mhurhangee/patent-ind-claim-en huggingface dataset:
A confocal sensor , comprising: a light source configured to emit light at a plurality of wavelengths; a diffractive lens configured to generate a chromatic aberration with respect to the light along an optical axis direction and configured to converge the light on an object without another intervening lens; a pinhole configured to allow reflected light to pass through it, the reflected light being a portion of the light focused on and reflected by the object and converged by the diffractive lens ; and a measuring unit configured to measure a distance from the diffractive lens to the object based on a wavelength of the reflected light, wherein a distance from the pinhole to the diffractive lens is variable. a light source configured to emit light at a plurality of wavelengths; a diffractive lens configured to generate a chromatic aberration with respect to the light along an optical axis direction and configured to converge the light on an object without another intervening lens; a pinhole configured to allow reflected light to pass through it, the reflected light being a portion of the light focused on and reflected by the object and converged by the diffractive lens ; and a measuring unit configured to measure a distance from the diffractive lens to the object based on a wavelength of the reflected light, wherein a distance from the pinhole to the diffractive lens is variable.
A mounting management device for managing a mounting line including at least one component mounting apparatus that is configured to pick up components (P) from component supply tapes sequentially fed by multiple tape feeders held in a pallet with a nozzle and to mount the components (P) on a board (S), the device comprising: storage means configured to store multiple production jobs having information on which type of component is to be mounted on the board (S) and information on a production volume; the mounting management device being characterized by comprising group number setting means configured to set the number of groups to N, wherein N is a natural number greater than one, wherein the group number setting means is configured to set the number of groups based on the total number of component types included in the multiple production jobs and the total number of slots holding the tape feeders included in the mounting line , or to set the number of groups to a value input by an operator using an input device ; and feeder position determination means configured to set a production job having a largest production volume to a production job having an Nth largest production volume of the multiple production jobs as reference jobs of N groups respectively and to determine arrangement positions of the tape feeders on the pallet so that a production time required for processing the reference job is reduced based on the reference job, and to perform grouping to allocate remaining production jobs excluding the reference jobs from the multiple production jobs to one of the N groups and determining arrangement positions of the tape feeders on the pallet based on the remaining production jobs. storage means configured to store multiple production jobs having information on which type of component is to be mounted on the board (S) and information on a production volume; the mounting management device being characterized by comprising group number setting means configured to set the number of groups to N, wherein N is a natural number greater than one, wherein the group number setting means is configured to set the number of groups based on the total number of component types included in the multiple production jobs and the total number of slots holding the tape feeders included in the mounting line , or to set the number of groups to a value input by an operator using an input device ; and feeder position determination means configured to set a production job having a largest production volume to a production job having an Nth largest production volume of the multiple production jobs as reference jobs of N groups respectively and to determine arrangement positions of the tape feeders on the pallet so that a production time required for processing the reference job is reduced based on the reference job, and to perform grouping to allocate remaining production jobs excluding the reference jobs from the multiple production jobs to one of the N groups and determining arrangement positions of the tape feeders on the pallet based on the remaining production jobs.
Ceramic circuit carrier with a ceramic carrier substrate , in particular a DBC (Direct Bonded Copper) or AMB (Active Metal Brazing) circuit carrier, wherein the carrier substrate has a top and a bottom side and at least one conductor structure comprising at least one layer composed of copper or a copper alloy is arranged on the top and/or the bottom side , and wherein the conductor structure has an outermost termination surface and in a perpendicular section in relation to the top and/or the bottom side protrudes from the top side and/or the bottom side , respectively, up to the outermost termination surface with a height (h1, h2), wherein the conductor structure has at least a first structure region (I) with a first height (h1) and at least a second structure region (II) with a second height (h2), wherein the second height (h2) is smaller than the first height (h1) and the first and the second structure region (I, II) are electrically insulated from one another by means of the ceramic carrier substrate , characterized in that a structure region (I, II) over its respective height has side walls of the conductor structure, wherein the side walls (S1) in the first structure region (I) are formed as an etching structure at an oblique angle in relation to the top and/or the bottom side , and wherein the side walls (S2) in the second structure region (II) are formed as a laser structure substantially perpendicular in relation to the top and/or the bottom side.
Aluminium alloy strip having an aluminium alloy for vehicle applications with the following alloy constituents in percent by weight: 0.40 wt% ≤ Si ≤ 0.55 wt%, 0.15 wt% ≤ Fe ≤ 0.25 wt%, Cu ≤ 0.06 wt%, 0.15 wt% ≤ Mn ≤ 0.40 wt%, 0.33 wt% ≤ Mg ≤ 0.40 wt%, Cr ≤ 0.03 wt%, 0.005 wt% ≤ Ti ≤ 0.10 wt%, the remainder Al and unavoidable impurities, individually at most 0.05 wt%, in total at most 0.15 wt%. 0.40 wt% ≤ Si ≤ 0.55 wt%, 0.15 wt% ≤ Fe ≤ 0.25 wt%, Cu ≤ 0.06 wt%, 0.15 wt% ≤ Mn ≤ 0.40 wt%, 0.33 wt% ≤ Mg ≤ 0.40 wt%, Cr ≤ 0.03 wt%, 0.005 wt% ≤ Ti ≤ 0.10 wt%,
A polyethylene composition comprising at least 65 wt% ethylene derived units and up to 35 wt% of C 3 -C 12 olefin comonomer derived units, based upon the total weight of the polyethylene composition, wherein the polyethylene composition has: a) an RCI,m of 100 kg/mol or greater; b) an internal unsaturation as measured by 1 H NMR of less than 0.15 total internal unsaturations per thousand carbon atoms; c) a density of from 0.890 g/cm 3 to 0.940 g/cm 3 ; d) a melt index (MI) of from 0.1 g/10 min to 30 g/10 min; e) a melt index ratio (I 21 /I 2 ) of from 10 to 90; f) an M w /M n of from 2 to 12; j) an M z /M w of from 2.2 to 5.0; h) an M z /M n of from 10 to 40; and i) a g'(vis) of 0.990 or less; and one or both of: j) a T W1 -T W2 value of from -16°C to -38°C; and k) an M W1 /M W2 value of at least 0.9. a) an RCI,m of 100 kg/mol or greater; b) an internal unsaturation as measured by 1 H NMR of less than 0.15 total internal unsaturations per thousand carbon atoms; c) a density of from 0.890 g/cm 3 to 0.940 g/cm 3 ; d) a melt index (MI) of from 0.1 g/10 min to 30 g/10 min; e) a melt index ratio (I 21 /I 2 ) of from 10 to 90; f) an M w /M n of from 2 to 12; j) an M z /M w of from 2.2 to 5.0; h) an M z /M n of from 10 to 40; and i) a g'(vis) of 0.990 or less; and j) a T W1 -T W2 value of from -16°C to -38°C; and k) an M W1 /M W2 value of at least 0.9.
An automated device for manufacturing elastomer stoppers, comprising: a frame , a cutting matrix and a cutting head provided with vertically movable cutting punches that are introduced in cavities of the cutting matrix, die-cutting an elastomer plate and obtaining the stoppers; characterised in that it comprises: a double-cutting matrix mounted on a movable table and which has a number of cavities equal to double the number of punches of the cutting head ; runners for movement of the movable table on longitudinal rails of the frame , a spindle that acts on runners of the movable table and that is connected to a motor that causes linear movement of the movable table through a series of work areas, comprising: - a loading and positioning area on the double-cutting matrix of an elastomer plate (P); - a first cutting area wherein the punches of the cutting head become housed in half of the cavities of the double-cutting matrix , die-cutting a first part of the elastomer sheet (P); - a second cutting area wherein the punches of the cutting head become housed in the other half of the cavities of the double-cutting matrix , die-cutting a second part of the elastomer sheet (P); and - a scrap removal area comprising a rotating arm having grippers and responsible for removing the excess material from the die-cutting of the elastomer plate (P) and depositing it in a scrap collecting cart (C). - a loading and positioning area on the double-cutting matrix of an elastomer plate (P); - a first cutting area wherein the punches of the cutting head become housed in half of the cavities of the double-cutting matrix , die-cutting a first part of the elastomer sheet (P); - a second cutting area wherein the punches of the cutting head become housed in the other half of the cavities of the double-cutting matrix , die-cutting a second part of the elastomer sheet (P); and - a scrap removal area comprising a rotating arm having grippers and responsible for removing the excess material from the die-cutting of the elastomer plate (P) and depositing it in a scrap collecting cart (C).
Use of a coating for improving ultrasound visibility of a medical device, wherein the coating comprises radiopaque materials dispersed within a polymer matrix, and wherein the radiopaque materials are selected from the group consisting of bismuth subcarbonate, bismuth oxide, bismuth oxychloride and barium sulfate.
A method for recognizing an Unmanned Aerial Vehicle, UAV, applied to a source base station, characterized in that the method comprises: determining a target base station to which User Equipment, UE, is to be handed over and a handover mode of the UE switching from the source base station to the target base station based on a measurement report reported by the UE; wherein the handover mode is an X2-interface-based handover or an S1-interface-based handover; determining second signaling based on first signaling corresponding to the handover mode, the first signaling being signaling for requesting handover sent by the source base station, and the second signaling including indication information which indicates that the UE requesting handover is a UAV; and sending the second signaling to a target base station in response to the handover mode being the X2-interface-based handover, and sending the second signaling to a Mobility Management Entity, MME, in response to the handover mode being the S1-interface-based handover. determining a target base station to which User Equipment, UE, is to be handed over and a handover mode of the UE switching from the source base station to the target base station based on a measurement report reported by the UE; wherein the handover mode is an X2-interface-based handover or an S1-interface-based handover; determining second signaling based on first signaling corresponding to the handover mode, the first signaling being signaling for requesting handover sent by the source base station, and the second signaling including indication information which indicates that the UE requesting handover is a UAV; and sending the second signaling to a target base station in response to the handover mode being the X2-interface-based handover, and sending the second signaling to a Mobility Management Entity, MME, in response to the handover mode being the S1-interface-based handover.
Arrangement in a cross-flow membrane separation unit , comprising a membrane element and a pressure keeping structure enclosing the membrane element , into which enclosure a pressurized input substance is led, out of which enclosure are outputs for the separated parts of the input substance , where the input substance is led into an upstream section of the membrane element , a part of the input substance is arranged to permeate in the membrane as a permeate , and the unpermeated part, a concentrate , is arranged to exit from the downstream section of the membrane element , and a portion of the concentrate is arranged to circulate back as a circulatory concentrate inside the enclosure to the upstream section of the membrane element to be mixed with the pressurized input substance , and where the mass flow into the upstream section of the membrane element is greater than the mass flow into the enclosure , and that the separation unit comprises an ejector pump element with one or more ejector pumps , characterized in that the separation unit comprises a seal that is arranged to separate the input substance that is fed to the upstream section of the membrane element and channels of the circulatory concentrate from each other.
A method of implementing multiple split snoop directories on a computing device, comprising: enabling a first split snoop directory for a first power domain and a second split snoop directory for a second power domain , wherein the first power domain includes a plurality of processor caches and the second power domain includes at least one processor cache; determining whether all of the plurality of processor caches in the first power domain are in a low power state, wherein the low power state includes one of an OFF state and a retention, RET, state, and wherein the determining comprises determining that at least one processor cache of said plurality of processor caches is in the RET state while other processor caches of the first power domain are in the OFF state; and disabling the first split snoop directory by setting the first split snoop directory to the RET state in response to determining that said at least one processor cache of said plurality of processor caches is in the RET state while other processor caches of the first power domain are in the OFF state. enabling a first split snoop directory for a first power domain and a second split snoop directory for a second power domain , wherein the first power domain includes a plurality of processor caches and the second power domain includes at least one processor cache; determining whether all of the plurality of processor caches in the first power domain are in a low power state, wherein the low power state includes one of an OFF state and a retention, RET, state, and wherein the determining comprises determining that at least one processor cache of said plurality of processor caches is in the RET state while other processor caches of the first power domain are in the OFF state; and disabling the first split snoop directory by setting the first split snoop directory to the RET state in response to determining that said at least one processor cache of said plurality of processor caches is in the RET state while other processor caches of the first power domain are in the OFF state.
A method of controlling an environmental maintenance system including a plurality of environmental maintenance modules including one or more actuators and a plurality of sensors that measure a value of a physical condition of an environment, the method comprising: identifying a sensor S indx whose sensor value is measured to be outside of a range; for each of a plurality of the modules , determining, using a transfer function, a predicted change value that predicts an amount that a change in an operation level of the respective module changes the sensor value measured by the identified sensor S indx , wherein the change in the operation level of the respective module is an input to the transfer function and the predicted change is an output of the transfer function; selecting at least one module based on the respective predicted change in the sensor value; and changing the operation level of the selected at least one module to effectuate a change of the sensor value of sensor S indx . identifying a sensor S indx whose sensor value is measured to be outside of a range; for each of a plurality of the modules , determining, using a transfer function, a predicted change value that predicts an amount that a change in an operation level of the respective module changes the sensor value measured by the identified sensor S indx , wherein the change in the operation level of the respective module is an input to the transfer function and the predicted change is an output of the transfer function; selecting at least one module based on the respective predicted change in the sensor value; and changing the operation level of the selected at least one module to effectuate a change of the sensor value of sensor S indx .
A powered fiber optic system comprising: a first location including a power source and fiber optic network access; a plurality of active devices remotely positioned with respect to the first location; a plurality of hybrid cables routed from the first location toward the active devices, the hybrid cables including optical fibers for transmitting optical signals and electrical conductors for carrying power; and interface devices mounted adjacent to the active devices for providing interfaces between the hybrid cables and the active devices, characterised in that the interface devices each include electrical power management circuitry positioned within a respective closure for providing DC-to-DC voltage conversion within the respective closure to compensate for voltage loss over a length of the hybrid cables and to output a desired voltage level for the active devices, the interface devices also including circuit protection circuitry for providing current surge protection. a first location including a power source and fiber optic network access; a plurality of active devices remotely positioned with respect to the first location; a plurality of hybrid cables routed from the first location toward the active devices, the hybrid cables including optical fibers for transmitting optical signals and electrical conductors for carrying power; and interface devices mounted adjacent to the active devices for providing interfaces between the hybrid cables and the active devices, characterised in that the interface devices each include electrical power management circuitry positioned within a respective closure for providing DC-to-DC voltage conversion within the respective closure to compensate for voltage loss over a length of the hybrid cables and to output a desired voltage level for the active devices, the interface devices also including circuit protection circuitry for providing current surge protection.
A method for a network node, of a radio access network, RAN, that provides a cell serving one or more user equipment, UEs, the method comprising: determining a restriction to requests for on-demand delivery of system information blocks, SIBs, by at least one LTE operating in the cell, wherein SIBs available for on-demand delivery includes global navigation satellite system, GNSS, positioning assistance information, and wherein the restriction is determined based on a duration between updates of real-time kinematic information comprising the GNSS positioning assistance information; and transmitting , to the at least one UE, one or more parameters associated with the restriction. determining a restriction to requests for on-demand delivery of system information blocks, SIBs, by at least one LTE operating in the cell, wherein SIBs available for on-demand delivery includes global navigation satellite system, GNSS, positioning assistance information, and wherein the restriction is determined based on a duration between updates of real-time kinematic information comprising the GNSS positioning assistance information; and transmitting , to the at least one UE, one or more parameters associated with the restriction.
A C5a antibody or an antigen-binding fragment thereof, comprising a set of heavy chain CDR3, heavy chain CDR2, and heavy chain CDR1 sequences and a set of light chain CDR3, light chain CDR2, and light chain CDR1 sequences selected from one of the following sets: (i) a heavy chain CDR3 sequence according to SEQ ID NO: 6, a heavy chain CDR2 sequence according to SEQ ID NO: 10, and a heavy chain CDR1 sequence according to SEQ ID NO: 14; and a light chain CDR3 sequence according to SEQ ID NO: 8, a light chain CDR2 sequence according to SEQ ID NO: 12, and a light chain CDR1 sequence according to SEQ ID NO: 16; or (ii) a heavy chain CDR3 sequence according to SEQ ID NO: 7, a heavy chain CDR2 sequence according to SEQ ID NO: 11, and a heavy chain CDR1 sequence according to SEQ ID NO: 15 and a light chain CDR3 sequence according to SEQ ID NO: 9, a light chain CDR2 sequence according to SEQ ID NO: 12, and a light chain CDR1 sequence according to SEQ ID NO: 17; wherein said antibody or antigen-binding fragment thereof has a binding constant to C5a with a K d value of 10 nM or less. (i) a heavy chain CDR3 sequence according to SEQ ID NO: 6, a heavy chain CDR2 sequence according to SEQ ID NO: 10, and a heavy chain CDR1 sequence according to SEQ ID NO: 14; and a light chain CDR3 sequence according to SEQ ID NO: 8, a light chain CDR2 sequence according to SEQ ID NO: 12, and a light chain CDR1 sequence according to SEQ ID NO: 16; or (ii) a heavy chain CDR3 sequence according to SEQ ID NO: 7, a heavy chain CDR2 sequence according to SEQ ID NO: 11, and a heavy chain CDR1 sequence according to SEQ ID NO: 15 and a light chain CDR3 sequence according to SEQ ID NO: 9, a light chain CDR2 sequence according to SEQ ID NO: 12, and a light chain CDR1 sequence according to SEQ ID NO: 17; wherein said antibody or antigen-binding fragment thereof has a binding constant to C5a with a K d value of 10 nM or less.