mhurhangee/ep-ind-claims huggingface dataset:
A spray dispensing system for mixing a first and a second components into a sprayable composition, the spray dispenser comprising: a) a first reservoir configured to hold the first component and a first pump unit being in fluid communication with the first reservoir; b) a second reservoir configured to hold the second component, being different from the first component, and a second pump unit being in fluid communication with the second reservoir; c) a nozzle tip configured to spray the composition; d) a common spray actuator operatively associated with the first and the second pump units and comprising a pipe; wherein the pipe of the common spray actuator has a sinuous path and comprises a first inlet orifice, at one end, being in fluid communication with the first pump unit; one outlet orifice, at the other end, being in fluid communication with the nozzle tip; and a second inlet orifice, located between the first inlet orifice and the outlet orifice, being in fluid communication with the second pump unit; and wherein the axis crossing both inlet orifices (3,4) substantially perpendicularly intersects the axis of the spray direction passing through the outlet orifice and the nozzle tip. a) a first reservoir configured to hold the first component and a first pump unit being in fluid communication with the first reservoir; b) a second reservoir configured to hold the second component, being different from the first component, and a second pump unit being in fluid communication with the second reservoir; c) a nozzle tip configured to spray the composition; d) a common spray actuator operatively associated with the first and the second pump units and comprising a pipe; wherein the pipe of the common spray actuator has a sinuous path and comprises a first inlet orifice, at one end, being in fluid communication with the first pump unit; one outlet orifice, at the other end, being in fluid communication with the nozzle tip; and a second inlet orifice, located between the first inlet orifice and the outlet orifice, being in fluid communication with the second pump unit; and wherein the axis crossing both inlet orifices (3,4) substantially perpendicularly intersects the axis of the spray direction passing through the outlet orifice and the nozzle tip.
A utility vehicle comprising: a platform; a motor coupled to the platform and configured to propel the platform; at least one cleaning element coupled to the platform, wherein the at least one cleaning element is movable between a collapsed position and an expanded position and wherein the at least one cleaning element is pivotably coupled to the platform such that the at least one cleaning element is pivotable between a horizontal or substantially horizontal lowered position and a vertical or substantially vertical raised position; and one or more controls (30, 40) configured to move the at least one cleaning element between the collapsed position and the expanded position and to move the at least one cleaning element between the lowered position and the raised position. a platform; a motor coupled to the platform and configured to propel the platform; at least one cleaning element coupled to the platform, wherein the at least one cleaning element is movable between a collapsed position and an expanded position and wherein the at least one cleaning element is pivotably coupled to the platform such that the at least one cleaning element is pivotable between a horizontal or substantially horizontal lowered position and a vertical or substantially vertical raised position; and one or more controls (30, 40) configured to move the at least one cleaning element between the collapsed position and the expanded position and to move the at least one cleaning element between the lowered position and the raised position.
A method of pre-operatively developing a reverse shoulder arthroplasty plan, the method comprising: receiving an image of a patient shoulder comprising a humerus and a glenoid; segmenting the image to develop a 3D shoulder model; performing virtual surgery on the 3D shoulder model, using a system, to generate a modified shoulder model, the virtual surgery comprising: resecting and reaming a virtual humerus of the 3D shoulder model; and reaming a virtual glenoid of the 3D shoulder model; receiving selection of a humeral implant; receiving selection of a glenoid implant; implanting, virtually to update the modified shoulder model, a virtual representation of the humeral implant on the virtual humerus and a virtual representation of the glenoid implant on the virtual glenoid; determining (402,602), using the system, a range of motion of the patient shoulder based on analysis of the updated modified shoulder model including determining an expected interaction between the virtual representation of the humerus implant and the virtual representation of the glenoid implant after the selected virtual humeral implant and the selected virtual glenoid implant are virtually implanted, wherein the analysis includes finite element analysis; and finalizing a reverse shoulder arthroplasty plan (408, 610) when the system determines that the range of motion is within a desired range (406, 608) and receiving selection of at least one of a second humeral implant and a second glenoid implant when the system determines that the range of motion is not within the desired range (410, 612). receiving an image of a patient shoulder comprising a humerus and a glenoid; segmenting the image to develop a 3D shoulder model; performing virtual surgery on the 3D shoulder model, using a system, to generate a modified shoulder model, the virtual surgery comprising: resecting and reaming a virtual humerus of the 3D shoulder model; and reaming a virtual glenoid of the 3D shoulder model; resecting and reaming a virtual humerus of the 3D shoulder model; and reaming a virtual glenoid of the 3D shoulder model; receiving selection of a humeral implant; receiving selection of a glenoid implant; implanting, virtually to update the modified shoulder model, a virtual representation of the humeral implant on the virtual humerus and a virtual representation of the glenoid implant on the virtual glenoid;
A computer-implemented method for performing machine learning to generate and use a salt feature model, the method comprising: accessing input values and corresponding output values for a salt feature label and at least another feature label, performing machine learning in order to train the salt feature model using the input values and the output values, the machine learning including mapping the input values to a plurality of target output values, the plurality of target output values comprising a salt feature output and at least another feature output, the salt feature model being trained based on both errors between the salt feature output and the salt feature label and between the at least another feature output and the at least another feature label; and using the salt feature model for detecting subsurface hydrocarbon presence and geological features. accessing input values and corresponding output values for a salt feature label and at least another feature label, performing machine learning in order to train the salt feature model using the input values and the output values, the machine learning including mapping the input values to a plurality of target output values, the plurality of target output values comprising a salt feature output and at least another feature output, the salt feature model being trained based on both errors between the salt feature output and the salt feature label and between the at least another feature output and the at least another feature label; and using the salt feature model for detecting subsurface hydrocarbon presence and geological features.
A descaling nozzle for removing scale from a steel sheet by spraying water onto a surface of the steel sheet and using impact of the sprayed water, wherein a nozzle case and a nozzle tip at an end of the nozzle includes a main flow orifice and a branch flow orifice that are connected to a large diameter portion that forms a cylindrical channel, wherein the branch flow orifice is configured to discharge a part of water flow in the large diameter portion so that cavitation occurs at a boundary between the part of water flow discharged from the branch orifice and water flow that is discharged from the main flow orifice, and wherein the branch flow orifice has an arc-shape extending along a circumferential direction of the nozzle tip.
A proton-conductive cell structure comprising an air electrode, a hydrogen electrode, and a solid electrolyte layer disposed between the air electrode and the hydrogen electrode, wherein the solid electrolyte layer at least includes a first solid electrolyte layer formed of a compact material, the first solid electrolyte layer includes a metal oxide having a perovskite structure and represented by Formula below: Ba x1 Sr x2 A 1-y M y O 3-δ (where Element A is at least one selected from the group consisting of Zr, Ce, and Hf, Element M is at least one selected from the group consisting of Y, Yb, Er, Ho, Tm, Gd, In, and Sc, δ is an oxygen deficiency, and 0.95 ≤ x1 + x2 ≤ 1.10 and 0 < y ≤ 0.5 are satisfied) in an air-electrode-side near-surface region of the first solid electrolyte layer, a ratio of Sr to a total amount of Ba and Sr (Sr/[Ba + Sr]: based on a number of atoms) is 0.4 or more, and in a hydrogen-electrode-side near-surface region of the first solid electrolyte layer, the ratio of Sr to the total amount of Ba and Sr (Sr/[Ba + Sr]) is 0.003 to 0.3. wherein the solid electrolyte layer at least includes a first solid electrolyte layer formed of a compact material, the first solid electrolyte layer includes a metal oxide having a perovskite structure and represented by Formula below: Ba x1 Sr x2 A 1-y M y O 3-δ (where Element A is at least one selected from the group consisting of Zr, Ce, and Hf, Element M is at least one selected from the group consisting of Y, Yb, Er, Ho, Tm, Gd, In, and Sc, δ is an oxygen deficiency, and 0.95 ≤ x1 + x2 ≤ 1.10 and 0 < y ≤ 0.5 are satisfied) in an air-electrode-side near-surface region of the first solid electrolyte layer, a ratio of Sr to a total amount of Ba and Sr (Sr/[Ba + Sr]: based on a number of atoms) is 0.4 or more, and in a hydrogen-electrode-side near-surface region of the first solid electrolyte layer, the ratio of Sr to the total amount of Ba and Sr (Sr/[Ba + Sr]) is 0.003 to 0.3. (where Element A is at least one selected from the group consisting of Zr, Ce, and Hf, Element M is at least one selected from the group consisting of Y, Yb, Er, Ho, Tm, Gd, In, and Sc, δ is an oxygen deficiency, and 0.95 ≤ x1 + x2 ≤ 1.10 and 0 < y ≤ 0.5 are satisfied) in an air-electrode-side near-surface region of the first solid electrolyte layer, a ratio of Sr to a total amount of Ba and Sr (Sr/[Ba + Sr]: based on a number of atoms) is 0.4 or more, and in a hydrogen-electrode-side near-surface region of the first solid electrolyte layer, the ratio of Sr to the total amount of Ba and Sr (Sr/[Ba + Sr]) is 0.003 to 0.3.
An egg-orienting station for an apparatus for transporting eggs and packaging them in egg packs (8, 12), having a plurality of tracks, which are arranged parallel to one another in the conveying direction (F 1), and a transfer region for transferring the eggs to a conveyor belt, whereby an adjustment device is arranged upstream from the transfer region, with which adjustment device the eggs can be placed either with the egg bottom or the egg top into egg holders of the first conveyor belt, characterized in that the adjustment device has a rod which extends transversely with respect to the tracks and which is secured pivotably on a housing of the egg-orienting station, and indexing plates oriented in the conveying direction (F 1) are arranged on the rod.
A polymerizable composition for use as a dental mobile tooth-fixing material or as a dental composite resin_comprising: an acrylic block copolymer (a) having at least one polymer block A that contains at least 80 wt% of a methacrylic acid ester unit and that functions as a hard segment, and at least one polymer block B that contains at least 80 wt% of_an acrylic acid ester unit and that functions as a soft segment; a polymerizable monomer (b), and a polymerization initiator (c), wherein the acrylic block copolymer (a) has a molecular weight distribution Mw/Mn of 1.0 to 1.5, and the chain end of the acrylic block copolymer (a) is terminated, wherein the polymerizable monomer (b) is a (meth)acrylate polymerizable monomer, and wherein the polymerizable monomer (b) comprises a polymerizable monomer having a phosphoric acid group. an acrylic block copolymer (a) having at least one polymer block A that contains at least 80 wt% of a methacrylic acid ester unit and that functions as a hard segment, and at least one polymer block B that contains at least 80 wt% of_an acrylic acid ester unit and that functions as a soft segment; a polymerizable monomer (b), and a polymerization initiator (c), wherein the acrylic block copolymer (a) has a molecular weight distribution Mw/Mn of 1.0 to 1.5, and the chain end of the acrylic block copolymer (a) is terminated, wherein the polymerizable monomer (b) is a (meth)acrylate polymerizable monomer, and wherein the polymerizable monomer (b) comprises a polymerizable monomer having a phosphoric acid group.
An anchor assembly for anchoring a tendon to bone, comprising: a sheath having a substantially solid distal end with at least two sidewalls (112a, 112b) extending proximally therefrom and separated by at least first and second slots (114a, 114b), the sidewalls (112a, 112b) defining an inner lumen therebetween, and the solid distal end of the sheath having a mating feature; a guidewire having a distal tip configured to releasably mate with the mating feature in the sheath, thereby releasably fixing the guidewire to the sheath, the guidewire extending proximally from the sheath when mated thereto; and an expander (200, 220, 240) having a generally elongate cylindrical configuration and configured to be received within the inner lumen of the sheath, the expander (200, 220, 240) having a lumen extending therethrough for receiving the guidewire. a sheath having a substantially solid distal end with at least two sidewalls (112a, 112b) extending proximally therefrom and separated by at least first and second slots (114a, 114b), the sidewalls (112a, 112b) defining an inner lumen therebetween, and the solid distal end of the sheath having a mating feature; a guidewire having a distal tip configured to releasably mate with the mating feature in the sheath, thereby releasably fixing the guidewire to the sheath, the guidewire extending proximally from the sheath when mated thereto; and an expander (200, 220, 240) having a generally elongate cylindrical configuration and configured to be received within the inner lumen of the sheath, the expander (200, 220, 240) having a lumen extending therethrough for receiving the guidewire.
A liquid-free trap for trace levels of an acidic or basic airborne molecular contaminant in a gas, comprising: a housing, comprising an inlet and an outlet; a flow path between the inlet and the outlet; and a porous solid mass of rigid sintered hydrophilic material situated in the flow path between the inlet and the outlet and sealed in the housing, the rigid sintered hydrophilic material functionalized with a basic species for trapping an acidic airborne molecular contaminant in the gas or an acidic species for trapping a basic airborne molecular contaminant in the gas, wherein the rigid sintered hydrophilic material has an average pore size of from 2 microns to 50 microns and is sintered stainless steel, sintered hydrophilic polyethylene, sintered hydrophilic polytetrafluoroethylene, sintered hydrophilic polyethersulfone or sintered hydrophilic nylon. a housing, comprising an inlet and an outlet; a flow path between the inlet and the outlet; and a porous solid mass of rigid sintered hydrophilic material situated in the flow path between the inlet and the outlet and sealed in the housing, the rigid sintered hydrophilic material functionalized with a basic species for trapping an acidic airborne molecular contaminant in the gas or an acidic species for trapping a basic airborne molecular contaminant in the gas, wherein the rigid sintered hydrophilic material has an average pore size of from 2 microns to 50 microns and is sintered stainless steel, sintered hydrophilic polyethylene, sintered hydrophilic polytetrafluoroethylene, sintered hydrophilic polyethersulfone or sintered hydrophilic nylon.
A network system level division method, comprising: obtaining an operation and maintenance parameter of a network system in an operation and maintenance scenario, wherein the operation and maintenance parameter is used to represent operation and maintenance performance of the network system in the operation and maintenance scenario; and determining an automation level of the network system in the operation and maintenance scenario based on the operation and maintenance parameter of the network system in the operation and maintenance scenario, wherein the automation level of the network system in the operation and maintenance scenario is used to represent an automatic operation and maintenance degree of the network system in the operation and maintenance scenario, characterized in that the automation level of the network system is determined by using an average value of values corresponding to automation levels of the network system in operation and maintenance scenarios and by performing rounding up or rounding down on the average value, or that the automation level of the network system is determined by using a weighted average value of values corresponding to automation levels of the network system in operation and maintenance scenarios which is calculated based on a weight corresponding to each of the operation and maintenance scenarios supported by the network system, and by performing rounding up or rounding down on the weighted average value. obtaining an operation and maintenance parameter of a network system in an operation and maintenance scenario, wherein the operation and maintenance parameter is used to represent operation and maintenance performance of the network system in the operation and maintenance scenario; and determining an automation level of the network system in the operation and maintenance scenario based on the operation and maintenance parameter of the network system in the operation and maintenance scenario, wherein the automation level of the network system in the operation and maintenance scenario is used to represent an automatic operation and maintenance degree of the network system in the operation and maintenance scenario, characterized in that the automation level of the network system is determined by using an average value of values corresponding to automation levels of the network system in operation and maintenance scenarios and by performing rounding up or rounding down on the average value, or that the automation level of the network system is determined by using a weighted average value of values corresponding to automation levels of the network system in operation and maintenance scenarios which is calculated based on a weight corresponding to each of the operation and maintenance scenarios supported by the network system, and by performing rounding up or rounding down on the weighted average value.
A method of processing network messages by an accelerated processing device, APD, comprising: receiving a radio frequency, RF, signal; assigning the received RF signal to a single instruction multiple data, SIMD, module in the APD for processing, wherein the APD includes a plurality of SIMD modules and each of the plurality of SIMD modules is assigned to process a different type of physical layer message, wherein the different types of physical layer messages include WiFi, cellular, and GPS physical layer messages; extracting a plurality of physical layer messages from the RF signal in the assigned SIMD module; and processing the extracted plurality of physical layer messages to obtain data transmitted via the RF signal, wherein the plurality of SIMD modules perform parallel processing of the extracted plurality of physical layer messages; wherein a plurality of delayed physical layer messages are combined by the plurality of SIMD modules to improve signal quality. receiving a radio frequency, RF, signal; assigning the received RF signal to a single instruction multiple data, SIMD, module in the APD for processing, wherein the APD includes a plurality of SIMD modules and each of the plurality of SIMD modules is assigned to process a different type of physical layer message, wherein the different types of physical layer messages include WiFi, cellular, and GPS physical layer messages; extracting a plurality of physical layer messages from the RF signal in the assigned SIMD module; and processing the extracted plurality of physical layer messages to obtain data transmitted via the RF signal, wherein the plurality of SIMD modules perform parallel processing of the extracted plurality of physical layer messages; wherein a plurality of delayed physical layer messages are combined by the plurality of SIMD modules to improve signal quality.
A transmitting device comprising: an audio encoding unit configured to generate an audio stream including coded data of a plurality of audio objects, each of the plurality of audio objects being included in one of a plurality of content groups; and generate information that indicates, for each of the plurality of content groups, (i) a designated factor type and (ii) a sound pressure range within which adjustment of a sound pressure of each audio object included in the respective content group is allowed, the sound pressure range being determined based on the designated factor type; and a transmitting unit configured to transmit the audio stream and the information. an audio encoding unit configured to generate an audio stream including coded data of a plurality of audio objects, each of the plurality of audio objects being included in one of a plurality of content groups; and generate information that indicates, for each of the plurality of content groups, (i) a designated factor type and (ii) a sound pressure range within which adjustment of a sound pressure of each audio object included in the respective content group is allowed, the sound pressure range being determined based on the designated factor type; and generate an audio stream including coded data of a plurality of audio objects, each of the plurality of audio objects being included in one of a plurality of content groups; and generate information that indicates, for each of the plurality of content groups, (i) a designated factor type and (ii) a sound pressure range within which adjustment of a sound pressure of each audio object included in the respective content group is allowed, the sound pressure range being determined based on the designated factor type; and a transmitting unit configured to transmit the audio stream and the information.