mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for managing conflicts in a logical component hierarchy (500,600) including an ancestor component (511,611) and a descendant component (522,622) associated with the ancestor component (511, 611), the method using a computer device in communication with a memory, said method comprising: determining, by the computer device, a requirement to replace the descendant component (522,622), within the logical component hierarchy (500,600), with an overriding component (550,650), the overriding component (550,650) associated with the ancestor component (511,611) by an overriding reference and used to preempt the loading of the descendent component, wherein the overriding reference includes a link to the overriding component (550,650) without logical component hierarchy information; and replacing the descendant component (522,622) with the overriding component (550,650) within the logical component hierarchy (500,600). determining, by the computer device, a requirement to replace the descendant component (522,622), within the logical component hierarchy (500,600), with an overriding component (550,650), the overriding component (550,650) associated with the ancestor component (511,611) by an overriding reference and used to preempt the loading of the descendent component, wherein the overriding reference includes a link to the overriding component (550,650) without logical component hierarchy information; and replacing the descendant component (522,622) with the overriding component (550,650) within the logical component hierarchy (500,600).
A method of immersion cooling a system comprising electronic equipment, the method comprising: immersing the electronic equipment in a pressure-sealed tank holding heat transfer fluid in liquid form, and including a vapor space above a surface of the liquid heat transfer fluid, wherein the vapor space is connected to a condenser mounted outside of the pressure-sealed tank; operating the electronic equipment to generate heat so as to evaporate some of the heat transfer fluid and cause heat transfer fluid vapor to enter the condenser via a riser tube; condensing the heat transfer fluid vapor in the condenser to produce heat transfer fluid condensate; returning, via a return line, the heat transfer fluid condensate to the tank; and increasing power consumption by the electronic equipment to increase heat generated and develop an increased pressure of the heat transfer fluid vapor, wherein the increased pressure increases effectiveness of the condenser to bring the system into an equilibrium condition. immersing the electronic equipment in a pressure-sealed tank holding heat transfer fluid in liquid form, and including a vapor space above a surface of the liquid heat transfer fluid, wherein the vapor space is connected to a condenser mounted outside of the pressure-sealed tank; operating the electronic equipment to generate heat so as to evaporate some of the heat transfer fluid and cause heat transfer fluid vapor to enter the condenser via a riser tube; condensing the heat transfer fluid vapor in the condenser to produce heat transfer fluid condensate; returning, via a return line, the heat transfer fluid condensate to the tank; and increasing power consumption by the electronic equipment to increase heat generated and develop an increased pressure of the heat transfer fluid vapor, wherein the increased pressure increases effectiveness of the condenser to bring the system into an equilibrium condition.
An antimicrobial composition comprising a linear lipopeptide, the lipopeptide comprising a peptide having at least 66% sequence identity with SEQ ID NO: 1 interposed between a lipophilic terminus -R 1 and an amine terminus -NR 2 R 3, wherein R 1 comprises a substituted, branched or unbranched C 2 -C 20 alkanoyl of formula R 5 -CH(NH 2)-C(=O)-, wherein R 5 is selected from the group consisting of alkyl, alkenyl, cycloalkyl, phenylalkyl, and biphenylalkyl, and wherein R 2 and R 3 are independently selected from hydrogen or a C 1 -C 6 alkyl. wherein R 1 comprises a substituted, branched or unbranched C 2 -C 20 alkanoyl of formula R 5 -CH(NH 2)-C(=O)-, wherein R 5 is selected from the group consisting of alkyl, alkenyl, cycloalkyl, phenylalkyl, and biphenylalkyl, and wherein R 2 and R 3 are independently selected from hydrogen or a C 1 -C 6 alkyl.
A vacuum pump comprising: a housing in which are formed an inlet port and an outlet port; a rotating shaft contained in the housing and rotatably supported; a rotating body fixed to the rotating shaft; a rotor blade provided radially from an outer peripheral surface of the rotating body; a stator blade disposed at a predetermined interval from the rotor blade; and a gas transfer mechanism for transferring a gas sucked from the inlet port, to the outlet port by an interaction between the rotor blade and the stator blade, whereby the outlet port comprises a heat insulating spacer, an outlet port part and an O-ring, the outlet port part comprises an outlet port part atmosphere-side portion that protrudes from the vacuum pump toward the atmosphere side when the outlet port part is disposed in the vacuum pump, and an outlet port part vacuum-side portion provided internally on the vacuum side, wherein the outlet port part atmosphere-side portion comprises a barrel portion that is a tip section protruding towards the atmosphere side, and a flange portion that continues into the barrel portion, wherein the heat insulating spacer is disposed in close contact with the flange portion with the O-ring therebetween and wherein the heat insulating spacer has an axial contact surface that comes into contact with a base of the vacuum pump and an axial non-contact surface that does not come into contact with the base of the vacuum pump. a housing in which are formed an inlet port and an outlet port; a rotating shaft contained in the housing and rotatably supported; a rotating body fixed to the rotating shaft; a rotor blade provided radially from an outer peripheral surface of the rotating body; a stator blade disposed at a predetermined interval from the rotor blade; and a gas transfer mechanism for transferring a gas sucked from the inlet port, to the outlet port by an interaction between the rotor blade and the stator blade, whereby the outlet port comprises a heat insulating spacer, an outlet port part and an O-ring, the outlet port part comprises an outlet port part atmosphere-side portion that protrudes from the vacuum pump toward the atmosphere side when the outlet port part is disposed in the vacuum pump, and an outlet port part vacuum-side portion provided internally on the vacuum side, wherein the outlet port part atmosphere-side portion comprises a barrel portion that is a tip section protruding towards the atmosphere side, and a flange portion that continues into the barrel portion, wherein the heat insulating spacer is disposed in close contact with the flange portion with the O-ring therebetween and wherein the heat insulating spacer has an axial contact surface that comes into contact with a base of the vacuum pump and an axial non-contact surface that does not come into contact with the base of the vacuum pump.
A compound of formula wherein Cyc is a 5- to 8-membered monocyclic heterocyclyl ring comprising one nitrogen atom, with a group of formula Ar 1 -CR 2 -being bonded to the ring nitrogen atom; Ar 1 and Ar 2 are each independently aryl groups which are substituted with 0, 1, or 2 J groups; R is independently H or (C1-C6)alkyl; J is independently (C1-C6)alkyl, (C3-C9)cycloalkyl, (C3-C9)cycloalkyl(Cl-C6)alkyl, halo, or (C1-C6)haloalkyl; or a pharmaceutically acceptable salt thereof. Cyc is a 5- to 8-membered monocyclic heterocyclyl ring comprising one nitrogen atom, with a group of formula Ar 1 -CR 2 -being bonded to the ring nitrogen atom; Ar 1 and Ar 2 are each independently aryl groups which are substituted with 0, 1, or 2 J groups; R is independently H or (C1-C6)alkyl; J is independently (C1-C6)alkyl, (C3-C9)cycloalkyl, (C3-C9)cycloalkyl(Cl-C6)alkyl, halo, or (C1-C6)haloalkyl; or a pharmaceutically acceptable salt thereof.
An imaging apparatus, comprising: a housing; a detector positioned within the housing and having a field of view encompassing one or more target area within the housing to be imaged; a wide-angle lens operatively coupled to the detector such that the detector receives image data of the target area through the wide-angle lens; and a support positioned at the target area and configured to receive one or more diagnostic test component, wherein the one or more test component is a plurality of test components and the detector is configured to image the plurality of test components simultaneously and wherein the test components are reagent strips, reagent cards, reagent cartridges, reagent slides, microfluidic chips and/or lateral flow tests. a housing; a detector positioned within the housing and having a field of view encompassing one or more target area within the housing to be imaged; a wide-angle lens operatively coupled to the detector such that the detector receives image data of the target area through the wide-angle lens; and a support positioned at the target area and configured to receive one or more diagnostic test component, wherein the one or more test component is a plurality of test components and the detector is configured to image the plurality of test components simultaneously and wherein the test components are reagent strips, reagent cards, reagent cartridges, reagent slides, microfluidic chips and/or lateral flow tests.
A formwork system for concrete construction, comprising a formwork element and at least one suspension, wherein the formwork element comprises a flat formwork part aligned essentially perpendicularly to a reinforcing layer in the installed state, wherein the suspension comprises a tie rod, a fastening device for fastening the tie rod on the reinforcing layer and a fastening element for fastening the tie rod on the formwork element, characterised in that the fastening device for fastening the tie rod on the reinforcing layer comprises a securing bolt and a loop-hook element arranged at the end of the tie rod adjacent to the reinforcing layer, with a terminal loop reversal region, wherein the loop-hook element is hooked around at least one reinforcing rod (22b, 24b) of the reinforcing layer and the securing bolt is guided between the reinforcing rod (22b, 24b) and the loop reversal region or the loop-hook element is hooked around the securing bolt and a reinforcing rod of the reinforcing layer is guided between the securing bolt and the loop reversal region.
A vehicle step apparatus, comprising: an extending and retracting device comprising a mounting bracket, a step bracket, and an arm assembly that is connected between the mounting bracket and the step bracket and drives the step bracket to move between an extending position and a retracting position; a step mounted on the step bracket; a motor that has a motor shaft configured as a worm; a gear box defining a cavity therein, at least a portion of the motor shaft being inserted into the cavity; and a worm wheel rotatably disposed in the cavity, and comprising a worm wheel body meshing with the motor shaft and an output shaft mounted to the worm wheel body, characterized in that, the vehicle step apparatus further comprises: a sun gear fitted over the output shaft; a planet carrier rotatably disposed in the cavity and connected with the arm assembly to drive the arm assembly; a planet gear rotatably mounted to the planet carrier and meshing with the sun gear; and an adjusting member mounted in the gear box, movable in an axial direction of the motor shaft and abutting against a free end of the motor shaft. an extending and retracting device comprising a mounting bracket, a step bracket, and an arm assembly that is connected between the mounting bracket and the step bracket and drives the step bracket to move between an extending position and a retracting position; a step mounted on the step bracket; a motor that has a motor shaft configured as a worm; a gear box defining a cavity therein, at least a portion of the motor shaft being inserted into the cavity; and a worm wheel rotatably disposed in the cavity, and comprising a worm wheel body meshing with the motor shaft and an output shaft mounted to the worm wheel body, characterized in that, the vehicle step apparatus further comprises: a sun gear fitted over the output shaft; a planet carrier rotatably disposed in the cavity and connected with the arm assembly to drive the arm assembly; a planet gear rotatably mounted to the planet carrier and meshing with the sun gear; and an adjusting member mounted in the gear box, movable in an axial direction of the motor shaft and abutting against a free end of the motor shaft. a sun gear fitted over the output shaft; a planet carrier rotatably disposed in the cavity and connected with the arm assembly to drive the arm assembly; a planet gear rotatably mounted to the planet carrier and meshing with the sun gear; and an adjusting member mounted in the gear box, movable in an axial direction of the motor shaft and abutting against a free end of the motor shaft.
A method of deriving a motion vector predictor or motion vector predictor candidate for encoding a motion vector of a current prediction unit, PU, in a picture, the method comprising: receiving motion vectors associated with at least one spatially neighboring block (a 0,..., a n, b 0,..., b m, c, d, e) of the current PU and one block within a co-located PU of the current PU; determining a motion vector predictor, MVP, or a MVP candidate based on a MVP set, wherein the MVP set comprises motion vector candidates derived from the motion vectors associated with said at least one spatially neighboring block (a 0,..., a n, b 0,..., b m, c, d, e) and said block within the co-located PU, wherein the motion vectors associated with said at least one spatially neighboring block (a 0,..., a n, b 0,..., b m, c, d, e) and said block within the co-located PU are obtained from a previously coded frame or picture; and applying predictive encoding to the current PU based on the MVP or the MVP candidate, characterized in that the co-located PU comprises blocks T 0,0 to T m,n where (m+1) is the number of rows of the co-located PU and (n+1) is the number of columns of the co-located PU, and m and n are integers ≥ 3, and said block within the co-located PU is the lower-right block of a central point of the co-located PU, T i,j where i=(m+1)/2 and j=(n+1)/2. receiving motion vectors associated with at least one spatially neighboring block (a 0,..., a n, b 0,..., b m, c, d, e) of the current PU and one block within a co-located PU of the current PU; determining a motion vector predictor, MVP, or a MVP candidate based on a MVP set, wherein the MVP set comprises motion vector candidates derived from the motion vectors associated with said at least one spatially neighboring block (a 0,..., a n, b 0,..., b m, c, d, e) and said block within the co-located PU, wherein the motion vectors associated with said at least one spatially neighboring block (a 0,..., a n, b 0,..., b m, c, d, e) and said block within the co-located PU are obtained from a previously coded frame or picture; and applying predictive encoding to the current PU based on the MVP or the MVP candidate, characterized in that the co-located PU comprises blocks T 0,0 to T m,n where (m+1) is the number of rows of the co-located PU and (n+1) is the number of columns of the co-located PU, and m and n are integers ≥ 3, and said block within the co-located PU is the lower-right block of a central point of the co-located PU, T i,j where i=(m+1)/2 and j=(n+1)/2.
Method for controlling a light current of a lighting device having a plurality of semiconductor illuminants with a nominal current (I NENN) and a maximum current, in which method period intervals with a fixed period length are predetermined, an average light current for operating the semiconductor illuminants is selected within the period intervals, and in each of the period intervals a number of current pulses separated by pulse pauses and having a pulse amplitude (I P) and a fixed pulse duration is generated, wherein the number of current pulses in each period interval is selected such that within the period intervals the respective predetermined average light current is reached, characterized in that the pulse pauses between consecutive current pulses of the respective period interval are variably adjusted, wherein the lighting device is set up for the identification and marking of traffic areas of airports.
A method for producing a cell population comprising differentiated cells obtainable by inducing differentiation of pluripotent stem cells, the method comprising: culturing, in the presence of an anti-CD30 antibody-drug conjugate consisting of Brentuximab vedotin (trade name: Adcetris (registered trademark)) in which a drug having cell-killing activity is bound by a linker cleavable in the intracellular environment, a cell population comprising differentiated cells obtainable by inducing differentiation of pluripotent stem cells, thereby reducing the content ratio of undifferentiated pluripotent stem cells; wherein the content ratio of undifferentiated pluripotent stem cells in the cell population is 0.2% or less. culturing, in the presence of an anti-CD30 antibody-drug conjugate consisting of Brentuximab vedotin (trade name: Adcetris (registered trademark)) in which a drug having cell-killing activity is bound by a linker cleavable in the intracellular environment, a cell population comprising differentiated cells obtainable by inducing differentiation of pluripotent stem cells, thereby reducing the content ratio of undifferentiated pluripotent stem cells; wherein the content ratio of undifferentiated pluripotent stem cells in the cell population is 0.2% or less.
A system for detecting presence of a person within an elevator hoistway, the system comprising: a passive infrared detector positioned to sense infrared radiation from within the elevator hoistway; a local processor associated with the passive infrared detector for producing an output based upon signals from the passive infrared detector representing a sensed infrared profile; characterised in that the local processor compares an infrared profile produced by signals from the passive infrared detector with a reference infrared profile to determine whether a person is present in the elevator hoistway. a passive infrared detector positioned to sense infrared radiation from within the elevator hoistway; a local processor associated with the passive infrared detector for producing an output based upon signals from the passive infrared detector representing a sensed infrared profile; characterised in that the local processor compares an infrared profile produced by signals from the passive infrared detector with a reference infrared profile to determine whether a person is present in the elevator hoistway.
A method for concurrent production use of a production enterprise system and testing of a modified enterprise system, the method comprising: obtaining inputs from one or more users (120A, 120B, 120C) of a production enterprise system; providing the inputs from the one or more users (120A, 120B, 120C) to the production enterprise system; determining, by at least a hardware processor, a subset of the inputs from among the one or more users (120A, 120B, 120C) to use to test a modified enterprise system; performing, by at least the hardware processor, one or more transactions on the subset of the inputs on the modified enterprise system and a copy of the production enterprise system; and analyzing, by at least the hardware processor, the one or more transactions to determine that the modified enterprise system is correctly configured, wherein the analyzing further comprises comparing a record of transactions for the copy of the production enterprise system and the modified enterprise system. obtaining inputs from one or more users (120A, 120B, 120C) of a production enterprise system; providing the inputs from the one or more users (120A, 120B, 120C) to the production enterprise system; determining, by at least a hardware processor, a subset of the inputs from among the one or more users (120A, 120B, 120C) to use to test a modified enterprise system; performing, by at least the hardware processor, one or more transactions on the subset of the inputs on the modified enterprise system and a copy of the production enterprise system; and analyzing, by at least the hardware processor, the one or more transactions to determine that the modified enterprise system is correctly configured, wherein the analyzing further comprises comparing a record of transactions for the copy of the production enterprise system and the modified enterprise system.
A radial head trial device for replacement of a proximal radial head, the device comprising: a stem component, the stem component having a center longitudinal axis extending between a proximal end and a distal end; a head component axially and removably attachable to the stem component, wherein the head component: is interchangeable with a selection of other head components each axially and removably attachable to the stem component; and, includes a proximal end having a circular rim 746 which encircles a concave portion 748, a distal end, and an outer bearing surface extending between the proximal and distal ends and defining a proximal to distal profile, the proximal to distal profile including a convexly curved section and a concavely curved section; an anti-rotation feature; and a recess (762, 764, 768), wherein the anti-rotation feature is structured to be received in the recess to prohibit rotation of the head component relative to the stem component. a stem component, the stem component having a center longitudinal axis extending between a proximal end and a distal end; a head component axially and removably attachable to the stem component, wherein the head component: is interchangeable with a selection of other head components each axially and removably attachable to the stem component; and, includes a proximal end having a circular rim 746 which encircles a concave portion 748, a distal end, and an outer bearing surface extending between the proximal and distal ends and defining a proximal to distal profile, the proximal to distal profile including a convexly curved section and a concavely curved section; is interchangeable with a selection of other head components each axially and removably attachable to the stem component; and, includes a proximal end having a circular rim 746 which encircles a concave portion 748, a distal end, and an outer bearing surface extending between the proximal and distal ends and defining a proximal to distal profile, the proximal to distal profile including a convexly curved section and a concavely curved section; an anti-rotation feature; and a recess (762, 764, 768), wherein the anti-rotation feature is structured to be received in the recess to prohibit rotation of the head component relative to the stem component.