mhurhangee/ep-ind-claims huggingface dataset:
A method for updating one or more corrupt software components installed on a computer system, the method comprising: with at least one computing device, responsive to a failure of an updating service on the computer system: determining that a component of software to be updated is corrupt; detecting the corrupt component of software, the corrupt component comprising a plurality of files; determining a set of corrupt files selected from said plurality of files, the set of corrupt files being in need of repair to fix the corrupt component; downloading a set of repair files, the set of repair files corresponding to the set of corrupt files; repairing the corrupt component using the set of repair files; uninstalling the repaired component; downloading an updated version of the component; and installing the updated version of the component. determining that a component of software to be updated is corrupt; detecting the corrupt component of software, the corrupt component comprising a plurality of files; determining a set of corrupt files selected from said plurality of files, the set of corrupt files being in need of repair to fix the corrupt component; downloading a set of repair files, the set of repair files corresponding to the set of corrupt files; repairing the corrupt component using the set of repair files; uninstalling the repaired component; downloading an updated version of the component; and installing the updated version of the component.
A copolyester composition comprising: (a) from greater than 90 to about 98 weight % of the copolyester, the copolyester comprising (i) a diacid component comprising from 70 to 100 mole % residues of terephthalic acid, from 0 to 30 mole % residues of a modifying aromatic diacid having from 8 to 12 carbon atoms, and from 0 to 10 mole % residues of an aliphatic dicarboxylic acid; and (ii) a glycol component comprising from 1 to 65 mole % cyclohexanedimethanol residues and from 35 to 99 mole % of a modifying glycol having 2 to 20 carbon atoms; b) from greater than 2 to less than 10 weight % of a flame retardant mixture comprising (i) a melamine and (ii) a metal phosphinate, wherein the copolyester composition has a UL 94 V0 rating or a Class 1 or Class A rating according to ASTM E-84, wherein the copolyester composition has an energy at maximum load greater than 8 Joules measured on a 100 mm x 100 mm x 1.5 mm plaque according to ASTM D3763, wherein the weight % is based on the weight of the copolyester, wherein the total mole % of the dicarboxylic acid component is 100 mole % and the total mole % of the glycol component is 100 mole %. (a) from greater than 90 to about 98 weight % of the copolyester, the copolyester comprising (i) a diacid component comprising from 70 to 100 mole % residues of terephthalic acid, from 0 to 30 mole % residues of a modifying aromatic diacid having from 8 to 12 carbon atoms, and from 0 to 10 mole % residues of an aliphatic dicarboxylic acid; and (ii) a glycol component comprising from 1 to 65 mole % cyclohexanedimethanol residues and from 35 to 99 mole % of a modifying glycol having 2 to 20 carbon atoms; (i) a diacid component comprising from 70 to 100 mole % residues of terephthalic acid, from 0 to 30 mole % residues of a modifying aromatic diacid having from 8 to 12 carbon atoms, and from 0 to 10 mole % residues of an aliphatic dicarboxylic acid; and (ii) a glycol component comprising from 1 to 65 mole % cyclohexanedimethanol residues and from 35 to 99 mole % of a modifying glycol having 2 to 20 carbon atoms; b) from greater than 2 to less than 10 weight % of a flame retardant mixture comprising (i) a melamine and (ii) a metal phosphinate, wherein the copolyester composition has a UL 94 V0 rating or a Class 1 or Class A rating according to ASTM E-84,
A variable coolant pump comprising: a housing comprising an impeller area and a driving area, wherein the housing has a locking plate to define the impeller area at least partially; a shaft to rotate around an axis of rotation of the housing, wherein the shaft is operatively connected to a driving element arranged in the driving area; a main impeller to drive coolant in the impeller area, the main impeller being assembled in the shaft; a shutter displaceable in axial direction along the shaft to cover, at least partially, an outflow region of the main impeller such that an amount of the coolant delivered by the pump is variable; a control pressure pump to increase hydraulic pressure to displace the shutter, wherein the control pressure pump is assembled around the shaft; a first fluid path to feed the control pressure pump with coolant from the impeller area; a collector to collect driven coolant in a region between the main impeller and the locking plate, wherein the collector is in fluid communication with the first fluid path; wherein the first fluid path is in fluid communication with a collector intake through a duct; characterized in that the duct is defined between the locking plate and a collector cover, the collector cover being configured to separate the coolant captured by the collector from remaining coolant driven by the main impeller. a housing comprising an impeller area and a driving area, wherein the housing has a locking plate to define the impeller area at least partially; a shaft to rotate around an axis of rotation of the housing, wherein the shaft is operatively connected to a driving element arranged in the driving area; a main impeller to drive coolant in the impeller area, the main impeller being assembled in the shaft; a shutter displaceable in axial direction along the shaft to cover, at least partially, an outflow region of the main impeller such that an amount of the coolant delivered by the pump is variable; a control pressure pump to increase hydraulic pressure to displace the shutter, wherein the control pressure pump is assembled around the shaft; a first fluid path to feed the control pressure pump with coolant from the impeller area; a collector to collect driven coolant in a region between the main impeller and the locking plate, wherein the collector is in fluid communication with the first fluid path; wherein the first fluid path is in fluid communication with a collector intake through a duct; characterized in that the duct is defined between the locking plate and a collector cover, the collector cover being configured to separate the coolant captured by the collector from remaining coolant driven by the main impeller.
A method for sending MBMS traffic data based on MBMS cell groups, wherein multiple MBMS cells are divided into the MBMS cell groups according to radio propagation time delay, and wherein a diameter of MBMS cell group coverage is equal to or slightly less than a distance with radio propagation in a long CP window, said method comprising the following steps carried out by the E-NodeBs within a cell group: - channel coding and modulating said MBMS traffic data; - determining an MBMS cell group-specific scrambling code; - determining an MBMS cell-specific scrambling code; - with respect to the channel coded and modulated MBMS traffic data, scrambling said MBMS traffic data with said MBMS cell group-specific scrambling code, and adding a reference signal scrambled with said MBMS cell group-specific scrambling code and a reference signal scrambled with said MBMS cell-specific scrambling code; and - sending the scrambled MBMS reference signals and the scrambled MBMS traffic data. - channel coding and modulating said MBMS traffic data; - determining an MBMS cell group-specific scrambling code; - determining an MBMS cell-specific scrambling code; - with respect to the channel coded and modulated MBMS traffic data, scrambling said MBMS traffic data with said MBMS cell group-specific scrambling code, and adding a reference signal scrambled with said MBMS cell group-specific scrambling code and a reference signal scrambled with said MBMS cell-specific scrambling code; and - sending the scrambled MBMS reference signals and the scrambled MBMS traffic data.
A legged mobile robot of a fleet of interacting autonomous legged mobile robots, for sorting processed parts of a workpiece, which has been processed by a workpiece processing machine, in particular a sheet workpiece processing machine in form of a laser cutting machine, with: - A control unit (DCU, CCU), which is configured for providing control instructions for controlling the mobile robot, wherein a set of robot-specific control instructions is generated autonomously and locally on each of the mobile robot of the fleet of robots for the respective mobile robot for gripping processed parts from a working table and for transporting the gripped processed parts to a target destination in a cooperating manner; - A sensor system with first sensors for coordinated navigation with other mobile robots of the fleet and with second sensors for gripping; - A network interface to a network for communication with other mobile robots; and - A gripping and movement unit for gripping at least one processed part from the working table and for moving the mobile robot for sorting the gripped processed part to a target destination. - A control unit (DCU, CCU), which is configured for providing control instructions for controlling the mobile robot, wherein a set of robot-specific control instructions is generated autonomously and locally on each of the mobile robot of the fleet of robots for the respective mobile robot for gripping processed parts from a working table and for transporting the gripped processed parts to a target destination in a cooperating manner; - A sensor system with first sensors for coordinated navigation with other mobile robots of the fleet and with second sensors for gripping; - A network interface to a network for communication with other mobile robots; and - A gripping and movement unit for gripping at least one processed part from the working table and for moving the mobile robot for sorting the gripped processed part to a target destination.
A method of producing a ready-to-use hydrophilic catheter assembly comprising the steps of: - providing a gas impermeable package having a cavity therein; - coating at least a portion of a catheter with a hydrophilic coating; - placing the hydrophilic coated catheter in the cavity of the package; - placing an amount of liquid in the cavity of the package; - sealing the cavity with the catheter and liquid in the cavity of the package; characterized by - aging the catheter assembly for a predetermined period after the completion of the above-mentioned steps and thereby delaying distribution of the package after sealing the cavity with the catheter and liquid therein for a period of time sufficient: i) for the production of a vapor atmosphere within the cavity; and ii) for the vapor atmosphere to complete the activation of the hydrophilic coated catheter. - providing a gas impermeable package having a cavity therein; - coating at least a portion of a catheter with a hydrophilic coating; - placing the hydrophilic coated catheter in the cavity of the package; - placing an amount of liquid in the cavity of the package; - sealing the cavity with the catheter and liquid in the cavity of the package; - aging the catheter assembly for a predetermined period after the completion of the above-mentioned steps and thereby delaying distribution of the package after sealing the cavity with the catheter and liquid therein for a period of time sufficient: i) for the production of a vapor atmosphere within the cavity; and ii) for the vapor atmosphere to complete the activation of the hydrophilic coated catheter. i) for the production of a vapor atmosphere within the cavity; and ii) for the vapor atmosphere to complete the activation of the hydrophilic coated catheter.
A lighting device comprising: a housing; at least one light source module disposed on a lower surface of the housing; and a power section casing located at an upper portion of the housing, and accommodating a power unit for controlling and supplying power to the light source module, wherein: the power section casing is divided into a power section region for accommodating the power unit and at least one junction region for providing a space in which the power unit is electrically connected to an external power source; and the junction region comprises therein a cable fixing section for fixing an external power source cable connected to the external power source is formed in the junction region, and a ground section electrically connected to the power unit, characterized in that the junction regions are located at both ends of the power section region; and the junction regions are coupled to the upper portion of the housing, and the power section region is spaced apart from the housing, wherein the power section casing comprises: an upper body having the power section region formed at a center thereof and the junction regions formed at both ends thereof; a lower body supporting the power unit and coupled to a lower portion of the power section region; and partition walls dividing the power section region and the junction regions. a housing; at least one light source module disposed on a lower surface of the housing; and a power section casing located at an upper portion of the housing, and accommodating a power unit for controlling and supplying power to the light source module, wherein: the power section casing is divided into a power section region for accommodating the power unit and at least one junction region for providing a space in which the power unit is electrically connected to an external power source; and the junction region comprises therein a cable fixing section for fixing an external power source cable connected to the external power source is formed in the junction region, and a ground section electrically connected to the power unit, the power section casing is divided into a power section region for accommodating the power unit and at least one junction region for providing a space in which the power unit is electrically connected to an external power source; and the junction region comprises therein a cable fixing section for fixing an external power source cable connected to the external power source is formed in the junction region, and a ground section electrically connected to the power unit, the junction regions are located at both ends of the power section region; and the junction regions are coupled to the upper portion of the housing, and the power section region is spaced apart from the housing, an upper body having the power section region formed at a center thereof and the junction regions formed at both ends thereof; a lower body supporting the power unit and coupled to a lower portion of the power section region; and partition walls dividing the power section region and the junction regions.
Window or door element with a metal frame and an insulating glass pane inserted in the frame, wherein an outer and/or inner surface of the frame is each formed by a flat metal frame (4, 5), wherein an insulating body is positioned between frame elements (4, 5) in a sandwich construction, wherein an inner cut-out of an outer flat metal frame for forming a circumferential abutment web for the insulating glass pane is slightly smaller than an inner cut-out of an inner flat metal frame, wherein the insulating glass pane can be pushed through the inner cut-out of the inner flat metal frame, characterised in that the end faces of the insulating body are equipped with adhesive and/or with adhesive tapes (11, 12) to fix the flat metal frames (4, 5) located thereon, wherein the abutment web, formed by the outer flat metal frame, for the insulating glass pane is equipped with an adhesive and/or with an adhesive tape, wherein an inwardly facing surface of the insulating glass pane is equipped on the outer edge side with an adhesive and/or with an adhesive tape for fixing a glass holding frame.
A system for switching power to a resistive load for an intake air heating system for an internal combustion engine, comprising: an input that receives a control signal; a gate drive module that generates a gate drive signal based on the control signal, a power module that switches the power to the resistive load based on the gate drive signal characterized in that the gate drive module includes a first charge pump module (U1, U3A, U3B) that generates a first voltage, a bootstrap charge pump module that generates a second voltage, wherein the first charge pump module (U1, U3A, U3B) generates the gate drive signal that has an amplitude based on the second voltage and a sensed voltage at the resistive load, the load being switched powered. an input that receives a control signal; a gate drive module that generates a gate drive signal based on the control signal, a power module that switches the power to the resistive load based on the gate drive signal characterized in that the gate drive module includes a first charge pump module (U1, U3A, U3B) that generates a first voltage, a bootstrap charge pump module that generates a second voltage, wherein the first charge pump module (U1, U3A, U3B) generates the gate drive signal that has an amplitude based on the second voltage and a sensed voltage at the resistive load, the load being switched powered.
A magnet apparatus for generating a high gradient and/or high strength magnetic field, the magnet apparatus comprising: two permanent magnets (2,4) located side-by-side with oppositely oriented magnetic field polarities and end surfaces of opposite polarities next to one another, thereby defining a joining line between the two permanent magnets (2,4), wherein the magnetic anisotropy of the permanent magnets (2,4) exceeds the magnetic induction of the material of the permanent magnets (2,4); and a mask or masks on a first end of each of the adjacent permanent magnets (2,4), the mask(s) comprising a non-retentive material covering adjacent end surfaces of the two permanent magnets (2,4) with a gap along said joining line between the two permanent magnets (2,4) to form a zone of high-gradient magnetic field above the joining line; characterized in that the mask(s) are embedded within the permanent magnets (2,4) and/or have a varying thickness and optionally wherein the mask(s) have a maximum thickness greater than a tenth of the thickness of the respective permanent magnet (2,4). two permanent magnets (2,4) located side-by-side with oppositely oriented magnetic field polarities and end surfaces of opposite polarities next to one another, thereby defining a joining line between the two permanent magnets (2,4), wherein the magnetic anisotropy of the permanent magnets (2,4) exceeds the magnetic induction of the material of the permanent magnets (2,4); and a mask or masks on a first end of each of the adjacent permanent magnets (2,4), the mask(s) comprising a non-retentive material covering adjacent end surfaces of the two permanent magnets (2,4) with a gap along said joining line between the two permanent magnets (2,4) to form a zone of high-gradient magnetic field above the joining line; characterized in that the mask(s) are embedded within the permanent magnets (2,4) and/or have a varying thickness and optionally wherein the mask(s) have a maximum thickness greater than a tenth of the thickness of the respective permanent magnet (2,4).
Method for detecting winding short-circuits in an electric machine, with the steps of: a) arranging a coil in an air gap arranged between the rotor and the stator of the electric machine; b) calculating a minimum duration (t min) of two immediately sequential zero crossings of a signal curve U(t) generated by means of the coil, taking the rotational frequency and the number of pole pairs of the electric machine into account; c) recording the signal curve U(t) generated by means of the coil during operation of the electric machine, having at least the duration of one revolution of the rotor; characterized by the further steps of d) determining the zero crossings of the signal curve U(t) and storing the times of said zero crossings; e) determining the zero crossings (7, 8) of the signal curve U(t)-c corrected by an offset c, and identifying at least one pair (12, 13) of immediately sequential zero crossings (7, 8), the time interval of which is longer than the minimum duration (tmin), where c is not equal to zero; f) in the event that a pair (12, 13) is not identified in step e), repeating step e) until a pair (12, 13) is identified, wherein the offset c is varied in the direction from the zero point to a global extreme value of the signal curve U(t); g) identifying at least one of the two stored times which lie between and closest in time to the pair (12, 13), and; h) extracting two half-waves (2, 3) from the signal curve U(t) using the times identified in step g), wherein each half-wave (2, 3) corresponds to half a revolution of the rotor; i) comparing the two half-waves (2, 3). a) arranging a coil in an air gap arranged between the rotor and the stator of the electric machine; b) calculating a minimum duration (t min) of two immediately sequential zero crossings of a signal curve U(t) generated by means of the coil, taking the rotational frequency and the number of pole pairs of the electric machine into account; c) recording the signal curve U(t) generated by means of the coil during operation of the electric machine, having at least the duration of one revolution of the rotor; characterized by the further steps of d) determining the zero crossings of the signal curve U(t) and storing the times of said zero crossings; e) determining the zero crossings (7, 8) of the signal curve U(t)-c corrected by an offset c, and identifying at least one pair (12, 13) of immediately sequential zero crossings (7, 8), the time interval of which is longer than the minimum duration (tmin), where c is not equal to zero; f) in the event that a pair (12, 13) is not identified in step e), repeating step e) until a pair (12, 13) is identified, wherein the offset c is varied in the direction from the zero point to a global extreme value of the signal curve U(t); g) identifying at least one of the two stored times which lie between and closest in time to the pair (12, 13), and; h) extracting two half-waves (2, 3) from the signal curve U(t) using the times identified in step g), wherein each half-wave (2, 3) corresponds to half a revolution of the rotor; i) comparing the two half-waves (2, 3).
Urea sensor protection assembly for protecting at least one fluid sensor of a fluid sensor system in a urea solution, against bubbles and/or particles, wherein the assembly comprises a housing for receiving the at least one fluid sensor, wherein the housing comprises a bottom wall and a top wall which are spaced apart from each other in a vertical direction, wherein the bottom wall is provided with at least one lower flow-through opening and the top wall is provided with at least one upper flow-through opening, wherein the lower and the upper flow-through openings (17, 19) are covered on an outside of the housing by a lower and an upper cover member (23, 25), respectively, wherein each cover member (23, 25) is spaced apart from the corresponding flow-through opening (17, 19) in the vertical direction and provides at least one outer flow-through opening (27, 29), and wherein at least one continuous flow-through passage extends between the at least one lower outer flow-through opening and the at least one upper outer flow-through opening, characterized in that the housing is further provided with at least one bubble outlet opening that opens the housing to an outside of the assembly.