying member, the second fluid-carrying member and the resistive, semi-conductive or non-conductive component, wherein the reinforcing composite comprises: first fibres (342; 450) extending at an angle of between -5 degrees and +5 degrees to a longitudinal axis (A-A) of the resistive, semi-conductive or non-conductive component; second fibres (344, 346; 452) interwoven with the first fibres and extending around the first fluid-carrying member, the second fluid-carrying member and the resistive, semi-conductive or non-conductive component at an angle of between +60 degrees and +90 degrees and/or between -60 degrees and -90 degrees to the longitudinal axis; and a resin. first fibres (342; 450) extending at an angle of between -5 degrees and +5 degrees to a longitudinal axis (A-A) of the resistive, semi-conductive or non-conductive component; second fibres (344, 346; 452) interwoven with the first fibres and extending around the first fluid-carrying member, the second fluid-carrying member and the resistive, semi-conductive or non-conductive component at an angle of between +60 degrees and +90 degrees and/or between -60 degrees and -90 degrees to the longitudinal axis; and a resin.
An indoor navigation system comprising: a laser projector that emits laser beams (121, 122, 123, 124) in four or more different directions; two or more cameras (130, 131) that capture images of spots (1, 2, 3, 4) made by the laser beams (121, 122, 123, 124) on surfaces (112, 113, 114, 115) of an indoor space, the cameras (130, 131) calibrated such that three-dimensional locations of the spots (1, 2, 3, 4) can be estimated from images captured by at least two cameras (130, 131); and a processor in communication with the cameras (130, 131), the processor estimating the position and orientation of the laser projector in the indoor space by space resection given the four or more different directions and the three-dimensional locations of the spots (1, 2, 3, 4). a laser projector that emits laser beams (121, 122, 123, 124) in four or more different directions; two or more cameras (130, 131) that capture images of spots (1, 2, 3, 4) made by the laser beams (121, 122, 123, 124) on surfaces (112, 113, 114, 115) of an indoor space, the cameras (130, 131) calibrated such that three-dimensional locations of the spots (1, 2, 3, 4) can be estimated from images captured by at least two cameras (130, 131); and a processor in communication with the cameras (130, 131), the processor estimating the position and orientation of the laser projector in the indoor space by space resection given the four or more different directions and the three-dimensional locations of the spots (1, 2, 3, 4).
An ice-worthy jack-up rig for drilling for hydrocarbons in potential ice conditions in offshore areas comprising: a flotation hull having a relatively flat deck at the upper portion thereof and an ice-bending shape along the lower portion thereof and extending downwardly and inwardly around the periphery of the hull where the ice-bending shape extends from an area of the hull near the level of the deck and extends downwardly near the bottom of the hull; an ice deflecting portion extending around the perimeter of the bottom of the hull to direct ice around the hull and not under the hull; at least three truss form legs that are positioned within the perimeter of the bottom of the flotation hull wherein the legs are arranged to be lifted up off the seafloor so that the rig may be towed through shallow water and also extend to the sea floor and extend further to lift the hull partially or fully out of the water; a jack-up device associated with each leg to both lift the leg from the sea bottom so that the ice worthy jack-up rig may float by the buoyancy of the hull and push the legs down to the seafloor and push the hull partially up and out of the water when ice floes (51, 52) threaten the rig and fully out of the water when ice is not present; leg ice shields arranged to protect the truss form legs from ice (51, 52); and a gas agitation system (35, 36, 28) to agitate the water near the legs and reduce issues with ice near the legs. a flotation hull having a relatively flat deck at the upper portion thereof and an ice-bending shape along the lower portion thereof and extending downwardly and inwardly around the periphery of the hull where the ice-bending shape extends from an area of the hull near the level of the deck and extends downwardly near the bottom of the hull; an ice deflecting portion extending around the perimeter of the bottom of the hull to direct ice around the hull and not under the hull; at least three truss form legs that are positioned within the perimeter of the bottom of the flotation hull wherein the legs are arranged to be lifted up off the seafloor so that the rig may be towed through shallow water and also extend to the sea floor and extend further to lift the hull partially or fully out of the water; a jack-up device associated with each leg to both lift the leg from the sea bottom so that the ice worthy jack-up rig may float by the buoyancy of the hull and push the legs down to the seafloor and push the hull partially up and out of the water when ice floes (51, 52) threaten the rig and fully out of the water when ice is not present; leg ice shields arranged to protect the truss form legs from ice (51, 52); and a gas agitation system (35, 36, 28) to agitate the water near the legs and reduce issues with ice near the legs.
A remote apparatus in a base station, wherein the base station comprises a centralized control apparatus, and the centralized control apparatus is connected to the remote apparatus and is configured to process data of user equipment, UE, that accesses the base station; the data of the UE is processed and is sent to the remote apparatus by the centralized control apparatus, to be sent to the UE by using the remote apparatus; or the data of the UE is received by the remote apparatus from the UE, and is sent to the centralized control apparatus for processing; and the remote apparatus comprises a radio frequency apparatus and a baseband apparatus, wherein the baseband apparatus is configured to: perform partial or total physical layer protocol processing on the data of the UE and to respond to a random access preamble received from the UE; wherein the remote apparatus is characterized in that it is configured to first receive a second random access preamble sent by the UE, to send the second random access preamble to the centralized control apparatus, to receive a second RAR message sent by the centralized control apparatus, to buffer the second RAR message, and, after receiving a first random access preamble sent by the UE, to generate a first RAR message based on the buffered second RAR message and the first random access preamble, and to send the first RAR message to the UE. perform partial or total physical layer protocol processing on the data of the UE and to respond to a random access preamble received from the UE; wherein the remote apparatus is characterized in that it is configured to first receive a second random access preamble sent by the UE, to send the second random access preamble to the centralized control apparatus, to receive a second RAR message sent by the centralized control apparatus, to buffer the second RAR message, and, after receiving a first random access preamble sent by the UE, to generate a first RAR message based on the buffered second RAR message and the first random access preamble, and to send the first RAR message to the UE.
A method of fabricating a composite integrated circuit ("IC"), the method comprising the following steps: producing IC dice, each IC die having an on-chip interconnect structure; polishing edges of the IC dice; placing the IC dice topside down on a deposition processing carrier; depositing an oxide layer to coat the edges of the IC dice to form an edge oxide layer; activating the edge oxide layer; removing the IC dice from the deposition processing carrier after activating the edge oxide layer; arranging the IC dice topside down on a bonding processing surface on an edge-bonding carrier in contact with each other in one or more composite IC patterns; edge-bonding the IC dice together to provide a gap-free margin in oxide-to-oxide edge-bonding between said dice in the composite IC; wherein the edge-bonding includes applying force to hold the IC dice in contact with each other and heating the IC dice to a temperature not greater than 250 degree Celsius; forming a reconstructed wafer base on the IC dice to form a reconstructed wafer, wherein the reconstructed wafer base is one of a silicon wafer or a molding compound; removing the reconstructed wafer from the edge-bonding carrier fabricating a chip-to-chip interconnect structure on the reconstructed wafer to electrically couple the on-chip interconnect structures; and singulating one or more composite ICs from the reconstructed wafer. producing IC dice, each IC die having an on-chip interconnect structure; polishing edges of the IC dice; placing the IC dice topside down on a deposition processing carrier; depositing an oxide layer to coat the edges of the IC dice to form an edge oxide layer; activating the edge oxide layer; removing the IC dice from the deposition processing carrier after activating the edge oxide layer; arranging the IC dice topside down on a bonding processing surface on an edge-bonding carrier in contact with each other in one or more composite IC patterns; edge-bonding the IC dice together to provide a gap-free margin in oxide-to-oxide edge-bonding between said dice in the composite IC; wherein the edge-bonding includes applying force to hold the IC dice in contact with each other and heating the IC dice to a temperature not greater than 250 degree Celsius; forming a reconstructed wafer base on the IC dice to form a reconstructed wafer, wherein the reconstructed wafer base is one of a silicon wafer or a molding compound; removing the reconstructed wafer from the edge-bonding carrier fabricating a chip-to-chip interconnect structure on the reconstructed wafer to electrically couple the on-chip interconnect structures; and singulating one or more composite ICs from the reconstructed wafer.
A compound represented by formula I for use in treating hemorrhagic stroke; wherein the compound represented by formula I is the only active ingredient.
A computer-implemented method of geolocation, the method comprising: storing a set of unique identifiers corresponding to a plurality of intersections located in a geographic area, an intersection being three or more linear features (204, 206, 208) intersecting at a common point, wherein an identifier comprises a geographical location and information relating to one or more characteristics of the corresponding intersection, wherein the one or more characteristics at least comprise a bearing of each of the linear features (204, 206, 208) of a respective intersection; obtaining data relating to a first intersection of unknown geographic location, the first intersection comprising a plurality of linear features intersecting at a common point; processing the obtained data to determine one or more characteristics of the first intersection, wherein the one or more characteristics comprise at least a first set of bearings, a bearing being determined for each of the linear features; comparing the one or more characteristics of the first intersection to the one or more characteristics of the set of unique identifiers, wherein the first set of bearings are compared to the plurality of bearings corresponding to each unique identifier; and identifying an identifier having at least the same set of bearings as the first intersection and determining the geographic location of the first intersection therefrom. storing a set of unique identifiers corresponding to a plurality of intersections located in a geographic area, an intersection being three or more linear features (204, 206, 208) intersecting at a common point, wherein an identifier comprises a geographical location and information relating to one or more characteristics of the corresponding intersection, wherein the one or more characteristics at least comprise a bearing of each of the linear features (204, 206, 208) of a respective intersection; obtaining data relating to a first intersection of unknown geographic location, the first intersection comprising a plurality of linear features intersecting at a common point; processing the obtained data to determine one or more characteristics of the first intersection, wherein the one or more characteristics comprise at least a first set of bearings, a bearing being determined for each of the linear features; comparing the one or more characteristics of the first intersection to the one or more characteristics of the set of unique identifiers, wherein the first set of bearings are compared to the plurality of bearings corresponding to each unique identifier; and identifying an identifier having at least the same set of bearings as the first intersection and determining the geographic location of the first intersection therefrom.
A drilling tool, comprising: a tool body having an outer shape having a substantially cylindrical shape rotated around an axis line; a chip discharge groove formed in an outer periphery of the tool body to extend from a tip end face of the tool body to a rear end side; at least one sub-groove that is formed at an inner face facing a front side in a tool rotation direction of the chip discharge groove and that is formed to extend from a tip end face of the tool body to a rear end side; a rake face formed at an inner face facing the front side in the tool rotation direction of the chip discharge groove and the at least one sub-groove, respectively; a tip end flank face formed at a tip end face of the tool body; and a cutting edge formed at a ridge line at which the tip end flank face intersects with the rake face, wherein, the inner face facing the front side in the tool rotation direction of the chip discharge groove is formed to have a step-like shape having at least one step section by the rake face, and characterised in that a turnup section at the rear end side of the sub-groove is turned up in a different direction from the direction along which the turn up section at the rear end side of the chip discharge groove is turned up. a tool body having an outer shape having a substantially cylindrical shape rotated around an axis line; a chip discharge groove formed in an outer periphery of the tool body to extend from a tip end face of the tool body to a rear end side; at least one sub-groove that is formed at an inner face facing a front side in a tool rotation direction of the chip discharge groove and that is formed to extend from a tip end face of the tool body to a rear end side; a rake face formed at an inner face facing the front side in the tool rotation direction of the chip discharge groove and the at least one sub-groove, respectively; a tip end flank face formed at a tip end face of the tool body; and a cutting edge formed at a ridge line at which the tip end flank face intersects with the rake face, wherein, the inner face facing the front side in the tool rotation direction of the chip discharge groove is formed to have a step-like shape having at least one step section by the rake face, and characterised in that a turnup section at the rear end side of the sub-groove is turned up in a different direction from the direction along which the turn up section at the rear end side of the chip discharge groove is turned up.
A pipeline system provided in a marine vessel that discharges vent gas vaporized from liquefied gas fuel from a vent post, the pipeline system comprising: a drum having an interior surrounded by a wall; a fuel pipeline for guiding the liquefied gas fuel tc the interior of the drum; a fuel pipeline valve (12, 12A, 12B) opening and closing the fuel pipeline; a heating means for heating the liquefied gas fuel guided to the interior of the drum to thereby generate the vent gas; a gas pipeline for guiding the vent gas present in the interior of the drum to the vent post; and a gas pipeline valve opening and closing the gas pipeline. a drum having an interior surrounded by a wall; a fuel pipeline for guiding the liquefied gas fuel tc the interior of the drum; a fuel pipeline valve (12, 12A, 12B) opening and closing the fuel pipeline; a heating means for heating the liquefied gas fuel guided to the interior of the drum to thereby generate the vent gas; a gas pipeline for guiding the vent gas present in the interior of the drum to the vent post; and a gas pipeline valve opening and closing the gas pipeline.
Ventilation system comprising at least one first housing and one second housing cooperating with the first housing to delimit an internal volume of the ventilation system, the latter comprising at least one sealing device between the first housing and the second housing, either one of the first or second housing (2, 4) bears a ventilation motor of a ventilation member that is a constituent of the ventilation, heating and/or air conditioned system, at least one of the housings (2, 4) comprises a wall (29, 31) having a peripheral edge which delimits at least one groove that is a constituent of the sealing device, the peripheral edge comprises at least one boss extending towards the interior of the groove, the first housing comprising the groove, characterized in that the second housing comprises a wall (29, 31) having a peripheral flank from which protrudes a rib configured to be housed in the groove of the first housing, the rib having a first width measured along a line of reference when the rib is out of the groove, said rib having a second width measured along the same line of reference when the rib is disposed in the groove, the second width being less than the first width by the pressure of said at least one boss.
Method for controlling a fuel metering system, wherein the fuel pressure is controlled as a function of the operating state of the internal combustion engine, in that when the internal combustion engine is switched off the fuel pressure is adjusted to a first value which is used in the idling mode, and the fuel pressure is adjusted to a second value which is customary when the internal combustion engine is switched off, when the vehicle driven by the internal combustion engine is switched off.
An isolated Natural Killer cell comprising one or more non-classic class I human leukocyte antigen proteins and further wherein at least one classic endogenous HLA gene within the cell is inactivated by a zinc finger nuclease.