mhurhangee/ep-ind-claims huggingface dataset:
A method of printing an image using a printing system comprising at least first and second overlapping printhead segments, the method comprising the steps of: (i) identifying a strip of the image to be printed in an overlap region of the first and second printhead segments; (ii) determining, using a seam carving algorithm, a continuous seam in the strip based on a cost function, the cost function including at least one parameter selected from the group consisting of: (a) minimizing a density of printed ink along the seam; and (b) maximizing a luminance along the seam; and (iii) printing the image using the first and second printhead segments, the printing comprising stitching the first and second printhead segments across the seam, wherein: the strip contains variable image content and the seam has a varying position within the strip; and the seam is determined from a row-by-row analysis of the image content contained in the strip, each row having a stitch point determined by the cost function; and characterized in that: the scam carving algorithm allows a maximum distance of only one horizontal pixel or dot position between successive stitch points. (i) identifying a strip of the image to be printed in an overlap region of the first and second printhead segments; (ii) determining, using a seam carving algorithm, a continuous seam in the strip based on a cost function, the cost function including at least one parameter selected from the group consisting of: (a) minimizing a density of printed ink along the seam; and (b) maximizing a luminance along the seam; and (iii) printing the image using the first and second printhead segments, the printing comprising stitching the first and second printhead segments across the seam, the strip contains variable image content and the seam has a varying position within the strip; and the seam is determined from a row-by-row analysis of the image content contained in the strip, each row having a stitch point determined by the cost function;
Method of manufacturing a structural beam comprising - an elongate base part comprising a polymer, the base part having a length, defining a length direction of the beam, and having a width and a height, and - an elongate reinforcement part comprising a strip comprising a polymer and unidirectional fibers, bonded to the base part at an outer surface of the base part and extending in the length direction along the length of the base part, the strip of the elongate reinforcement part having a higher Young's modulus than the base part, the elongate base part comprising at least 60 wt. % of a composition consisting of said polymer and glass fibers or at least 60 wt. % of said polymer, the polymer of the elongate base part and of the strip both being chosen from the group consisting of thermoplastic polymers, wherein a width of the elongate reinforcement part is at least substantially equal to the width of the base part, the method comprising - feeding a composition comprising the polymer for forming the elongate base part, via an extruder, to an extrusion die the method is characterized by - feeding the elongate reinforcement part comprising the strip to the extrusion die, - forming the beam by extrusion, while bonding the elongate reinforcement part to the base part by joining the elongate reinforcement part and the composition within the extrusion die. - an elongate base part comprising a polymer, the base part having a length, defining a length direction of the beam, and having a width and a height, and - an elongate reinforcement part comprising a strip comprising a polymer and unidirectional fibers, bonded to the base part at an outer surface of the base part and extending in the length direction along the length of the base part, the elongate base part comprising at least 60 wt. % of a composition consisting of said polymer and glass fibers or at least 60 wt. % of said polymer, the polymer of the elongate base part and of the strip both being chosen from the group consisting of thermoplastic polymers, wherein a width of the elongate reinforcement part is at least substantially equal to the width of the base part, - feeding a composition comprising the polymer for forming the elongate base part, via an extruder, to an extrusion die - feeding the elongate reinforcement part comprising the strip to the extrusion die, - forming the beam by extrusion, while bonding the elongate reinforcement part to the base part by joining the elongate reinforcement part and the composition within the extrusion die.
A method for influencing and/or detecting magnetic particles having an axis of easy magnetization in a region of action, wherein the method comprises the steps of - generating a magnetic selection field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength such that the magnetization of the magnetic particles is not saturated, and a second sub-zone having a higher magnetic field strength such that the magnetization of the magnetic particles is saturated, are formed in the region of action - changing the position in space of the two sub-zones (301, 302) in the region of action by means of a magnetic drive field so that the magnetization of the magnetic particles changes locally, characterised in that the method further comprises the steps of - acquiring signals, which signals depend on the magnetization in the region of action, which magnetization is influenced by the change in the position in space of the first and second sub-zone (301, 302), wherein a magnetic drive vector of the magnetic drive field is moved along a double cone structure, so that in a first step the mean direction of the magnetic drive vector is along the center of the cone and parallel to the easy axis of the magnetic particles, and in a second step the orientation of the drive vector is periodically reversed, so that the magnetic particles experience the magnetic drive vector along a second direction, said second direction being inclined relative to the first direction by a special angle so that an optimal signal is generated. - generating a magnetic selection field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength such that the magnetization of the magnetic particles is not saturated, and a second sub-zone having a higher magnetic field strength such that the magnetization of the magnetic particles is saturated, are formed in the region of action - changing the position in space of the two sub-zones (301, 302) in the region of action by means of a magnetic drive field so that the magnetization of the magnetic particles changes locally, - acquiring signals, which signals depend on the magnetization in the region of action, which magnetization is influenced by the change in the position in space of the first and second sub-zone (301, 302),
A motor-assisted joint system for an articulated bus, the motor-assisted joint system comprising: a motor-assisted joint, comprising: an upper stator part and a lower stator part installed on a front frame; and a flat rotator part coaxially arranged between the upper stator part and the lower stator part through at least one bearing (108, 109); a suspension arm installed on a trailer frame, wherein the suspension arm is pivotally coupled to extension structures of the flat rotator part through a horizontal shaft, so that the front frame and the trailer frame are movable upwardly or downwardly, the motor-assisted joint system being characterized in that it further comprises a velocity sensor; a steering wheel position sensor; and a control unit reading data from a velocity data from the velocity sensor and a position data from the steering wheel position sensor, and adjusting a target joint angle by controlling the motor-assisted joint according to the velocity data and the position data. a motor-assisted joint, comprising: an upper stator part and a lower stator part installed on a front frame; and a flat rotator part coaxially arranged between the upper stator part and the lower stator part through at least one bearing (108, 109); an upper stator part and a lower stator part installed on a front frame; and a flat rotator part coaxially arranged between the upper stator part and the lower stator part through at least one bearing (108, 109); a suspension arm installed on a trailer frame, wherein the suspension arm is pivotally coupled to extension structures of the flat rotator part through a horizontal shaft, so that the front frame and the trailer frame are movable upwardly or downwardly, the motor-assisted joint system being characterized in that it further comprises a velocity sensor; a steering wheel position sensor; and a control unit reading data from a velocity data from the velocity sensor and a position data from the steering wheel position sensor, and adjusting a target joint angle by controlling the motor-assisted joint according to the velocity data and the position data.
A method performed by an Access Management Function, AMF, entity in a Visited Public Land Mobile Network, VPLMN, serving a roaming User Equipment, UE,, the method comprises: obtaining, by the AMF entity, a subscribed UE Aggregate Maximum Bit Rate, UE-AMBR, for the UE; sending (XX200, XX304), by the AMF entity, a Npcf_AMPolicyControl_Update request message towards a Visited Policy Control Function, V-PCF, entity in the VPLMN to update an AM Policy for the roaming UE; receiving (XX204, XX306) by the AMF entity in response to sending the Npcf_AMPolicyControl_Update message, a Npcf_AMPolicyControl_Update response message sent by the V-PCF entity and comprising Access and mobility related policy information that includes a serving network UE-AMBR for the UE decided by the V-PCF entity; deploying (XX206, XX308) the serving network UE-AMBR instead of the subscribed UE-AMBR by sending policy control information including the serving network UE-AMBR to a RAN node in the serving network. obtaining, by the AMF entity, a subscribed UE Aggregate Maximum Bit Rate, UE-AMBR, for the UE; sending (XX200, XX304), by the AMF entity, a Npcf_AMPolicyControl_Update request message towards a Visited Policy Control Function, V-PCF, entity in the VPLMN to update an AM Policy for the roaming UE; receiving (XX204, XX306) by the AMF entity in response to sending the Npcf_AMPolicyControl_Update message, a Npcf_AMPolicyControl_Update response message sent by the V-PCF entity and comprising Access and mobility related policy information that includes a serving network UE-AMBR for the UE decided by the V-PCF entity; deploying (XX206, XX308) the serving network UE-AMBR instead of the subscribed UE-AMBR by sending policy control information including the serving network UE-AMBR to a RAN node in the serving network.
A computing device, comprising: a cover glass; a touch sensor component coupled to the cover glass; a liquid crystal display 'LCD' coupled to the touch sensor component; and a vibration transducer coupled to the cover glass to apply vibrations to the cover glass, wherein the vibration transducer includes a transducer frame, a transducer base coupled to the transducer frame, an extended pedestal coupled to the transducer base, wherein the extended pedestal elevates the transducer base and transducer frame from the cover glass, and wherein the extended pedestal is positioned adjacent to the LCD such that at least a portion of the transducer frame and/or the transducer base extends over the LCD and/or the touch sensor component; an outer enclosure to which the cover glass is coupled; and a first supporting wall coupled to the outer enclosure, a second supporting wall coupled to the outer enclosure; wherein at least a portion of the first supporting wall is positioned on a first side of the vibration transducer, and at least a portion of the second supporting wall is positioned on a second side of the vibration transducer; and wherein the first supporting wall and the second supporting wall limit the displacement of the vibration transducer in the event of an impulse load on the computing device. a cover glass; a touch sensor component coupled to the cover glass; a liquid crystal display 'LCD' coupled to the touch sensor component; and a vibration transducer coupled to the cover glass to apply vibrations to the cover glass, wherein the vibration transducer includes a transducer frame, a transducer base coupled to the transducer frame, an extended pedestal coupled to the transducer base, wherein the extended pedestal elevates the transducer base and transducer frame from the cover glass, and wherein the extended pedestal is positioned adjacent to the LCD such that at least a portion of the transducer frame and/or the transducer base extends over the LCD and/or the touch sensor component; an outer enclosure to which the cover glass is coupled; and a first supporting wall coupled to the outer enclosure, a second supporting wall coupled to the outer enclosure;
Turbomachine (10, 10 A, 10 B, 10 C, 10 N) comprising a propeller, a propeller shaft supporting the propeller, a rotating electric machine (19, 19 A, 19 B, 19 C, 19 N), having at least a first configuration in which it is mechanically coupled to the propeller shaft, and an engine oil pump supplying a lubricating circuit of the turbomachine (10, 10 A, 10 B, 10c, 10 N), the rotating electric machine (19, 19 A, 19 B, 19c, 19 N), being capable of driving the propeller shaft in rotation when it is supplied with current in the at least one first configuration, the turbomachine (10, 10 A, 10 B, 10c, 10 N) being characterised in that the rotating electric machine (19, 19 A, 19 B, 19 C, 19 N) in the first configuration is coupled mechanically to the engine oil pump such that the rotating electric machine (19, 19 A, 19 B, 19 C, 19 N) also drives the engine oil pump when it is supplied with current.
An apparatus, the apparatus being a node comprising: an interface; a memory; and a processor, communicatively coupled to the interface and the memory, configured to: cause the node to send a first cellular reference signal to a target UE, user equipment, and to another UE, the node being a cellular-communication node comprising a UE or a base station; instruct, via the interface, the target UE to report to the node a first time difference, the first time difference being a first time amount between receipt of the first cellular reference signal by the target UE and transmission of a second cellular reference signal by the target UE as part of RTT estimation between the node and the target UE; and instruct, via the interface, the other UE to report a second time difference, the second time difference being a second time amount between receipt of the first cellular reference signal by the other UE and receipt of the second cellular reference signal, in a cross-link interference resource, by the other UE. an interface; a memory; and a processor, communicatively coupled to the interface and the memory, configured to: cause the node to send a first cellular reference signal to a target UE, user equipment, and to another UE, the node being a cellular-communication node comprising a UE or a base station; instruct, via the interface, the target UE to report to the node a first time difference, the first time difference being a first time amount between receipt of the first cellular reference signal by the target UE and transmission of a second cellular reference signal by the target UE as part of RTT estimation between the node and the target UE; and instruct, via the interface, the other UE to report a second time difference, the second time difference being a second time amount between receipt of the first cellular reference signal by the other UE and receipt of the second cellular reference signal, in a cross-link interference resource, by the other UE. cause the node to send a first cellular reference signal to a target UE, user equipment, and to another UE, the node being a cellular-communication node comprising a UE or a base station; instruct, via the interface, the target UE to report to the node a first time difference, the first time difference being a first time amount between receipt of the first cellular reference signal by the target UE and transmission of a second cellular reference signal by the target UE as part of RTT estimation between the node and the target UE; and instruct, via the interface, the other UE to report a second time difference, the second time difference being a second time amount between receipt of the first cellular reference signal by the other UE and receipt of the second cellular reference signal, in a cross-link interference resource, by the other UE.
A method of manufacturing a hollow spring, comprising: providing a steel tube used for the hollow spring; and applying compressive force to at least a portion of an outer surface of the steel tube from a circumferential direction to apply compressive residual stress to at least a portion of an inner surface of the steel tube; wherein a fatigue life of the steel tube is prolonged by applying the compressive residual stress to the inner surface of the steel tube, applying the compressive force to the outer surface of the steel tube comprises pressing the steel tube with a die, the die comprises a pressing surface shaped such that the compressive force can be applied to the at least the portion of the outer surface of the steel tube from the circumferential direction, characterised in that: the at least a portion of the outer surface of the steel tube includes the outer surface of a bending portion (13, 14) of the steel tube, and the pressing surface includes a round shape that extends along the outer surface of the steel tube in a circumferential direction and faces the outer surface of the steel tube in an axial direction of the steel tube. providing a steel tube used for the hollow spring; and applying compressive force to at least a portion of an outer surface of the steel tube from a circumferential direction to apply compressive residual stress to at least a portion of an inner surface of the steel tube; wherein a fatigue life of the steel tube is prolonged by applying the compressive residual stress to the inner surface of the steel tube, applying the compressive force to the outer surface of the steel tube comprises pressing the steel tube with a die, the die comprises a pressing surface shaped such that the compressive force can be applied to the at least the portion of the outer surface of the steel tube from the circumferential direction, characterised in that: the at least a portion of the outer surface of the steel tube includes the outer surface of a bending portion (13, 14) of the steel tube, and the pressing surface includes a round shape that extends along the outer surface of the steel tube in a circumferential direction and faces the outer surface of the steel tube in an axial direction of the steel tube. the at least a portion of the outer surface of the steel tube includes the outer surface of a bending portion (13, 14) of the steel tube, and the pressing surface includes a round shape that extends along the outer surface of the steel tube in a circumferential direction and faces the outer surface of the steel tube in an axial direction of the steel tube.
A method for the preparation of adult proliferating cells with stem cell properties, which can differentiate into cells of at least both of the ectodermal and mesodermal germ layers, comprising removing tissue from the pronephros of a fish, comminuting the removed tissue, cultivating the comminuted tissue, and propagating the cells persisting in culture, wherein the tissue is gently comminuted such that cell aggregates smaller than about 200 μm are largely maintained in the resulting small tissue pieces, and the comminuted tissue is cultivated in adhesion culture and the adherent cells persisting in the culture are further cultivated and non-adhering differentiated cells are separated by a replacement of medium.
A composition comprising an isolated peptide comprising the amino acid sequence FFVKLS (SEQ ID NO: 62) for use in inhibiting metastatic cancer in a subject identified as having metastatic cancer.
Lithium ion-conducting composite material, comprising at least one polymer and lithium ion-conducting particles, wherein the particles have a sphericity ψ calculated as in the description of at least 0.7 and the composite material contains at least 20% by volume of the particles at a polydispersity index PI calculated as in the description of the particle size distribution of <0.7, or the composite material contains at least 30% by volume of the particles at a polydispersity index PI of the particle size distribution in the range of 0.7 to <1.2, or the composite material contains at least 40% by volume of the particles at a polydispersity index PI of the particle size distribution of >1.2, characterized in that the polymer comprises the following compounds: - polyethylene oxide, - derivatives of polyethylene oxide, - polyvinyl butyral and the particles consist of at least one of the following lithium ion-conducting compounds: - lithium lanthanum zirconate (LLZO), - lithium aluminum titanium phosphate (LATP) the polymer comprises the following compounds: - polyethylene oxide, - derivatives of polyethylene oxide, - polyvinyl butyral - polyethylene oxide, - derivatives of polyethylene oxide, - polyvinyl butyral and the particles consist of at least one of the following lithium ion-conducting compounds: - lithium lanthanum zirconate (LLZO), - lithium aluminum titanium phosphate (LATP) - lithium lanthanum zirconate (LLZO), - lithium aluminum titanium phosphate (LATP)
A direct sampling tuner for receiving an RF signal having multiple channels, comprising: a low noise amplifier that amplifies said received RF signal having said multiple channels, said low noise amplifier comprising an autonomous gain control; a multi-bit analog-to-digital converter coupled to the low noise amplifier, wherein the analog-to-digital converter operates at greater than twice a frequency of a selected band of the multiple channels; and a noise-shaping module coupled to the analog-to-digital converter; and a digital signal processor for performing channel filtering, the digital signal processor incorporating the noise-shaping module. a low noise amplifier that amplifies said received RF signal having said multiple channels, said low noise amplifier comprising an autonomous gain control; a multi-bit analog-to-digital converter coupled to the low noise amplifier, wherein the analog-to-digital converter operates at greater than twice a frequency of a selected band of the multiple channels; and a noise-shaping module coupled to the analog-to-digital converter; and a digital signal processor for performing channel filtering, the digital signal processor incorporating the noise-shaping module.
An infrastructure system for a mobile device, comprising an information signal generator implemented to generate a magnetic field modulated with information; a data interface for receiving a message from the mobile device via a high-frequency electromagnetic wave interface; and a processing unit implemented to check the message for a match with the information, characterized in that the information signal generator is implemented such that a modulation frequency at which the magnetic field is modulated with the information is lower than 1 kHz and that the magnetic field is modulated with the information in a unipolar or bipolar manner.