mhurhangee/patent-ind-claim-en huggingface dataset:
A power supply unit comprising: a battery assembly constructed of a plurality of batteries which are overlapped so that electrodes are arranged in two rows; a plurality of bus bars attached between the electrodes of the battery next to each other, connecting between the electrodes , and thereby connecting the plurality of the batteries in series; and a plate having a plurality of tubular first receiving portions coupled to each other and respectively receiving the bus bars connecting between the electrodes of one of the two rows, a plurality of tubular second receiving portions jointed to each other and respectively receiving the bus bars connecting between the electrodes of the other thereof, and a plate main body coupling the first and second receiving portions to each other, wherein a plurality of insulating covers formed in the same shape and size is arranged in a line on the plate along an overlapping direction (X) of the battery , each the insulating cover being provided so as to cover both the first and second receiving portions , characterized in that the insulating cover has a pair of slits which is arranged on the bottom side of a projection , spaced in a direction (Y), and located along the overlapping direction (X), whereby the projection projects outward in the overlapping direction (X) and is arranged in the one side of the insulating cover of the overlapping direction (X), such that the insulating cover between the pair of slits is flexibly arranged in the direction (Z), and an electric wire is guided from under it. a battery assembly constructed of a plurality of batteries which are overlapped so that electrodes are arranged in two rows; a plurality of bus bars attached between the electrodes of the battery next to each other, connecting between the electrodes , and thereby connecting the plurality of the batteries in series; and a plate having a plurality of tubular first receiving portions coupled to each other and respectively receiving the bus bars connecting between the electrodes of one of the two rows, a plurality of tubular second receiving portions jointed to each other and respectively receiving the bus bars connecting between the electrodes of the other thereof, and a plate main body coupling the first and second receiving portions to each other, wherein a plurality of insulating covers formed in the same shape and size is arranged in a line on the plate along an overlapping direction (X) of the battery , each the insulating cover being provided so as to cover both the first and second receiving portions , characterized in that the insulating cover has a pair of slits which is arranged on the bottom side of a projection , spaced in a direction (Y), and located along the overlapping direction (X), whereby the projection projects outward in the overlapping direction (X) and is arranged in the one side of the insulating cover of the overlapping direction (X), such that the insulating cover between the pair of slits is flexibly arranged in the direction (Z), and an electric wire is guided from under it.
A display method for use in a vehicle , comprising: obtaining information associated with a vehicle and image data for a region ahead of the vehicle ; and displaying a graphical representation of a state of at least one component of the vehicle having one or more characteristics based on the information associated with the vehicle, and a representation of the image data, wherein the representations are displayed translucently and arranged to overlie a portion of the vehicle , such that the portion of the vehicle is partly visible through the displayed representations and appears at least partly transparent. obtaining information associated with a vehicle and image data for a region ahead of the vehicle ; and displaying a graphical representation of a state of at least one component of the vehicle having one or more characteristics based on the information associated with the vehicle, and a representation of the image data, wherein the representations are displayed translucently and arranged to overlie a portion of the vehicle , such that the portion of the vehicle is partly visible through the displayed representations and appears at least partly transparent.
Method for locating an equipment in a network, the equipment being situated in a coverage zone of a first network, A, of a first country, a security module associated with the equipment storing a first subscriber identification number, IMSI A , for identifying a subscriber in the first network and at least one second subscriber identification number, IMSI B , for identifying a subscriber in a second network, B, of a second country, roaming being authorized, for a subscriber of the second network, in a third network, A', of the first country, said method comprising the following steps, which are implemented by the security module: - receiving (E3), from the equipment, an event associated with an update of a location datum for locating the equipment in the first network, said event comprising the new location datum, - detecting (E4), on the basis of the new location datum, an absence of normal service in the first network, - switching (E5, E6, E7) from the first network to the second network, said switching triggering an operation of locating the equipment, by means of the second identification number, in the third network. - receiving (E3), from the equipment, an event associated with an update of a location datum for locating the equipment in the first network, said event comprising the new location datum, - detecting (E4), on the basis of the new location datum, an absence of normal service in the first network, - switching (E5, E6, E7) from the first network to the second network, said switching triggering an operation of locating the equipment, by means of the second identification number, in the third network.
Precipitated silica comprising units of formula [SiO 4/2 ] and units of formula [(CH 3 )SiO 3/2 ] and characterised in that in the 13 C NMR spectrum of the precipitated silica exhibits two resonance peaks assigned to the methyl group: a first one in the region between -2.0 and -5.0 ppm and a second one in the region between -5.5 and -9.0 ppm and in that the ratio (intensity of the second peak)/(intensity of the first peak) is greater than 0.40.
A method for processing cell information in an Enhanced Forward Access Channel, E-FACH, state, implemented in a terminal and comprising: when the terminal in an E-FACH state determines that a working carrier frequency thereof is a subordinate carrier frequency, establishing a neighbor cell list for the terminal itself using cell information in received system information; or establishing a neighbor cell list for the terminal itself using cell information in received system information, and updating the established neighbor cell list according to cell information in a received measurement control message, wherein the step of establishing the neighbor cell list for the terminal itself using the cell information in the received system information comprises: adding, by the terminal, an intra-frequency cell in the cell information of the system information to an inter-frequency neighbor cell list of the terminal, adding, by the terminal, a cell having a same working frequency as that of the terminal itself in inter-frequency cells in the cell information of the system information to an intra-frequency neighbor cell list of the terminal itself, and adding, by the terminal, a cell having a different working frequency from that of the terminal itself in the inter-frequency cells to the inter-frequency neighbor cell list of the terminal itself. when the terminal in an E-FACH state determines that a working carrier frequency thereof is a subordinate carrier frequency, establishing a neighbor cell list for the terminal itself using cell information in received system information; or establishing a neighbor cell list for the terminal itself using cell information in received system information, and updating the established neighbor cell list according to cell information in a received measurement control message, wherein the step of establishing the neighbor cell list for the terminal itself using the cell information in the received system information comprises: adding, by the terminal, an intra-frequency cell in the cell information of the system information to an inter-frequency neighbor cell list of the terminal, adding, by the terminal, a cell having a same working frequency as that of the terminal itself in inter-frequency cells in the cell information of the system information to an intra-frequency neighbor cell list of the terminal itself, and adding, by the terminal, a cell having a different working frequency from that of the terminal itself in the inter-frequency cells to the inter-frequency neighbor cell list of the terminal itself.
A furniture unit , comprising: a frame formed of a plurality of struts connected by a plurality of vertex joint components , wherein the struts define a number of openings within which partition walls are locatable; a connector attachable to the frame in a first coupling direction , the connector comprising: a first end and, opposite thereto, a second end ; wherein the first end of the connector comprises an end face and a protrusion extending from the end face in the first coupling direction ; and the frame further comprising a first socket configured to receive the protrusion of the first end of the connector in the first coupling direction ; wherein the second end of the connector further comprises a bulbous member ; the furniture unit further comprising a wall anchor to capture the bulbous member to provide an articulated connection, the wall anchor comprising a pair of rails extending substantially parallel and an open-ended channel defined between the rails ; wherein the bulbous member is insertible into the channel and the rails are configured to capture the bulbous member within the channel . a frame formed of a plurality of struts connected by a plurality of vertex joint components , wherein the struts define a number of openings within which partition walls are locatable; a connector attachable to the frame in a first coupling direction , the connector comprising: a first end and, opposite thereto, a second end ; wherein the first end of the connector comprises an end face and a protrusion extending from the end face in the first coupling direction ; and a first end and, opposite thereto, a second end ; wherein the first end of the connector comprises an end face and a protrusion extending from the end face in the first coupling direction ; and the frame further comprising a first socket configured to receive the protrusion of the first end of the connector in the first coupling direction ; wherein the second end of the connector further comprises a bulbous member ; the furniture unit further comprising a wall anchor to capture the bulbous member to provide an articulated connection, the wall anchor comprising a pair of rails extending substantially parallel and an open-ended channel defined between the rails ; wherein the bulbous member is insertible into the channel and the rails are configured to capture the bulbous member within the channel .
An apparatus for use with an induction heating element , the apparatus comprising: a ferromagnetic base arranged to convert magnetic energy from said induction heating element into thermal energy; an induction coil arranged to convert magnetic energy from said induction heating element into electrical energy; a waterproof housing containing: an electronic circuit conductively coupled to the induction coil; and a motor controlled by said electronic circuit using said electrical energy; and an agitator driven by said motor, characterized in that the induction coil is exposed to said magnetic energy through an aperture within said ferromagnetic base or by the induction coil being mounted around the ferromagnetic base . a ferromagnetic base arranged to convert magnetic energy from said induction heating element into thermal energy; an induction coil arranged to convert magnetic energy from said induction heating element into electrical energy; a waterproof housing containing: an electronic circuit conductively coupled to the induction coil; and a motor controlled by said electronic circuit using said electrical energy; and an agitator driven by said motor, characterized in that the induction coil is exposed to said magnetic energy through an aperture within said ferromagnetic base or by the induction coil being mounted around the ferromagnetic base . a motor controlled by said electronic circuit using said electrical energy; and an agitator driven by said motor, characterized in that the induction coil is exposed to said magnetic energy through an aperture within said ferromagnetic base or by the induction coil being mounted around the ferromagnetic base .
A method for performing beamforming by a base station in a wireless communication system, the method comprising: obtaining transmission time proportions allocated to each of a plurality of beam directions based on a number of inner-coverage active user equipments, UEs, , N 0 , and a number of extended-coverage active UEs , N k , belonging to each beam direction, k, of the plurality of beam directions; and performing beamforming to send control information in each of the plurality of beam directions based on the obtained transmission time proportions , wherein the transmission time proportions are determined in proportion to the number of extended-coverage active UEs belonging to each of the plurality of beam directions, and wherein the inner-coverage active UEs are located within a range in which they are able to receive signals from the base station without using a beamforming in which the base station sends signals in beams, and the extended-coverage active UEs are located within a range in which they are able to receive signals from the base station only when using the beamforming at the base station. obtaining transmission time proportions allocated to each of a plurality of beam directions based on a number of inner-coverage active user equipments, UEs, , N 0 , and a number of extended-coverage active UEs , N k , belonging to each beam direction, k, of the plurality of beam directions; and performing beamforming to send control information in each of the plurality of beam directions based on the obtained transmission time proportions , wherein the transmission time proportions are determined in proportion to the number of extended-coverage active UEs belonging to each of the plurality of beam directions, and wherein the inner-coverage active UEs are located within a range in which they are able to receive signals from the base station without using a beamforming in which the base station sends signals in beams, and the extended-coverage active UEs are located within a range in which they are able to receive signals from the base station only when using the beamforming at the base station.
A gas turbine engine component comprising a cooling circuit: the gas turbine engine component (60;102) comprising a blade or a vane having a platform (64;104) connected to an airfoil section (66;106) via a curved surface that comprises a fillet region , the cooling circuit comprising: an inlet (94;110) formed on one side of the fillet region in or near one of the platform (64; 104) and airfoil section (66; 106) to receive a cooling air flow; an outlet (96;114) formed on an opposite side of the fillet region in or near the other of the platform (64; 106) and airfoil section (66; 106) to direct cooling flow along a surface of the gas turbine engine component (60; 102); and at least one cooling path formed within the gas turbine engine component (60; 102) to extend between the inlet (94;110) and the outlet (96;114) and having at least one cooling path portion that matches a curved profile of the fillet region ; characterized in that : the outlet (96;114) is tangential to the curved surface; and the at least one cooling path portion defines an internal curved path surface that curves from the inlet (94;110) to the outlet (96;114). the gas turbine engine component (60;102) comprising a blade or a vane having a platform (64;104) connected to an airfoil section (66;106) via a curved surface that comprises a fillet region , the cooling circuit comprising: an inlet (94;110) formed on one side of the fillet region in or near one of the platform (64; 104) and airfoil section (66; 106) to receive a cooling air flow; an outlet (96;114) formed on an opposite side of the fillet region in or near the other of the platform (64; 106) and airfoil section (66; 106) to direct cooling flow along a surface of the gas turbine engine component (60; 102); and at least one cooling path formed within the gas turbine engine component (60; 102) to extend between the inlet (94;110) and the outlet (96;114) and having at least one cooling path portion that matches a curved profile of the fillet region ; characterized in that : an inlet (94;110) formed on one side of the fillet region in or near one of the platform (64; 104) and airfoil section (66; 106) to receive a cooling air flow; an outlet (96;114) formed on an opposite side of the fillet region in or near the other of the platform (64; 106) and airfoil section (66; 106) to direct cooling flow along a surface of the gas turbine engine component (60; 102); and at least one cooling path formed within the gas turbine engine component (60; 102) to extend between the inlet (94;110) and the outlet (96;114) and having at least one cooling path portion that matches a curved profile of the fillet region ; characterized in that : the outlet (96;114) is tangential to the curved surface; and the at least one cooling path portion defines an internal curved path surface that curves from the inlet (94;110) to the outlet (96;114).
A method at a wireless device configured for operation in a wireless communication network that supports Carrier Aggregation, CA, said method comprising: measuring a difference in signal arrival times at the wireless device for a second cell with respect to a first cell that is, or is associated with, a serving cell of the wireless device ; comparing the difference to a configured value representing a maximum time difference permitted at the wireless device for aggregating the second cell as another serving cell of the wireless device ; and characterized by in response to determining from the comparison that the difference exceeds the maximum time difference, implicitly signaling an out-of-range condition for the second cell by transmitting random access preambles according to a defined pattern. measuring a difference in signal arrival times at the wireless device for a second cell with respect to a first cell that is, or is associated with, a serving cell of the wireless device ; comparing the difference to a configured value representing a maximum time difference permitted at the wireless device for aggregating the second cell as another serving cell of the wireless device ; and characterized by in response to determining from the comparison that the difference exceeds the maximum time difference, implicitly signaling an out-of-range condition for the second cell by transmitting random access preambles according to a defined pattern.
A method for printing a print job, the print job comprising a plurality of plots to be printed on a print media , the method comprising the steps of: - receiving, by a reprographic printing system , the print job; and - causing printing the plots of the print job subsequently on the print media - tracking the completion of a plot in the print job while printing, characterized by the steps of: - after receiving an interruption to the print job, terminating printing the plots of the print job and subsequently determining a print job related reference that is indicative for the interrupted print job, and printing a fiducial on the print media , the fiducial including an identifier uniquely identifying the interrupted print job, thereby defining a print job starting point for resuming the interrupted print job, wherein after the fiducial is printed, the print media is fed until the identifier is slightly before a cutting device arranged at the printing system , wherein the print media is cut substantially transverse to the feeding direction of the printing system , and wherein the print media is rewound to store the identifier on a print media carrier arranged to resume the interrupted print job when the remaining part of the print media comprising the printed fiducial is reintroduced at the printer device . - receiving, by a reprographic printing system , the print job; and - causing printing the plots of the print job subsequently on the print media - tracking the completion of a plot in the print job while printing, characterized by the steps of: - after receiving an interruption to the print job, terminating printing the plots of the print job and subsequently determining a print job related reference that is indicative for the interrupted print job, and printing a fiducial on the print media , the fiducial including an identifier uniquely identifying the interrupted print job, thereby defining a print job starting point for resuming the interrupted print job,
A method for fabrication, comprising: providing a substrate having an upper surface with pattern of one or more recesses formed therein; directing a laser beam to impinge on a donor film so as to eject droplets of a fluid from the donor film by laser-induced forward transfer (LIFT) into the one or more recesses , wherein the fluid hardens within the one or more recesses to form a solid piece having a shape defined by the one or more recesses ; and removing the substrate from the solid piece. providing a substrate having an upper surface with pattern of one or more recesses formed therein; directing a laser beam to impinge on a donor film so as to eject droplets of a fluid from the donor film by laser-induced forward transfer (LIFT) into the one or more recesses , wherein the fluid hardens within the one or more recesses to form a solid piece having a shape defined by the one or more recesses ; and removing the substrate from the solid piece.
A method comprising: receiving a first video data stream from a first surveillance camera in a monitored region via a cloud network ; a first user interface device of or coupled to a first virtual reality headset displaying the first video data stream; the first user interface device receiving first user input corresponding to a movement of a first user's body to navigate the first video data stream and simulate the first user navigating the monitored region from within the monitored region; the first user interface device displaying a status of one or more access or intrusion devices in the monitored region; and the first user interface device receiving second user input and transmitting an instructions signal corresponding to the second user input to the one or more access or intrusion devices in the monitored region, via the cloud network, to control the one or more access or intrusion devices with the first virtual reality headset. receiving a first video data stream from a first surveillance camera in a monitored region via a cloud network ; a first user interface device of or coupled to a first virtual reality headset displaying the first video data stream; the first user interface device receiving first user input corresponding to a movement of a first user's body to navigate the first video data stream and simulate the first user navigating the monitored region from within the monitored region; the first user interface device displaying a status of one or more access or intrusion devices in the monitored region; and the first user interface device receiving second user input and transmitting an instructions signal corresponding to the second user input to the one or more access or intrusion devices in the monitored region, via the cloud network, to control the one or more access or intrusion devices with the first virtual reality headset.