mhurhangee/ep-ind-claims huggingface dataset:
Method for producing printed products, in particular softcover books, with integrated cover, wherein the method comprises at least the following steps: (a) printing of a paper web (10, 10', 10'') or individually supplied paper sheets, preferably by means of digital printing; (b) optional application of an adhesive to the paper web (10, 10', 10'') or the paper sheets; (c) single or multiple folding and cutting of the paper web (10, 10', 10'') to form signatures (7, 7') or else single or multiple folding of the paper sheets to form signatures (7, 7'); (d) optional application of an adhesive (14, 14') to the signatures (7, 7'); (e) stacking of the signatures (7, 7') to form a signature stack (13, 13') with at least one top and one bottom signature; characterized by (f) folding open the top sheet of the top signature or else the bottom sheet of the bottom signature (19, 19') and applying an adhesive layer (16, 16', 21, 22, 23, 24, 25) in at least the area of the folded-open sheet, which is intended to comprise at least the spine (18, 18') and/or an area of the signature stack (13, 13') adjacent to the spine; (g) turning over the sheet (19, 19') folded open and provided with the adhesive layer around the spine of the signature stack (13, 13'), so that the cover for the printed product is formed; and (h) optional pressing of the cover. (a) printing of a paper web (10, 10', 10'') or individually supplied paper sheets, preferably by means of digital printing; (b) optional application of an adhesive to the paper web (10, 10', 10'') or the paper sheets; (c) single or multiple folding and cutting of the paper web (10, 10', 10'') to form signatures (7, 7') or else single or multiple folding of the paper sheets to form signatures (7, 7'); (d) optional application of an adhesive (14, 14') to the signatures (7, 7'); (e) stacking of the signatures (7, 7') to form a signature stack (13, 13') with at least one top and one bottom signature; characterized by (f) folding open the top sheet of the top signature or else the bottom sheet of the bottom signature (19, 19') and applying an adhesive layer (16, 16', 21, 22, 23, 24, 25) in at least the area of the folded-open sheet, which is intended to comprise at least the spine (18, 18') and/or an area of the signature stack (13, 13') adjacent to the spine; (g) turning over the sheet (19, 19') folded open and provided with the adhesive layer around the spine of the signature stack (13, 13'), so that the cover for the printed product is formed; and (h) optional pressing of the cover.
A diagnostic device for a communications network; in which the communications network comprises a customer communications network located at a customer location and connected by a customer communications link to a communications service provider network remote from the customer location; in which the diagnostic device comprises a network monitoring interface arranged to monitor operation of the customer communications network; a processor arranged to detect faults in the operation of the customer communications network, a store for storing records of detected faults; and the processor arranged to store records of detected faults in the store and to generate a report on a detected fault based on the stored records; in which the diagnostic device is arranged to be co-located with the customer communications network and further comprises: a first communications interface (412, 414) arranged to send to the communications service provider network via the customer communications link, the report generated on the detected fault; and characterised by a second communications interface arranged to send to the communications service provider network via a second communications link other than the customer communications link, the report generated on the detected fault; in which at least one of the first and the second communications interfaces are arranged to send to the communications service provider network a prompt to initiate testing from the communications service provider network of at least one of the customer communications network and the customer communications link. a first communications interface (412, 414) arranged to send to the communications service provider network via the customer communications link, the report generated on the detected fault; and characterised by a second communications interface arranged to send to the communications service provider network via a second communications link other than the customer communications link, the report generated on the detected fault; in which at least one of the first and the second communications interfaces are arranged to send to the communications service provider network a prompt to initiate testing from the communications service provider network of at least one of the customer communications network and the customer communications link.
A method for manufacturing an insulated conductive pattern, the method comprising: a) forming a conductive film with a thickness of 300 nm on a glass substrate; b) forming an insulation layer pattern on the conductive film; c) forming a conductive pattern by etching the conductive film by using the insulation layer pattern as a mask; and d) reforming the insulation layer pattern for covering the conductive pattern, wherein in step b), the forming of the insulation layer pattern is a method selected from an offset printing method, a reverse offset printing method, and a gravure printing method, wherein in step c), after the etching of the conductive film, an undercut is formed in an underpart of an edge of the insulation layer pattern, wherein in step c), an etching time of the conductive film is a just-etching time to a time that is delayed by 2000% as compared to the just-etching time, wherein a taper angle of the conductive pattern is more than 0 to less than 90°, wherein a taper angle of the insulation layer pattern is more than 0 to less than 90°, wherein a line width of the conductive pattern is 100 micrometers or less, wherein the insulation layer pattern is not removed so that the conductive pattern is insulated by the reformed insulation layer pattern during its use as an electrode of an electronic element or lighting, and wherein the insulation layer pattern includes one or more polymer selected from imide-based polymer, acryl-based polymer, and novolac-based polymer; or a combination or copolymer of two or more selected from imide-based monomer, and acryl-based monomer. a) forming a conductive film with a thickness of 300 nm on a glass substrate; b) forming an insulation layer pattern on the conductive film; c) forming a conductive pattern by etching the conductive film by using the insulation layer pattern as a mask; and d) reforming the insulation layer pattern for covering the conductive pattern,
A deep fryer comprising an infeed of foodstuff to be deep fried, a trough, a paddle assembly comprising paddles touching a surface of an oil housed in the trough and being located in the vicinity of the infeed for ensuring removal of the foodstuff having been fed into the deep fryer, wherein a submerging belt is located at a downstream side of the paddle assembly and adapted to submerge foodstuff to be deep fried and leaving the paddle assembly, the deep fryer further comprising an outlet belt arranged to lift deep fried foodstuff from the oil after a deep frying operation, characterised in that the deep fryer further comprises a stirring assembly arranged to be traversed over the length of the trough when the deep fryer is used for batch-wise deep frying of foodstuff.
Device for centring and rotationally guiding a turbomachine shaft, comprising: - a rolling-element bearing comprising an outer race defining a bearinghousing axis; - a bearing support comprising an annular body having a radially inner annular surface surrounding the outer race; - a connecting structure connecting the outer race to the bearing support and comprising an elastically deformable structure by means of which the connecting structure is connected to the bearing support; and - a first cavity formed between the radially inner annular surface of the annular body and the outer race to receive a first damping fluid film; characterised in that it further comprises at least one second cavity (82, 82') formed between the bearing support and the connecting structure, and arranged radially outwards with respect to the radially inner annular surface of the annular body, to receive a second respective damping fluid film (F2, F2'). - a rolling-element bearing comprising an outer race defining a bearinghousing axis; - a bearing support comprising an annular body having a radially inner annular surface surrounding the outer race; - a connecting structure connecting the outer race to the bearing support and comprising an elastically deformable structure by means of which the connecting structure is connected to the bearing support; and - a first cavity formed between the radially inner annular surface of the annular body and the outer race to receive a first damping fluid film; characterised in that it further comprises at least one second cavity (82, 82') formed between the bearing support and the connecting structure, and arranged radially outwards with respect to the radially inner annular surface of the annular body, to receive a second respective damping fluid film (F2, F2').
A length extending module for an endovascular delivery device, the length extending module being able to be releasably fastened to a dilator of an endovascular delivery device and arranged to extend proximally of the dilator in use, the length extending module including a distal end which is able to be releasably fastened to the dilator and a proximal end which in use extends out of a patient, the length extending module including a first marker and a second marker, the first marker being at the distal end of the length extending module and the second marker being at the proximal end of the length extending module, the first marker and the second marker being at the same relative circumferential position whereby the rotational position of the endovascular delivery device within the patient can be determined by the observation of the position of the second marker.
An apparatus comprising: a plurality of source storage elements; a plurality of destination storage elements; a plurality of power-gated gates coupled between the source storage elements and supplying the destination storage elements; one or more power gates (201, 202) coupled in series between a power supply node and the power-gated gates, the power gates to reduce current flow through the power-gated gates in response to a control signal being deasserted indicating a sleep state and to allow current flow through the power-gated gates in response to the control signal being asserted to indicate a wake state; and control logic (205, 208) coupled to receive one or more source clock enable signals (221, 223) that enable clocking one or more of the source storage elements, and to receive at least one destination clock enable signal, the control logic configured to cause the control signal to indicate the wake state in response to assertion of any of the source clock enable signals, and wherein the control logic is further configured to cause the control signal to indicate the sleep state only after all of the one or more of the source clock enable signals are deasserted and the destination clock enable signal has been asserted thereby allowing the destination storage elements to be clocked to consume values supplied by the power-gated gates. a plurality of source storage elements; a plurality of destination storage elements; a plurality of power-gated gates coupled between the source storage elements and supplying the destination storage elements; one or more power gates (201, 202) coupled in series between a power supply node and the power-gated gates, the power gates to reduce current flow through the power-gated gates in response to a control signal being deasserted indicating a sleep state and to allow current flow through the power-gated gates in response to the control signal being asserted to indicate a wake state; and control logic (205, 208) coupled to receive one or more source clock enable signals (221, 223) that enable clocking one or more of the source storage elements, and to receive at least one destination clock enable signal, the control logic configured to cause the control signal to indicate the wake state in response to assertion of any of the source clock enable signals, and wherein the control logic is further configured to cause the control signal to indicate the sleep state only after all of the one or more of the source clock enable signals are deasserted and the destination clock enable signal has been asserted thereby allowing the destination storage elements to be clocked to consume values supplied by the power-gated gates.
An aerosol-generating device configured for use in heating an aerosol-generating article so as to generate an inhalable aerosol from an aerosol-forming substrate of the aerosol-generating article; the aerosol-generating device comprising a housing; the housing comprising a cavity configured to receive the aerosol-generating article; the housing adapted to define a cooling air flow path extending from outside of the housing, through an interior of the housing, to an air-permeable portion of a wall of the cavity; wherein the wall of the cavity is tubular, the air-permeable portion of the wall of the cavity comprising at least one annular air-permeable band, the annular air-permeable band configured to radially channel an air flow from the cooling air flow path into the cavity around the periphery of the tubular wall of the cavity. the aerosol-generating device comprising a housing; the housing comprising a cavity configured to receive the aerosol-generating article; the housing adapted to define a cooling air flow path extending from outside of the housing, through an interior of the housing, to an air-permeable portion of a wall of the cavity; wherein the wall of the cavity is tubular, the air-permeable portion of the wall of the cavity comprising at least one annular air-permeable band, the annular air-permeable band configured to radially channel an air flow from the cooling air flow path into the cavity around the periphery of the tubular wall of the cavity.
A baler for forming a bale, comprising: a frame supporting a bale chamber; an axle connected to the frame at a first location and spaced apart from the frame at a second location; a sensor (40, 42, 44, 46) positioned to measure the deflection of an axle, the deflection of the axle changing based upon a weight of the bale; characterized in that at least one overload stop positioned on one of the axle and the frame to limit the deflection of the axle relative to the frame. a frame supporting a bale chamber; an axle connected to the frame at a first location and spaced apart from the frame at a second location; a sensor (40, 42, 44, 46) positioned to measure the deflection of an axle, the deflection of the axle changing based upon a weight of the bale; characterized in that at least one overload stop positioned on one of the axle and the frame to limit the deflection of the axle relative to the frame.
A system for programming reconfigurable modules in a pipelined video processor, the system comprising: a reconfigurable hardware module that forms part of a pipeline for processing image data, the image data comprising image frames; a shadow register for storing module parameters; a controller for applying said module parameters to the reconfigurable hardware module; and an application register within the reconfigurable hardware module for receiving said module parameters; wherein the reconfigurable hardware module is arranged to apply a first set of module parameters to a first frame in the module and second set of module parameters to a second frame in the module at different times in accordance with the propagation of an image frame boundary through the pipeline; and the reconfigurable hardware module is arranged to receive the first and second sets of module parameters from the shadow register. a reconfigurable hardware module that forms part of a pipeline for processing image data, the image data comprising image frames; a shadow register for storing module parameters; a controller for applying said module parameters to the reconfigurable hardware module; and an application register within the reconfigurable hardware module for receiving said module parameters; wherein the reconfigurable hardware module is arranged to apply a first set of module parameters to a first frame in the module and second set of module parameters to a second frame in the module at different times in accordance with the propagation of an image frame boundary through the pipeline; and the reconfigurable hardware module is arranged to receive the first and second sets of module parameters from the shadow register.
A method performed by a distributed unit, DU, of a next generation node B, gNB, in a wireless communication system, the gNB connected to a user equipment, UE, according to dual connectivity, DC, with an evolved node B, eNB (41, 61, 111, 141, 151), the method comprising: transmitting, to a central unit, CU, of the gNB, a UE context modification required message to request an update of a UE context, the UE context modification required message including: a gNB-CU UE identifier, ID, for identifying the UE within the CU, and a gNB-DU UE ID for identifying the UE within the DU; receiving, from the CU, a UE context modification refuse message indicating that the UE context modification is unsuccessful, the UE context modification refuse message including: the gNB-CU UE ID, the gNB-DU UE ID, and information on a cause of the unsuccessful UE context modification, and receiving, from the CU, a UE context modification request message including a complete indicator for indicating that a secondary gNB (SgNB) change procedure between the eNB (41, 61, 111, 141, 151) and the gNB has been completed, to cause data forwarding to a target node and release of the UE context. transmitting, to a central unit, CU, of the gNB, a UE context modification required message to request an update of a UE context, the UE context modification required message including: a gNB-CU UE identifier, ID, for identifying the UE within the CU, and a gNB-DU UE ID for identifying the UE within the DU; a gNB-CU UE identifier, ID, for identifying the UE within the CU, and a gNB-DU UE ID for identifying the UE within the DU; receiving, from the CU, a UE context modification refuse message indicating that the UE context modification is unsuccessful, the UE context modification refuse message including: the gNB-CU UE ID, the gNB-DU UE ID, and information on a cause of the unsuccessful UE context modification, and the gNB-CU UE ID, the gNB-DU UE ID, and information on a cause of the unsuccessful UE context modification, and receiving, from the CU, a UE context modification request message including a complete indicator for indicating that a secondary gNB (SgNB) change procedure between the eNB (41, 61, 111, 141, 151) and the gNB has been completed, to cause data forwarding to a target node and release of the UE context.
Turbocharger - comprising a compressor having a compressor wheel which is fixed to one end of a rotor shaft; and - comprising a turbine having a turbine rotor which comprises a turbine wheel having a fastening portion which can be connected to a connection part of the rotor shaft by means of a connection device (14, 15), characterized - in that the connection device (14, 15) is embodied as a combination of a press connection and a positive-locking connection, wherein the cross section (Q1, Q1', Q1") of the connection part is embodied as an orbiform, - in that the fastening portion is embodied as a bore and the connection part is embodied as a journal, or - in that the fastening portion is embodied as a journal and the connection part is embodied as a bore, - and in that the bore is provided with a vent bore. - comprising a compressor having a compressor wheel which is fixed to one end of a rotor shaft; and - comprising a turbine having a turbine rotor which comprises a turbine wheel having a fastening portion which can be connected to a connection part of the rotor shaft by means of a connection device (14, 15), - in that the connection device (14, 15) is embodied as a combination of a press connection and a positive-locking connection, wherein the cross section (Q1, Q1', Q1") of the connection part is embodied as an orbiform, - in that the fastening portion is embodied as a bore and the connection part is embodied as a journal, or - in that the fastening portion is embodied as a journal and the connection part is embodied as a bore, - and in that the bore is provided with a vent bore.
A vehicle lamp comprising: an outer housing comprising a housing having an opening and a translucent cover configured to close the opening; a substrate disposed in the outer housing; a camera module comprising an image pickup element and disposed on the substrate; and a light emitting element provided as a light source and disposed on the substrate, wherein a pressing member is disposed in the outer housing and mounted to the housing, wherein the substrate is pressed by the pressing member and is thus positioned relative to the housing, and wherein a part of the pressing member functions as a light shield part for shielding a part of a light to be emitted from the light emitting element. an outer housing comprising a housing having an opening and a translucent cover configured to close the opening; a substrate disposed in the outer housing; a camera module comprising an image pickup element and disposed on the substrate; and a light emitting element provided as a light source and disposed on the substrate, wherein a pressing member is disposed in the outer housing and mounted to the housing, wherein the substrate is pressed by the pressing member and is thus positioned relative to the housing, and wherein a part of the pressing member functions as a light shield part for shielding a part of a light to be emitted from the light emitting element.
Method for identifying a characteristic curve (33, 34) representing a steady-state relationship of an input/output behaviour, wherein, at intervals of time, a pair of values of an input and output at the particular time is assigned to a segment in the characteristic curve (33, 34), wherein the output at the particular time is compared with an output that is stored in the characteristic curve and wherein the output that is stored in the characteristic curve (33, 34) is corrected or adapted, characterized in that derivatives of the inputs and outputs are calculated and filtered.