mhurhangee/ep-ind-claims huggingface dataset:
A pedal adapted to a motor vehicle comprising a support, an arm pivotable with respect to a rotating shaft coupled to the support between a resting position and an active position, and an assistance device for operating the pedal, the assistance device comprising a profile (30;60;70;80) in the arm, elastic means coupled to the support said elastic means comprising a spring, and rolling means (45,46) acting on the profile (30;60;70;80) operated by the elastic means exerting additional force on the arm during the stroke of the arm between the resting position and the active position, characterized in that the assistance device comprises a lever which is arranged pivotably coupled to the support and at one of the ends of which the rolling means (45,46) and the elastic means are coupled, one of the ends of the spring being arranged fixed to the support and the other end to the lever.
A surgical robotic system comprising: an inertial measurement unit, IMU, (11, 31, 507, 530) configured to connect to an anatomical feature of a subject; and a system controller, characterized in that the system controller is adapted to: (i) receive a respiratory signal corresponding to a respiratory cycle of the subject, and a heartbeat signal corresponding to the heartbeat cycle of the patient; (ii) determine at least one point in time when the respiratory signal represents a position of minimal motion of the subject arising from the respiration of the subject, and the heartbeat signal simultaneously represents a position of minimal motion of the subject arising from the heartbeat of the subject; and (iii) generate an instruction to reset at the at least one point in time, drift detected at that at least one point in time in the pose determination of the IMU (11, 31, 507, 530). an inertial measurement unit, IMU, (11, 31, 507, 530) configured to connect to an anatomical feature of a subject; and a system controller, characterized in that the system controller is adapted to: (i) receive a respiratory signal corresponding to a respiratory cycle of the subject, and a heartbeat signal corresponding to the heartbeat cycle of the patient; (ii) determine at least one point in time when the respiratory signal represents a position of minimal motion of the subject arising from the respiration of the subject, and the heartbeat signal simultaneously represents a position of minimal motion of the subject arising from the heartbeat of the subject; and (iii) generate an instruction to reset at the at least one point in time, drift detected at that at least one point in time in the pose determination of the IMU (11, 31, 507, 530). (i) receive a respiratory signal corresponding to a respiratory cycle of the subject, and a heartbeat signal corresponding to the heartbeat cycle of the patient; (ii) determine at least one point in time when the respiratory signal represents a position of minimal motion of the subject arising from the respiration of the subject, and the heartbeat signal simultaneously represents a position of minimal motion of the subject arising from the heartbeat of the subject; and (iii) generate an instruction to reset at the at least one point in time, drift detected at that at least one point in time in the pose determination of the IMU (11, 31, 507, 530).
Method for producing a disk carrier having - a cylindrical circumferential wall which has a first circumferential section with a first diameter and an axially adjoining second circumferential section with a second diameter, wherein the second diameter is larger than the first diameter and the first circumferential section and the second circumferential section are connected to each other via a radial annular step, - rib-like axial disks (23, 24) which are formed on an internal side of the first circumferential section and/or the second circumferential section, and - an annular groove which is designed on an internal side of the annular step and between the second circumferential section and a radially internal, axially protruding groove wall which has radial apertures, characterized in that - through stretch-flow forming of the circumferential wall with the first circumferential section, the second circumferential section and the axial disks (23, 24) the disk carrier is formed integrally from a basic workpiece, and - in that prior to stretch-flow forming the annular step with the annular groove and the groove wall with the radial apertures is preformed or finish-formed. - a cylindrical circumferential wall which has a first circumferential section with a first diameter and an axially adjoining second circumferential section with a second diameter, wherein the second diameter is larger than the first diameter and the first circumferential section and the second circumferential section are connected to each other via a radial annular step, - rib-like axial disks (23, 24) which are formed on an internal side of the first circumferential section and/or the second circumferential section, and - an annular groove which is designed on an internal side of the annular step and between the second circumferential section and a radially internal, axially protruding groove wall which has radial apertures, - through stretch-flow forming of the circumferential wall with the first circumferential section, the second circumferential section and the axial disks (23, 24) the disk carrier is formed integrally from a basic workpiece, and - in that prior to stretch-flow forming the annular step with the annular groove and the groove wall with the radial apertures is preformed or finish-formed.
Rubber mixture comprising at least the following constituents: - at least one rubber and - at least one reinforcing filler and - 0.5 to 10 phr of at least one hydrocarbon wax composition, where the hydrocarbons in the wax composition have 15 to 110 carbon atoms and where: a) 25% to 40% of the hydrocarbons are linear hydrocarbons having 20 to 30 carbon atoms; and where b) 5% to 18% of the hydrocarbons are linear hydrocarbons having 31 to 38 carbon atoms; and where c) 25% to 40% of the hydrocarbons are linear hydrocarbons having 39 to 60 carbon atoms; and where d) 5% to 15% of the hydrocarbons are branched hydrocarbons having 21 to 31 carbon atoms; and where e) less than 5% of the hydrocarbons are branched hydrocarbons having 32 to 39 carbon atoms; and where f) 5% to 15% of the hydrocarbons are branched hydrocarbons having 40 to 61 carbon atoms, where the percentage in each case is based on the total number of hydrocarbons having 15 to 110 carbon atoms. - at least one rubber and - at least one reinforcing filler and - 0.5 to 10 phr of at least one hydrocarbon wax composition, where the hydrocarbons in the wax composition have 15 to 110 carbon atoms and where: a) 25% to 40% of the hydrocarbons are linear hydrocarbons having 20 to 30 carbon atoms; and where b) 5% to 18% of the hydrocarbons are linear hydrocarbons having 31 to 38 carbon atoms; and where c) 25% to 40% of the hydrocarbons are linear hydrocarbons having 39 to 60 carbon atoms; and where d) 5% to 15% of the hydrocarbons are branched hydrocarbons having 21 to 31 carbon atoms; and where e) less than 5% of the hydrocarbons are branched hydrocarbons having 32 to 39 carbon atoms; and where f) 5% to 15% of the hydrocarbons are branched hydrocarbons having 40 to 61 carbon atoms, where the percentage in each case is based on the total number of hydrocarbons having 15 to 110 carbon atoms. a) 25% to 40% of the hydrocarbons are linear hydrocarbons having 20 to 30 carbon atoms; and where b) 5% to 18% of the hydrocarbons are linear hydrocarbons having 31 to 38 carbon atoms; and where c) 25% to 40% of the hydrocarbons are linear hydrocarbons having 39 to 60 carbon atoms; and where d) 5% to 15% of the hydrocarbons are branched hydrocarbons having 21 to 31 carbon atoms; and where e) less than 5% of the hydrocarbons are branched hydrocarbons having 32 to 39 carbon atoms; and where f) 5% to 15% of the hydrocarbons are branched hydrocarbons having 40 to 61 carbon atoms,
A method, in a Multi-Segment-Pseudo-Wire MSPW environment, for synchronizing an interface parameter, comprising: a Switching Provider Edge, SPE, device, receiving and recording related information, sent by a remote Terminating Provider Edge, TPE, in a first segment of Pseudo Wire, PW, of the Switching Provider Edge, SPE, in a first PW, wherein the related information of the first PW carries an interface parameter of said remote TPE of the first PW, and said interface parameter is used for establishing a Label Switch Path, LSP between said SPE and said remote TPE in the first PW of the first segment; and the SPE device sending the related information of the first PW to a remote TPE in a second segment of PW of the SPE; under a condition of withdrawal of a first PW in a first segment of PW the method further comprising: receiving and recording, by the SPE device, information related to the second PW, sent by a remote TPE of a second PW in the first segment of PW of the SPE wherein the related information of the second PW in the first segment, carries an interface parameter of said remote TPE of said second PW in said first segment of PW, and the interface parameter is used for establishing an LSP between said SPE and said remote TPE of said second PW in said first segment; and SPE device sending a signalling withdraw message to the remote TPE of the second segment of PW, wherein the signalling withdraw message is used for indicating the remote TPE of the second segment of PW to remove said interface parameter related to said remote TPE in said first PW of the first segment. a Switching Provider Edge, SPE, device, receiving and recording related information, sent by a remote Terminating Provider Edge, TPE, in a first segment of Pseudo Wire, PW, of the Switching Provider Edge, SPE, in a first PW, wherein the related information of the first PW carries an interface parameter of said remote TPE of the first PW, and said interface parameter is used for establishing a Label Switch Path, LSP between said SPE and said remote TPE in the first PW of the first segment; and the SPE device sending the related information of the first PW to a remote TPE in a second segment of PW of the SPE; under a condition of withdrawal of a first PW in a first segment of PW the method further comprising: receiving and recording, by the SPE device, information related to the second PW, sent by a remote TPE of a second PW in the first segment of PW of the SPE wherein the related information of the second PW in the first segment, carries an interface parameter of said remote TPE of said second PW in said first segment of PW, and the interface parameter is used for establishing an LSP between said SPE and said remote TPE of said second PW in said first segment; and SPE device sending a signalling withdraw message to the remote TPE of the second segment of PW, wherein the signalling withdraw message is used for indicating the remote TPE of the second segment of PW to remove said interface parameter related to said remote TPE in said first PW of the first segment.
An arrangement for facilitating wound healing, the arrangement comprising: - at least two impedance reference electrodes, - a continuous frame-like rectangular counter-electrode and - stimulation electrodes in a form of an array; and - a bioadhesive affinity layer surrounding the stimulation electrodes; - said arrangement being suited for applying on top of the wound so that the stimulation electrode array is on the wound area, and that the at least two impedance reference electrodes and the continuous frame-like rectangular counter-electrode are suited for placing in contact with the healthy skin surrounding the wound area; wherein the electrodes, are suited for applying low intensity direct current, LIDC, type electrical stimulation current and for bioimpedance measurement, wherein the continuous frame-like rectangular counter-electrode frames the array of stimulation electrodes. - at least two impedance reference electrodes, - a continuous frame-like rectangular counter-electrode and - stimulation electrodes in a form of an array; and - a bioadhesive affinity layer surrounding the stimulation electrodes; - said arrangement being suited for applying on top of the wound so that the stimulation electrode array is on the wound area, and that the at least two impedance reference electrodes and the continuous frame-like rectangular counter-electrode are suited for placing in contact with the healthy skin surrounding the wound area; wherein the electrodes, are suited for applying low intensity direct current, LIDC, type electrical stimulation current and for bioimpedance measurement, wherein the continuous frame-like rectangular counter-electrode frames the array of stimulation electrodes.
A numerical controller which analyzes a machining program composed of one or more blocks and a machining condition, thereby performing automatic operation, the numerical controller comprising: an end point coordinate value analysis section configured to analyze end point coordinate values for all the blocks at the start of the automatic operation; an end point coordinate value storage section configured to store the end point coordinate values for all the blocks analyzed by the end point coordinate value analysis section; an end point coordinate value reanalysis section configured to reanalyze the end point coordinate values for all the blocks when the automatic operation is restarted after the machining program or the machining condition is changed with the automatic operation suspended during the execution thereof; an end point coordinate value re-storage section configured to store the end point coordinate values for all the blocks analyzed by the end point coordinate value reanalysis section; a block end point coordinate value comparison section configured to compare the end point coordinate values for each of the blocks stored by the end point coordinate value storage section with the end point coordinate values for each of the blocks stored by the end point coordinate value re-storage section; and a block end point coordinate value excessive change notification section configured to notify the fact that the change during the suspension of the automatic operation exceeds a preset tolerance if the result of the comparison by the block end point coordinate value comparison section exceeds the tolerance. an end point coordinate value analysis section configured to analyze end point coordinate values for all the blocks at the start of the automatic operation; an end point coordinate value storage section configured to store the end point coordinate values for all the blocks analyzed by the end point coordinate value analysis section; an end point coordinate value reanalysis section configured to reanalyze the end point coordinate values for all the blocks when the automatic operation is restarted after the machining program or the machining condition is changed with the automatic operation suspended during the execution thereof; an end point coordinate value re-storage section configured to store the end point coordinate values for all the blocks analyzed by the end point coordinate value reanalysis section; a block end point coordinate value comparison section configured to compare the end point coordinate values for each of the blocks stored by the end point coordinate value storage section with the end point coordinate values for each of the blocks stored by the end point coordinate value re-storage section; and a block end point coordinate value excessive change notification section configured to notify the fact that the change during the suspension of the automatic operation exceeds a preset tolerance if the result of the comparison by the block end point coordinate value comparison section exceeds the tolerance.
A battery module, comprising: battery cells comprising electrode leads positioned toward the one side of the receiving housing and protruding from the receiving housing; and a battery receiving unit comprising a receiving housing with a receiving inner space and a receiving sidewall surrounding the receiving inner space, wherein the receiving inner space receives the battery cells therein and is open to one side of the receiving housing, and wherein the receiving sidewall comprises a first side, a second side opposite the first side and a third side opposite the open one side of the receiving housing; the first, second and third sides having a zigzag shape from a bottom of the receiving housing to a ceiling contacting the battery cells, the electrode leads of the battery cells being positioned toward the open one side of the receiving housing and protruding therefrom; a battery cover comprising a seating housing with a seating inner space open to the receiving inner space for seating the battery cells, and comprising a seating sidewall with a first side, a second side opposite the first side and a third side opposite the open side of the seating inner space; the first, second and third side having a zigzag shape from the bottom of the seating housing to the ceiling, wherein the seating housing covers the one side of the receiving housing and is penetrated by the electrode leads. battery cells comprising electrode leads positioned toward the one side of the receiving housing and protruding from the receiving housing; and a battery receiving unit comprising a receiving housing with a receiving inner space and a receiving sidewall surrounding the receiving inner space, wherein the receiving inner space receives the battery cells therein and is open to one side of the receiving housing, and wherein the receiving sidewall comprises a first side, a second side opposite the first side and a third side opposite the open one side of the receiving housing; the first, second and third sides having a zigzag shape from a bottom of the receiving housing to a ceiling contacting the battery cells, the electrode leads of the battery cells being positioned toward the open one side of the receiving housing and protruding therefrom; a battery cover comprising a seating housing with a seating inner space open to the receiving inner space for seating the battery cells, and comprising a seating sidewall with a first side, a second side opposite the first side and a third side opposite the open side of the seating inner space; the first, second and third side having a zigzag shape from the bottom of the seating housing to the ceiling, wherein the seating housing covers the one side of the receiving housing and is penetrated by the electrode leads.
A foundry process comprising the following steps: preheating of a mold to a first temperature; casting of a metal in the liquid state, at a second temperature higher than the first temperature, in the mold held in a main furnace at the first temperature since preheating, the difference between the first and second temperatures being not more than 170°C; cooling and solidification of the metal into equiaxed grains, in the mold held in the main furnace at a pressure below 0.1 Pa at least since casting, with a cooling rate of the furnace lower than or equal to 7°C/min; extraction of the mold from the main furnace; and demolding of the metal solidified into equiaxed grains. preheating of a mold to a first temperature; casting of a metal in the liquid state, at a second temperature higher than the first temperature, in the mold held in a main furnace at the first temperature since preheating, the difference between the first and second temperatures being not more than 170°C; cooling and solidification of the metal into equiaxed grains, in the mold held in the main furnace at a pressure below 0.1 Pa at least since casting, with a cooling rate of the furnace lower than or equal to 7°C/min; extraction of the mold from the main furnace; and demolding of the metal solidified into equiaxed grains.
A method for producing bread using aerated dough forming an aerated foam-like structure, comprising processes of mixing dough, aerating the dough, dividing the dough into portions of specified weight and baking of the bread, characterized in that the division process is performed after completion of the mixing process, before the aeration process, which is performed separately for each portion of dough, after which the aerated dough is baked into bread, wherein the aeration process is performed under a pressure of no less than 0.3 MPa followed by decreasing pressure to atmospheric at a controlled rate, between 0.02-0.2 MPa/s.
A liquid ejecting apparatus comprising: a carriage including an ejecting unit which can eject liquid onto a medium, and can reciprocate in a reciprocating direction; and a collecting unit which can collect mist which occurs along with ejecting of the liquid from the ejecting unit from a collecting port, wherein the carriage includes a catching unit (38a, 38b) which can catch mist which occurs along with ejecting of the liquid from the ejecting unit, on at least one of the outer sides of the ejecting unit in the reciprocating direction, wherein the catching unit includes a catching port for the mist into which an air current can flow along with the reciprocating of the carriage, an outlet for the air current, and a regulation unit which is arranged to regulate the air current which flows in from the catching port so as to go toward the outlet side, and wherein the outlet is provided at a position at which the outlet can face the collecting port. a carriage including an ejecting unit which can eject liquid onto a medium, and can reciprocate in a reciprocating direction; and a collecting unit which can collect mist which occurs along with ejecting of the liquid from the ejecting unit from a collecting port, wherein the carriage includes a catching unit (38a, 38b) which can catch mist which occurs along with ejecting of the liquid from the ejecting unit, on at least one of the outer sides of the ejecting unit in the reciprocating direction, wherein the catching unit includes a catching port for the mist into which an air current can flow along with the reciprocating of the carriage, an outlet for the air current, and a regulation unit which is arranged to regulate the air current which flows in from the catching port so as to go toward the outlet side, and wherein the outlet is provided at a position at which the outlet can face the collecting port.