mhurhangee/patent-ind-claim-en huggingface dataset:
A controller for a High Voltage Direct Current, HVDC, system, the HVDC system comprising two stations (S1, S2) between which power is conducted via a pair of conductors (110; 120) connected between converters acting as rectifiers and inverters and a Dedicated Metallic Return, DMR, conductor or an Electrode Line, EL, installed between the neutral points of the stations (S1, S2), wherein the controller comprises a converter firing controller controlled by a control subsystem and configured to output valve firing pulses according to a converter firing control sequence to the converters to generate a balanced current flow in the conductors (110; 120), characterized in that : - the control subsystem is configured to alter the converter firing control sequence generated by the firing controller such as to introduce unbalance of current flow in the DMR conductor or EL; and - the controller further comprises a fault locator configured to locate faults by measuring the current flowing in the DMR conductor or EL. - the control subsystem is configured to alter the converter firing control sequence generated by the firing controller such as to introduce unbalance of current flow in the DMR conductor or EL; and - the controller further comprises a fault locator configured to locate faults by measuring the current flowing in the DMR conductor or EL.
A network comprising a first base station, BS, of a new radio, NR, Radio Access Network, NR-RAN, and a second BS of an Evolved Universal Terrestrial Radio Access, E-UTRA, Network, E-UTRAN, for handling NR capabilities, comprising: the first BS being adapted to receive at least one E-UTRA capability and at least one first NR capability of a communication device from the communication device in a first NR-access Radio Resource Control, RRC, message or from a core network, CN; the first BS being adapted to transmit the at least one E-UTRA capability and the at least one first NR capability of the communication device to the second BS; the second BS being adapted to generate a first, RRC, Connection Reconfiguration message according to the at least one E-UTRA capability and the at least one first NR capability, wherein the first RRC Connection Reconfiguration message comprises at least one E-UTRA configuration and a NR configuration; the second BS being adapted to transmit the first RRC Connection Reconfiguration message to the first BS; the first BS being adapted to generate a second NR-access RRC message comprising the first RRC Connection Reconfiguration message; the first BS being adapted to transmit the second NR-access RRC message to the communication device ; and the second BS being adapted to receive a first RRC Connection Reconfiguration Complete message from the communication device, in response to the first RRC Connection Reconfiguration message. the first BS being adapted to receive at least one E-UTRA capability and at least one first NR capability of a communication device from the communication device in a first NR-access Radio Resource Control, RRC, message or from a core network, CN; the first BS being adapted to transmit the at least one E-UTRA capability and the at least one first NR capability of the communication device to the second BS; the second BS being adapted to generate a first, RRC, Connection Reconfiguration message according to the at least one E-UTRA capability and the at least one first NR capability, wherein the first RRC Connection Reconfiguration message comprises at least one E-UTRA configuration and a NR configuration; the second BS being adapted to transmit the first RRC Connection Reconfiguration message to the first BS; the first BS being adapted to generate a second NR-access RRC message comprising the first RRC Connection Reconfiguration message; the first BS being adapted to transmit the second NR-access RRC message to the communication device ; and the second BS being adapted to receive a first RRC Connection Reconfiguration Complete message from the communication device, in response to the first RRC Connection Reconfiguration message.
An electromotive kitchen appliance with a motor for driving a turning gear and with a coupling, wherein the motor is arranged in a first appliance part and the turning gear is arranged in a second appliance part which is or can be connected to the first appliance part, wherein the coupling comprises a coupling part and an insertion piston for transmitting a rotational movement from a motor output shaft to the turning gear, wherein the coupling part has an insertion opening which is an opening of a receiving shaft or ring for receiving at least one part of the insertion piston , characterized in that a plurality of guide elements for the insertion piston is arranged at the insertion opening , said guide elements having a pre-arched surface in the direction of a shaft connected to the insertion piston to be inserted in each case in order to correct an insertion direction.
An arrangement (A) of a drive wheel (DW) for an endless track (E) of a tracked vehicle (V), the drive wheel (DW) comprising a hub member (H) and a drive sprocket member (S1, S2) attached to the hub member (H), said drive sprocket member (S1, S2) comprising a ring shaped drive sprocket having a set of teeth arranged around the circumference of said drive sprocket , said drive sprocket being configured to engage with said endless track (E), said drive sprocket member (S1, S2) further comprising a support member for said drive sprocket , characterized in that said drive sprocket is divided into at least two arc shaped drive sprocket parts , each drive sprocket part , in a non engaged state of a drive sprocket part with respect to said endless track (E), being configured to be exchangeable, said arrangement (A) comprising a guiding configuration (G1, G2) comprising a first guiding member (G1) circumferentially distributed around the support member and a second guiding member (G2) circumferentially distributed around the respective drive sprocket part for facilitating reassembling the drive sprocket , wherein one of said first and second guiding members (G1, G2) is a recess (G2) and the other of said first and second guiding members (G1, G2) is a protrusion (G1) configured to engage with said recess (G2), wherein said recess (G2) is a circumferentially running groove and said protrusion (G1) is a circumferentially running ridge.
A drive system for at least one switch , comprising: a drive shaft which connects the drive system to the at least one switch and at least one motor which is coupled to the drive shaft , - a feedback system which is configured to determine a position of the drive shaft and, based on this position, to generate a feedback signal; and - a control device which, depending on the feedback signal, selects a stored travel profile from a plurality of travel profiles and acts on the motor in accordance with the selected travel profile , characterized in that , - the feedback system includes at least one encoder system and an auxiliary contact, which in combination are configured and arranged to detect an absolute position of the drive shaft or an absolute position of a further shaft connected to the drive shaft and to generate at least one output signal based on the detected position; and is configured to determine the position of the drive shaft on the basis of the at least one output signal. a drive shaft which connects the drive system to the at least one switch and at least one motor which is coupled to the drive shaft , - a feedback system which is configured to determine a position of the drive shaft and, based on this position, to generate a feedback signal; and - a control device which, depending on the feedback signal, selects a stored travel profile from a plurality of travel profiles and acts on the motor in accordance with the selected travel profile , - a feedback system which is configured to determine a position of the drive shaft and, based on this position, to generate a feedback signal; and - a control device which, depending on the feedback signal, selects a stored travel profile from a plurality of travel profiles and acts on the motor in accordance with the selected travel profile , characterized in that , - the feedback system includes at least one encoder system and an auxiliary contact, which in combination are configured and arranged to detect an absolute position of the drive shaft or an absolute position of a further shaft connected to the drive shaft and to generate at least one output signal based on the detected position; and is configured to determine the position of the drive shaft on the basis of the at least one output signal. - the feedback system includes at least one encoder system and an auxiliary contact, which in combination are configured and arranged to detect an absolute position of the drive shaft or an absolute position of a further shaft connected to the drive shaft and to generate at least one output signal based on the detected position; and is configured to determine the position of the drive shaft on the basis of the at least one output signal.
An apparatus comprising: one or more processing devices and one or more storage devices storing instructions that are operable, when executed by the one or more processing devices, to cause the one or more processing devices to perform operations comprising: receiving signals from a magnetic sensor located at a known position relative to an orthopaedic implant the orthopaedic implant defining a hole that admits a transfixion element (31, 331 33, 335, 35), the hole being defined to admit a transfixion element at two or more targeting locations in the hole; selecting a first targeting location of the two or more targeting locations, wherein selecting the first targeting location comprises: accessing pre-programmed information indicating an amount of bone compression; receiving a user input that identifies the location, based on calculations of a location that will result in the amount of bone compression, and selecting the first targeting location based on the user input; determining, based on the signals, a position of a landmark identifier relative to the first targeting location; and indicating the position of the landmark identifier relative to the first targeting location. receiving signals from a magnetic sensor located at a known position relative to an orthopaedic implant the orthopaedic implant defining a hole that admits a transfixion element (31, 331 33, 335, 35), the hole being defined to admit a transfixion element at two or more targeting locations in the hole; selecting a first targeting location of the two or more targeting locations, wherein selecting the first targeting location comprises: accessing pre-programmed information indicating an amount of bone compression; receiving a user input that identifies the location, based on calculations of a location that will result in the amount of bone compression, and selecting the first targeting location based on the user input; determining, based on the signals, a position of a landmark identifier relative to the first targeting location; and indicating the position of the landmark identifier relative to the first targeting location. accessing pre-programmed information indicating an amount of bone compression; receiving a user input that identifies the location, based on calculations of a location that will result in the amount of bone compression, and selecting the first targeting location based on the user input; determining, based on the signals, a position of a landmark identifier relative to the first targeting location; and indicating the position of the landmark identifier relative to the first targeting location.
An excavator comprising: an undercarriage ; a rotating platform rotatably provided on the undercarriage; an attachment including at least a boom attached to the rotating platform and an arm attached to the boom; characterised by a display unit that, before manipulation of the attachment, visually displays a predicted stability indicating a stability of the excavator' posture upon the attachment being manipulated. an undercarriage ; a rotating platform rotatably provided on the undercarriage; an attachment including at least a boom attached to the rotating platform and an arm attached to the boom; characterised by a display unit that, before manipulation of the attachment, visually displays a predicted stability indicating a stability of the excavator' posture upon the attachment being manipulated.
An intervertebral device comprising: i) an intervertebral spacer comprising: a) an anterior wall having an anterior surface [16; 803], b) a posterior wall , and c) first and second side walls connecting the anterior and posterior walls, ii) a screw adapted to be received in a hole [805; 829], wherein the hole [805; 829] extends from the anterior surface [16; 803] and characterized in that the intervertebral device further comprises: iii) a retaining plate [801; 830] slidably mounted to the anterior surface [16; 803] of the spacer in a first and a second slidable position, the plate [801; 830] having a hole [804; 827; 851], wherein, in the first slidable position, the hole [804; 827; 851] of the plate [801; 830] aligns with the hole [805; 829] of the spacer to allow passage of the screw therethrough, and wherein, in the second slidable position, the hole [804; 827; 851] of the plate [801; 830] mis-aligns with the hole [805; 829] of the spacer to prevent back out of the screw. i) an intervertebral spacer comprising: a) an anterior wall having an anterior surface [16; 803], b) a posterior wall , and c) first and second side walls connecting the anterior and posterior walls, a) an anterior wall having an anterior surface [16; 803], b) a posterior wall , and c) first and second side walls connecting the anterior and posterior walls, ii) a screw adapted to be received in a hole [805; 829], wherein
A flexible battery comprising: an electrode assembly ; an exterior material for sealing the electrode assembly with an electrolyte, and patterns formed on each of the electrode assembly and the exterior material , wherein the patterns comprising a first pattern formed on the exterior material and a second pattern formed on the electrode assembly in the same direction as the first pattern, both patterns are disposed such that crest portions and trough portions, which are alternately formed in a longitudinal direction, are formed to be coincident with each other, wherein the crest and trough portions are formed parallel to each other in a width direction of the electrode assembly and the exterior material, respectively, wherein the exterior material includes a first exterior material configured to cover a upper surface of the electrode assembly and a second exterior material configured to cover a lower surface of the electrode assembly , wherein the first pattern formed on the first exterior material and a first pattern formed on the second exterior material are formed such that a crest of the first pattern is matched with a crest of the second pattern and a trough of the first pattern is matched with a trough of the second pattern, and a region with the patterns includes a region in which an increased surface area ratio (Sdr) according to Equation 1 below satisfies 0.5 to 40.0: Increased surface area ratio Sdr = surface area of one region with pattern − Lx × Ly Lx × Ly × 100 , and wherein a surface area of one region with the patterns is a surface area based on one region of the battery in which a horizontal length is Lx (mm) and a vertical length is Ly (mm).
A first anti-cancer agent (i), which is BVD-523 or a pharmaceutically acceptable salt thereof and a second anti-cancer agent (ii), for use in treating or ameliorating the effects of a cancer in a subject, wherein the second anti-cancer agent is (ii-1) a type 2 MEK inhibitor selected from the group consisting of trametinib (Japan Tobacco), MEK162, pharmaceutically acceptable salts thereof and combinations thereof; or (ii-2) GDC-0623 (Hoffmann-La Roche) or a pharmaceutically acceptable salt thereof. (ii-1) a type 2 MEK inhibitor selected from the group consisting of trametinib (Japan Tobacco), MEK162, pharmaceutically acceptable salts thereof and combinations thereof; or (ii-2) GDC-0623 (Hoffmann-La Roche) or a pharmaceutically acceptable salt thereof.
A method for managing an instance of a class in a secure element embedded in a hosting machine , said secure element including a Central Processing Unit , a storage area and a virtual machine , the method comprising a step of receiving by the secure element a load file containing a binary representation of a package of the class and a step of instantiating the instance from said package and storing the instance in the storage area , said load file including a specific component which is a custom component within the meaning of Java CardTM specifications V2.1. and which contains data , characterized in that said data are executable code and in that the instance initiates the execution of a subset of said executable code by directly calling said subset of executable code which is designed to personalize said instance.
A method of making a normalization control comprising RNA molecules, comprising: a. synthesizing at least three groups of DNA molecules, wherein each DNA molecule in the at least three groups of DNA molecules comprises, from 5' to 3', a first component sequence, a sequence complementary to a promoter sequence, a first restriction enzyme site, a second component sequence, a second sequence complementary to a promoter sequence, a second restriction site, a third component sequence and a third sequence complementary to a promoter sequence; b. digesting each of the at least three groups of DNA molecules with a restriction enzyme that cuts at the first and second restriction enzyme sites to produce at least three groups of digested DNA molecules; c. in vitro transcribing each of the at least three groups of digested DNA molecules to produce at least three populations of RNA molecules; d. quantifying the amount of RNA in each of the at least three populations of RNA molecules; and e. mixing a pre-determined amount of each of the at least three populations of RNA molecules, thereby producing a normalization control comprising RNA molecules. a. synthesizing at least three groups of DNA molecules, wherein each DNA molecule in the at least three groups of DNA molecules comprises, from 5' to 3', a first component sequence, a sequence complementary to a promoter sequence, a first restriction enzyme site, a second component sequence, a second sequence complementary to a promoter sequence, a second restriction site, a third component sequence and a third sequence complementary to a promoter sequence; b. digesting each of the at least three groups of DNA molecules with a restriction enzyme that cuts at the first and second restriction enzyme sites to produce at least three groups of digested DNA molecules; c. in vitro transcribing each of the at least three groups of digested DNA molecules to produce at least three populations of RNA molecules; d. quantifying the amount of RNA in each of the at least three populations of RNA molecules; and e. mixing a pre-determined amount of each of the at least three populations of RNA molecules, thereby producing a normalization control comprising RNA molecules.
A permanent magnet electric motor comprising: a rotor arranged rotatably inside a stator ; the stator with at least a North pole and a South pole, wherein the stator comprises a lamination stack having a plurality of loose laminations; wherein the stator lamination stack defines at least one magnet pocket at each pole, each magnet pocket being contained within the lamination stack distanced from the inner and outer surfaces of the lamination stack, the stator further including at least one permanent magnet embedded within each magnet pocket of each pole; characterised in that the loose laminations are being held together via an overmolded resin , the overmolded resin comprising a longitudinal overmold layer covering at least a portion of at least one of an inner or outer surfaces of the lamination stack without covering the poles, and two end cap portions extending laterally from the ends of the longitudinal overmold layer are integrally included in the longitudinal overmold layer to firmly cover ends of the lamination stack . a rotor arranged rotatably inside a stator ; the stator with at least a North pole and a South pole, wherein the stator comprises a lamination stack having a plurality of loose laminations; wherein the stator lamination stack defines at least one magnet pocket at each pole, each magnet pocket being contained within the lamination stack distanced from the inner and outer surfaces of the lamination stack, the stator further including at least one permanent magnet embedded within each magnet pocket of each pole; characterised in that the loose laminations are being held together via an overmolded resin , the overmolded resin comprising a longitudinal overmold layer covering at least a portion of at least one of an inner or outer surfaces of the lamination stack without covering the poles, and two end cap portions extending laterally from the ends of the longitudinal overmold layer are integrally included in the longitudinal overmold layer to firmly cover ends of the lamination stack .
A water wash system for a gas turbine engine comprising a fan and a front hub rotatable with the fan , the water wash system comprising: a head unit comprising a mounting structure and one or more wash fluid lines for spraying a wash fluid into the gas turbine engine , the mounting structure defining an inner friction surface for contacting the front hub of the gas turbine engine ; and a base assembly operably connected to the head unit , the base assembly configured to press the head unit towards the front hub to fix the inner friction surface against the front hub , wherein the head unit comprises a rotary connector , wherein the rotary connector comprises a fixed member and a spinning member , wherein the spinning member is fixed to the mounting structure and wherein the fixed member is attached to the base assembly to allow the head unit to rotate relative to the base assembly . a head unit comprising a mounting structure and one or more wash fluid lines for spraying a wash fluid into the gas turbine engine , the mounting structure defining an inner friction surface for contacting the front hub of the gas turbine engine ; and a base assembly operably connected to the head unit , the base assembly configured to press the head unit towards the front hub to fix the inner friction surface against the front hub , wherein the head unit comprises a rotary connector , wherein the rotary connector comprises a fixed member and a spinning member , wherein the spinning member is fixed to the mounting structure and wherein the fixed member is attached to the base assembly to allow the head unit to rotate relative to the base assembly .