mhurhangee/ep-ind-claims huggingface dataset:
A method of computer memory management in a memory system using data compression and/or deduplication with logical address space being mapped to physical data space, the method comprising: receiving a rate exceeded signal, the rate exceeded signal indicating that memory traffic flow from a traffic source exceeds a threshold; receiving a distress signal from a memory controller (308A, 308B) that interfaces with a memory device (306A, 306B), the distress signal generated by a compression or deduplication engine having information about an utilization of available hardware memory space in the memory device and indicating that the memory device (306A, 306B) is oversubscribed; and throttling the memory traffic flow from the traffic source when the rate exceeded signal and the distress signal are both asserted. receiving a rate exceeded signal, the rate exceeded signal indicating that memory traffic flow from a traffic source exceeds a threshold; receiving a distress signal from a memory controller (308A, 308B) that interfaces with a memory device (306A, 306B), the distress signal generated by a compression or deduplication engine having information about an utilization of available hardware memory space in the memory device and indicating that the memory device (306A, 306B) is oversubscribed; and throttling the memory traffic flow from the traffic source when the rate exceeded signal and the distress signal are both asserted.
A receiving apparatus comprising: a plurality of receiving units (212-1, 212-2,... 212-N) configured to each receive a respective data slice of a plurality of data slices, said data slices having been obtained during transmission by dividing an original BaseBand, BB, frame of an original BB stream into said data slices, said original BB stream carrying a plurality of BB frames, each BB frame including a BB frame header and a BB frame data field, each BB frame header carrying a field SYNCD and a field ISCR in conformity with a Digital Video Broadcasting - Cable second generation, DVB-C2, standard, said field SYNCD indicating a remaining number of bits necessary to assemble a transport stream packet and said field ISCR being a time stamp indicating the transmission time of the BB frame; a selection unit configured to select a next BB frame on the basis of a comparison of the values of the SYNCD fields of selectable BB frames with an expected value of the SYNCD value, the expected value of the SYNCD value being calculated from the BB frame previously selected by the selection unit; and a reassembling unit configured to reassemble the original BB stream by sequentially processing the BB frames according to the order in which the selection unit selects the BB frames. a plurality of receiving units (212-1, 212-2,... 212-N) configured to each receive a respective data slice of a plurality of data slices, said data slices having been obtained during transmission by dividing an original BaseBand, BB, frame of an original BB stream into said data slices, said original BB stream carrying a plurality of BB frames, each BB frame including a BB frame header and a BB frame data field, each BB frame header carrying a field SYNCD and a field ISCR in conformity with a Digital Video Broadcasting - Cable second generation, DVB-C2, standard, said field SYNCD indicating a remaining number of bits necessary to assemble a transport stream packet and said field ISCR being a time stamp indicating the transmission time of the BB frame; a selection unit configured to select a next BB frame on the basis of a comparison of the values of the SYNCD fields of selectable BB frames with an expected value of the SYNCD value, the expected value of the SYNCD value being calculated from the BB frame previously selected by the selection unit; and a reassembling unit configured to reassemble the original BB stream by sequentially processing the BB frames according to the order in which the selection unit selects the BB frames.
A compound of Formula I where: A is R 1, R 2, R 3, R 4, R 5, and R 6 are H; B is C 2 to C 8 alkyl or alkenyl; and C is A is R 1, R 2, R 3, R 4, R 5, and R 6 are H; B is C 2 to C 8 alkyl or alkenyl; and C is
A continuous process for preparing diisocyanates by reaction of the corresponding diamines with phosgene using a stoichiometric excess of phosgene in at least one reaction space, wherein the reaction conditions are selected so that at least the reaction components diamine, diisocyanate and phosgene are gaseous under these conditions and at least one gaseous phosgene stream and at least one gaseous diamine stream and optionally at least one inert medium are reacted with one another adiopathically at a temperature in the reaction space above the boiling point of the diamine for an average contact time in the range from 0.001 second to < 5 seconds and excess phosgene and hydrogen chloride gas (HCl) formed are separated off from the resulting, essentially gaseous reaction mixture, the excess phosgene which has been separated off is at least partly recirculated to the reaction and hydrogen chloride is separated off from the recirculated phosgene stream so that the mass fraction of hydrogen chloride in the phosgene-comprising stream is less than 15% by weight before mixing with the amine-comprising stream.
A system for ablating a target tissue during a medical procedure, the system comprising: an elongate flexible catheter (32, 134) adapted to be introduced into a patient during said medical procedure, said catheter (32, 134) including a distal portion; an ablation head (36, 144) disposed at said distal portion of said catheter (32, 134), said ablation head (36, 144) adapted to contact said target tissue during said medical procedure; a force sensor (38, 142) operatively coupled with said ablation head (36, 144) for measurement of a contact force exerted on said ablation head (36, 144), said force sensor (38, 142) configured to output a signal in response to said contact force; a power source operatively coupled with said ablation head (36, 144) for energization of said ablation head (36, 144); characterized by a control system configured to receive said signal from said force sensor (38, 142) and to produce a sequence of contact force values acquired over a time period of energization, said sequence of contact force values being based on said signal output by said force sensor (38, 142) for calculation of a force-time integral, wherein the control system is adapted to utilise the force-time integral to control ablation of said target tissue; and wherein said control system is further configured to calculate the force-time integral in real time, such that the force-time integral is a measured quantity that involves the measurement of the contact force over time. an elongate flexible catheter (32, 134) adapted to be introduced into a patient during said medical procedure, said catheter (32, 134) including a distal portion; an ablation head (36, 144) disposed at said distal portion of said catheter (32, 134), said ablation head (36, 144) adapted to contact said target tissue during said medical procedure; a force sensor (38, 142) operatively coupled with said ablation head (36, 144) for measurement of a contact force exerted on said ablation head (36, 144), said force sensor (38, 142) configured to output a signal in response to said contact force; a power source operatively coupled with said ablation head (36, 144) for energization of said ablation head (36, 144); characterized by a control system configured to receive said signal from said force sensor (38, 142) and to produce a sequence of contact force values acquired over a time period of energization, said sequence of contact force values being based on said signal output by said force sensor (38, 142) for calculation of a force-time integral, wherein the control system is adapted to utilise the force-time integral to control ablation of said target tissue; and wherein said control system is further configured to calculate the force-time integral in real time, such that the force-time integral is a measured quantity that involves the measurement of the contact force over time.
A blind riveting tool, embodied as a hand-held riveting tool comprising a hydraulically driven pulling device, comprising: (i) a head piece, which comprises a hydraulically driven piston as well as a receptacle for a rivet, (ii) a support and a pivot bearing, with which the head piece can be pivoted around the support at least at an angle of 45°, and wherein the pivot bearing has a rotary feed through for hydraulic fluid, characterized in that: - the pivot bearing is attached to the head piece in the front area, and - the support comprises a quick coupling with which the support can be connected to a pressure generator, wherein the quick connector comprises a self-closing valve for hydraulic fluid. (i) a head piece, which comprises a hydraulically driven piston as well as a receptacle for a rivet, (ii) a support and a pivot bearing, with which the head piece can be pivoted around the support at least at an angle of 45°, and wherein the pivot bearing has a rotary feed through for hydraulic fluid, characterized in that: - the pivot bearing is attached to the head piece in the front area, and - the support comprises a quick coupling with which the support can be connected to a pressure generator, wherein the quick connector comprises a self-closing valve for hydraulic fluid. - the pivot bearing is attached to the head piece in the front area, and - the support comprises a quick coupling with which the support can be connected to a pressure generator, wherein the quick connector comprises a self-closing valve for hydraulic fluid.
A method for the preparation of 1,2-propanediol comprising the steps: a) continuously reacting propene with hydrogen peroxide in the presence of a catalyst mixture comprising a quaternary ammonium salt and a polytungstophosphate in a liquid reaction mixture comprising an aqueous phase with a maximum apparent pH of 6 and an organic phase comprising an alkylaromatic hydrocarbon solvent; b) withdrawing liquid reaction mixture from step a) and adding a water-soluble sulfate salt or sulfuric acid to the withdrawn reaction mixture to provide a mixture comprising from 500 to 10,000 mg/kg of sulfate ions in the aqueous phase; c) separating the mixture obtained in step b) into an aqueous phase (P a) comprising 1,2-propanediol and an organic phase (P o) v; d) recycling at least a part of the organic phase (P o) to the reaction step a); and e) recovering 1,2-propanediol from the aqueous phase (P a), wherein the term "apparent pH" here refers to a value determined by measurement with a glass electrode employing a commercial pH meter calibrated with aqueous buffer solutions of known pH for measuring dilute aqueous solutions. a) continuously reacting propene with hydrogen peroxide in the presence of a catalyst mixture comprising a quaternary ammonium salt and a polytungstophosphate in a liquid reaction mixture comprising an aqueous phase with a maximum apparent pH of 6 and an organic phase comprising an alkylaromatic hydrocarbon solvent; b) withdrawing liquid reaction mixture from step a) and adding a water-soluble sulfate salt or sulfuric acid to the withdrawn reaction mixture to provide a mixture comprising from 500 to 10,000 mg/kg of sulfate ions in the aqueous phase; c) separating the mixture obtained in step b) into an aqueous phase (P a) comprising 1,2-propanediol and an organic phase (P o) v; d) recycling at least a part of the organic phase (P o) to the reaction step a); and e) recovering 1,2-propanediol from the aqueous phase (P a),
An input connector assembly for detecting residual current and adapted for connecting power sources to electric equipment of electric vehicles, comprising a wire terminal block with wire terminals for receiving electrical wires, lock and release mechanisms connected to the wire terminal block for fixing electrical wires to conductors in the wire terminals, a residual current sensor adapted to be mounted to a flat surface, a support holder having a hollow design enabling it to be positioned above the residual current sensor and to be connected to the flat surface, c h a r a c t e r i z e d i n that the top of the support holder is adapted for supporting the wire terminal block in a position entirely above the residual current sensor, wherein the residual current sensor, the support holder and the wire terminal block are placed above each other and where conducting connection pins run from each conductor in the wire terminals of the wire terminal block through openings in the residual current sensor to the flat surface.
A compressor inner air seal for a gas turbine engine comprising: a bond coat disposed on a substrate, wherein the substrate is a rotor land, an interlayer disposed on the bond coat, and an abrasive layer disposed on the interlayer, wherein the interlayer comprises alumina, wherein the abrasive layer consists of an oxide ceramic or mixture of oxide ceramics that has a hardness on the Mohs scale of 7 or higher characterised in that the abrasive layer is applied at a temperature 400 to 1400 °F (222°C to 778°C) less than the temperature used to apply the interlayer, the interlayer is applied at a temperature of 600 to 1600°F (315 to 872°C), and the interlayer has a thickness of 0.1 to 5.0 mils (2.54 × 10 -6 to 1.27 × 10 -4 meters). a bond coat disposed on a substrate, wherein the substrate is a rotor land, an interlayer disposed on the bond coat, and an abrasive layer disposed on the interlayer, wherein the interlayer comprises alumina, wherein the abrasive layer consists of an oxide ceramic or mixture of oxide ceramics that has a hardness on the Mohs scale of 7 or higher characterised in that the abrasive layer is applied at a temperature 400 to 1400 °F (222°C to 778°C) less than the temperature used to apply the interlayer, the interlayer is applied at a temperature of 600 to 1600°F (315 to 872°C), and the interlayer has a thickness of 0.1 to 5.0 mils (2.54 × 10 -6 to 1.27 × 10 -4 meters).
A fence accessory comprising: at least two ornament bodies (1, 3), each of the at least two ornament bodies (1, 3) comprising a first connecting part and a second connecting part at two opposing ends thereof, wherein the first connecting part of one of the at least two ornament bodies (1, 3) and the second connecting part of another one of the at least two ornament bodies (1, 3) are configured to be connected to a fence bar and clamped together as one unit, characterized in that, the first connecting part comprises a hook and a slot at two opposing sides of the first connecting part, the second connecting part comprises a hook and a slot at two opposing sides of the second connecting part, wherein the first connecting part and the second connecting part of each of the at least two ornament bodies (1, 3) are mirror image of each other. at least two ornament bodies (1, 3), each of the at least two ornament bodies (1, 3) comprising a first connecting part and a second connecting part at two opposing ends thereof, wherein the first connecting part of one of the at least two ornament bodies (1, 3) and the second connecting part of another one of the at least two ornament bodies (1, 3) are configured to be connected to a fence bar and clamped together as one unit, characterized in that, the first connecting part comprises a hook and a slot at two opposing sides of the first connecting part, the second connecting part comprises a hook and a slot at two opposing sides of the second connecting part, wherein the first connecting part and the second connecting part of each of the at least two ornament bodies (1, 3) are mirror image of each other.
Method for autonomously driving a motor vehicle in a car wash, characterised by: • detecting a passageway of the car wash, • detecting a vehicle position and a vehicle orientation of the motor vehicle relative to the passageway of the car wash, • automatically driving the motor vehicle into the car wash on the basis of the vehicle position and the vehicle orientation, • automatically stopping the motor vehicle in a washing position, • receiving or detecting, by the motor vehicle, a completion signal, which signals completion of a working step of the car wash, and • automatically driving the motor vehicle out of the car wash in response to the completion signal. • detecting a passageway of the car wash, • detecting a vehicle position and a vehicle orientation of the motor vehicle relative to the passageway of the car wash, • automatically driving the motor vehicle into the car wash on the basis of the vehicle position and the vehicle orientation, • automatically stopping the motor vehicle in a washing position, • receiving or detecting, by the motor vehicle, a completion signal, which signals completion of a working step of the car wash, and • automatically driving the motor vehicle out of the car wash in response to the completion signal.
A rotationally-tolerant ophthalmic apparatus for correcting astigmatism, the ophthalmic apparatus comprising a multi-zonal lens body having a plurality of optical zones (202, 204, 206) configured to apply cylinder power at an astigmatism meridian of an eye, the multi-zonal lens body forming a angularly-varying phase member having a peak cylinder power centered at an astigmatism correcting meridian (104, 202a, 204a, 206a), the angularly-varying phase member at the peak cylinder power being configured to direct light to a first point of focus on the retina, and wherein the angularly-varying phase member varies, at each optical zone, along meridians nearby to the astigmatism correcting meridian to direct light to points of focus nearby to the first point of focus such that the multi-zonal lens body, when rotationally offset from the peak cylinder power, directs light from the nearby points of focus to the first point of focus, thereby establishing a band of operational meridians over the astigmatism meridian, and wherein the angularly-varying phase member has a profile that is uniformly spaced for every 0.5D (diopters).
Display and operator control facility for making adjustments to a household appliance, having a carrier housing with a display and operator control panel with an operator control field on an outer side, which faces towards the user, of the display and operator control panel, a circuit board on an inner side, which faces away from the user, of the display and operator control panel, and a waveguide on an inner side, which faces away from the user, of the display and operator control panel with a planar waveguide section with an edge-side light entry area, wherein the circuit board has an outer main area, which faces towards the display and operator control panel and on which a light source provided for backlighting the display and operator control panel and an electrical sensor area corresponding to the operator control field are provided, wherein the planar waveguide section is held between the electrical sensor area and an inner side, which faces away from the user, of the display and operator control panel, the light source is arranged outside of the electrical sensor area on the outer main area of the circuit board and a main emission axis of the light source is directed at the edge-side light entry area, characterised in that, during intended use of the display and operator control facility, the waveguide has multiple planar waveguide sections, which are arranged adjacent to one another horizontally and are in each case substantially separated from one another physically, wherein the waveguide has multiple light sources corresponding to the planar waveguide sections and electrical sensor areas on the circuit board, wherein the multiple planar waveguide sections in each case are arranged in a depression, which corresponds to the planar waveguide sections, on the inner side of the display and operator control panel, wherein a light-impermeable wall protrusion is located between the depressions in each case.
A resection guide for a tibia, comprising: an anterior/posterior cutting guide; and a transverse cutting guide (12,14) configured to overlay a portion of the tibia and having a length extending from a generally medial portion of the tibia to a generally lateral portion of the tibia and a depth extending in a posterior direction generally perpendicular to the length, the first cutting guide comprising a groove extending along the length and depth of the first cutting guide and along a generally transverse plane; characterised in that the transverse cutting guide (12,14) further comprises at least one receiving slot for receiving the anterior/posterior cutting guide, wherein the anterior/posterior cutting guide, when received in the at least one receiving slot, is oriented at an angle to the transverse cutting guide (12,14), extends generally in a posterior direction from the transverse cutting guide (12,14) and is configured to limit a cutting instrument from cutting bone in the transverse plane. an anterior/posterior cutting guide; and a transverse cutting guide (12,14) configured to overlay a portion of the tibia and having a length extending from a generally medial portion of the tibia to a generally lateral portion of the tibia and a depth extending in a posterior direction generally perpendicular to the length, the first cutting guide comprising a groove extending along the length and depth of the first cutting guide and along a generally transverse plane; characterised in that the transverse cutting guide (12,14) further comprises at least one receiving slot for receiving the anterior/posterior cutting guide, wherein the anterior/posterior cutting guide, when received in the at least one receiving slot, is oriented at an angle to the transverse cutting guide (12,14), extends generally in a posterior direction from the transverse cutting guide (12,14) and is configured to limit a cutting instrument from cutting bone in the transverse plane.
A method of adaptive beamforming scanning by a network device controlling a radio access node (130, 130a, 130b, 130c, 130d) and operative in a communication system for accessing data and services provided by the communication system by wireless devices (120a, 120b) transmitting identification signals, the network device having a non-uniform directional network coverage which is proportional to a coverage requirement that is different in different directions, the method comprising: updating the non-uniform directional network coverage based on measurement information from the wireless devices (120a, 120b); updating a beam pattern indicating spatial directions to be scanned for reception of identification signals of wireless devices (120a, 120b), wherein the beam pattern is defined by the updated non-uniform directional network coverage; and scanning with directional beams (110a, 110b, 110c, 110d) in the spatial directions according to the beam pattern for reception of the identification signals of the wireless devices (120a, 120b), wherein a total time duration for scanning through all directional beams (110a, 110b, 110c, 110d) is time-varying and determined according to the beam pattern. updating the non-uniform directional network coverage based on measurement information from the wireless devices (120a, 120b); updating a beam pattern indicating spatial directions to be scanned for reception of identification signals of wireless devices (120a, 120b), wherein the beam pattern is defined by the updated non-uniform directional network coverage; and scanning with directional beams (110a, 110b, 110c, 110d) in the spatial directions according to the beam pattern for reception of the identification signals of the wireless devices (120a, 120b), wherein a total time duration for scanning through all directional beams (110a, 110b, 110c, 110d) is time-varying and determined according to the beam pattern.