mhurhangee/ep-ind-claims huggingface dataset:
Method for the function testing of a welding robot, comprising the following measures: a) performing a function testing movement of a welding head of a welding robot by performing a control of the welding robot which is to achieve the movement of the welding head into a function testing reference position, in which, with the welding head positioned in the function testing reference position, a welding wire led out of the welding head touches a reference contact region of a function testing contact element, b) after the function testing movement has been carried out, applying a function testing voltage between the welding wire led out of the welding head and the function testing contact element, c) detecting a potential difference built up between the welding wire led out of the welding head and the function testing contact element and/or a current flow between the welding wire led out of the welding head and the function testing contact element, d) based on the potential difference detected in measure c) or/and the current flow detected in measure c), determining whether the welding head is in the function testing reference position after performing control of the welding robot to perform the function testing movement. a) performing a function testing movement of a welding head of a welding robot by performing a control of the welding robot which is to achieve the movement of the welding head into a function testing reference position, in which, with the welding head positioned in the function testing reference position, a welding wire led out of the welding head touches a reference contact region of a function testing contact element, b) after the function testing movement has been carried out, applying a function testing voltage between the welding wire led out of the welding head and the function testing contact element, c) detecting a potential difference built up between the welding wire led out of the welding head and the function testing contact element and/or a current flow between the welding wire led out of the welding head and the function testing contact element, d) based on the potential difference detected in measure c) or/and the current flow detected in measure c), determining whether the welding head is in the function testing reference position after performing control of the welding robot to perform the function testing movement.
Apparatus for fitting a cutting ring, having a fitting connecting piece which has a receiving depression, which receiving depression serves for receiving an end region of a tube, having a face surface, and a cutting ring, which is able to be pushed onto the end region and is to be fitted on the tube, wherein a measurement device is provided, characterized in that the measurement device is designed and configured to detect a position of a tube, inserted into the receiving depression, in relation to the fitting connecting piece, in that at least one stop surface is provided in the receiving depression, in that the measurement device is designed to detect at least the abutment of the face surface of the tube against the stop surface, and in that the measurement device is configured and designed to detect an extent of abutment.
The method of claim 1, wherein each of said one or more decision trees comprises a plurality of nodes, each node representing a decision as to a component and/or timing of an instruction to be generated at a decision point.
A use of an installation part and a pipe element for a joint installation in a wall or floor element, which installation part comprises a pipe socket which is formed by a form defining forming part and a deformation element (15a, b, c) which is softer by comparison, wherein the forming part and the deformation element (15a, b, c) are formed one-piece with each other, in which use the pipe element and the installation part are installed in assembled form into the wall or floor element, namely with the pipe element arranged in the pipe socket of the installation part, by filling with initially flowable and then solidifying fill material around it, characterized in that the forming part is structured circumferentially in a plurality of clamping sections with regard to a pipe axis of the pipe socket and is respectively interrupted between the clamping sections by a parting line such that the clamping sections are radially deflectable with regard to the pipe axis of the pipe socket, and wherein the deformation element (15a, b, c), viewed radially with regard to the pipe axis of the pipe socket in each case, extends at least locally across the parting lines. which installation part comprises a pipe socket which is formed by a form defining forming part and a deformation element (15a, b, c) which is softer by comparison, wherein the forming part and the deformation element (15a, b, c) are formed one-piece with each other, in which use the pipe element and the installation part are installed in assembled form into the wall or floor element, namely with the pipe element arranged in the pipe socket of the installation part, by filling with initially flowable and then solidifying fill material around it, characterized in that the forming part is structured circumferentially in a plurality of clamping sections with regard to a pipe axis of the pipe socket and is respectively interrupted between the clamping sections by a parting line such that the clamping sections are radially deflectable with regard to the pipe axis of the pipe socket, and wherein the deformation element (15a, b, c), viewed radially with regard to the pipe axis of the pipe socket in each case, extends at least locally across the parting lines.
A stand-alone hearing aid adapter (102, 202, 502, 602, 702), comprising: at least one input element (226, 729) configured to receive analog hearing aid output signals from an acoustic hearing aid (104, 204, 504, 604, 704); an adaption module (215, 715) configured to convert the analog hearing aid output signals into implantable hearing prosthesis input signals (112, 212, 712), wherein the adaption module (215, 715) comprises an analog-to-digital converter (228, 728) and an audio encoder (230, 730); and a wireless transmitter (232, 732) configured to transmit the implantable hearing prosthesis input signals (112, 212, 712) to an implantable hearing prosthesis (106, 206). at least one input element (226, 729) configured to receive analog hearing aid output signals from an acoustic hearing aid (104, 204, 504, 604, 704); an adaption module (215, 715) configured to convert the analog hearing aid output signals into implantable hearing prosthesis input signals (112, 212, 712), wherein the adaption module (215, 715) comprises an analog-to-digital converter (228, 728) and an audio encoder (230, 730); and a wireless transmitter (232, 732) configured to transmit the implantable hearing prosthesis input signals (112, 212, 712) to an implantable hearing prosthesis (106, 206).
A method used for provisioning an access key to receive broadcast services in a terminal storing a private key comprising: distributing a public key corresponding to the private key; receiving a secret key encrypted by the public key; decrypting the secret key by the private key; receiving the access key encrypted by the secret key; decrypting the access key by the secret key; deriving a short key based on the access key; receiving encrypted broadcast content; and decrypting the encrypted broadcast content using the short key. distributing a public key corresponding to the private key; receiving a secret key encrypted by the public key; decrypting the secret key by the private key; receiving the access key encrypted by the secret key; decrypting the access key by the secret key; deriving a short key based on the access key; receiving encrypted broadcast content; and decrypting the encrypted broadcast content using the short key.
Machine for the automatic inspection of individual objects, arranged essentially in a single layer, of a one piece surface product or particular products distributed in an essentially continuous layer, travelling in a flow on a conveying plane, said machine being on the one hand able and designed to distinguish objects, products or regions of a surface product according to their chemical composition and/or their colour and comprising on the other hand at least one lighting station and at least one detection station below which the flow to be inspected passes, the or each lighting station comprising means for the application and focusing of inspection radiation, obtained from one or more incoherent and broad-spectrum source(s), emitting said radiation in the direction of the conveying plane in such a way as to define an lighting plane, the intersection of said lighting plane and conveying plane defining an lighting line that extends transversely to the direction of travel of the flow, as well as a focused lighting zone in the form of a transverse strip, extending on both sides of said lighting line and in the conveying plane, the or each detection station comprising in particular on the one hand a detection means that makes it possible to periodically scan each point of the lighting line and that continuously receives radiation that is reflected by an elementary measurement zone or pixel that extends around the current scanned point, wherein this movable pixel defines during the scanning of the lighting line by the detection means, a detection zone in the form of a transverse strip, said zone having a dimension along an axis that is perpendicular to the direction of travel, corresponding to the inspection width of the detection station, and on the other hand means (9, 11) for collecting and transmitting the multi-spectral radiation beam reflected to at least one acquisition device, connected to an analysis device, able and designed to process the signal that is contained in the pixel and transmitted by the collecting and transmission means (9, 11), the machine (10 being characterised in that the focused lighting zone is contained in the detection zone over the entire width.
A method for wireless communications at a user equipment, UE (115; 405; 505; 705), comprising: participating (305; 1605; 1705; 1805) in a registration procedure with an access and mobility management function (205; 1205; 1305; 1505); transmitting (310; 1610; 1710; 1810) to the access and mobility management function, as part of the registration procedure, an indication of one or more single network slice selection assistance information or a network slice selection assistance information; receiving (320; 1615; 1715; 1815) a control message from the access and mobility management function, wherein the control message includes one or more encrypted single network slice selection assistance information values or an encrypted network slice selection assistance information value based at least in part on the indication; and transmitting (330; 1620; 1735; 1820), during a connection procedure, while the UE is in idle mode, the one or more encrypted single network slice selection assistance information values or the encrypted network slice selection assistance information value to a base station (105; 805; 905; 1105) as part of a message. participating (305; 1605; 1705; 1805) in a registration procedure with an access and mobility management function (205; 1205; 1305; 1505); transmitting (310; 1610; 1710; 1810) to the access and mobility management function, as part of the registration procedure, an indication of one or more single network slice selection assistance information or a network slice selection assistance information; receiving (320; 1615; 1715; 1815) a control message from the access and mobility management function, wherein the control message includes one or more encrypted single network slice selection assistance information values or an encrypted network slice selection assistance information value based at least in part on the indication; and transmitting (330; 1620; 1735; 1820), during a connection procedure, while the UE is in idle mode, the one or more encrypted single network slice selection assistance information values or the encrypted network slice selection assistance information value to a base station (105; 805; 905; 1105) as part of a message.
A method for the manufacture of at least one fibre composite component (1, 1'), with the steps: - preparation of a mould core with at least one convexity (28, 30), - arrangement of fibre material on the mould core to form a body of material, wherein in the region of the convexity (28, 30) a bulge - form body section (48, 50) is formed, - curing of the body of material, removal of the cured body of material from the mould, - thereafter opening of the bulge - form body section (48, 50) to form a hole, whilst allowing an integral collar surrounding the hole to remain in position. - preparation of a mould core with at least one convexity (28, 30), - arrangement of fibre material on the mould core to form a body of material, wherein in the region of the convexity (28, 30) a bulge - form body section (48, 50) is formed, - curing of the body of material, removal of the cured body of material from the mould, - thereafter opening of the bulge - form body section (48, 50) to form a hole, whilst allowing an integral collar surrounding the hole to remain in position.
Actuating solenoid with an energisable coil device for moving a solenoid armature inside a pole tube in at least one direction, the solenoid armature comprising at least one control means for influencing a force-displacement characteristic curve (44, 46, 48), at least in the sense of force reduction at the end of its operating stroke, the respective control means being incorporated in the outer contour (52, 62) of the solenoid armature and being formed by a control groove running at least in sections in the solenoid armature, said control groove being formed by a circumferential annular groove in the solenoid armature, and the pole tube being formed by a pole sleeve which is connected to a pole piece via a separating ring, which co-delimits a magnetic separation between the pole sleeve and the pole piece, characterised in that the annular groove on the outer circumference of the solenoid armature is incorporated in said solenoid armature and in that, in the fully deflected position of the solenoid armature, by applying the required actuating force, the circumferential annular groove of the solenoid armature maintains an axial distance from the separating ring.
A method of tracking-back a malicious data packet in a connection-oriented communication network, comprising the steps of: a) computing (12, 22) a flow identifier (Flowld) for uniquely identifying a given flow (F1...Fn) seen by a router interface at a network node during a given time window (Time Period); b) inserting said flow identifier (Flowld) into a data structure associated to said given time window (Time Period) and said router interface; c) storing said data structure in a searchable repository, available at said network node; d) repeating steps a) to c) for a next given time window (Time Period) and for each router interface at said network node, for all packets seen at the respective router interfaces over successive time windows, for populating said data repository with a plurality of data structures, each associated to a respective time window (Time Period) and a respective router interface; e) determining the time of arrival X of said malicious packet at said network node and computing the flow identifier (FlowId) for said malicious packet; and f) identifying a respective router interface for said malicious packet by searching for the flow identifier (FlowId) of said malicious packet in all data structures for said network node that cover the time of arrival X of said malicious packet. a) computing (12, 22) a flow identifier (Flowld) for uniquely identifying a given flow (F1...Fn) seen by a router interface at a network node during a given time window (Time Period); b) inserting said flow identifier (Flowld) into a data structure associated to said given time window (Time Period) and said router interface; c) storing said data structure in a searchable repository, available at said network node; d) repeating steps a) to c) for a next given time window (Time Period) and for each router interface at said network node, for all packets seen at the respective router interfaces over successive time windows, for populating said data repository with a plurality of data structures, each associated to a respective time window (Time Period) and a respective router interface; e) determining the time of arrival X of said malicious packet at said network node and computing the flow identifier (FlowId) for said malicious packet; and f) identifying a respective router interface for said malicious packet by searching for the flow identifier (FlowId) of said malicious packet in all data structures for said network node that cover the time of arrival X of said malicious packet.
An optical emission spectrometer comprising a plasma stand to establish a light emitting plasma from sample material, and an optical system to measure the spectrum of the light emitted by the plasma being characteristic to the sample material, where the optical system comprises at least one light entrance aperture, at least one diffraction grating to diffract the light coming from the plasma into a spectrum, and one or more detectors to measure the spectrum of the light, wherein the plasma stand and the optical system are directly and fixedly mounted on respectively a plasma stand flange and an optical system flange which are directly and fixedly connected to each other, wherein the optical emission spectrometer further comprises an analyzing unit with an analyzing software installed and executed on the analyzing unit adapted to analyze the measured spectrum and to compensate for a drift of the spectrum relative to the detector potentially caused by heat transferred from the plasma stand to the optical system considering the thermal expansion of the optical system, whereby the drift of emission lines is continuously compensated by the analyzing software during the warming up of the optical system resulting in the thermal expansion of the optical system.
A downlink control information transmission method, wherein the method comprises: determining, by a network device, a first resource set based on M resource subsets into which target resources are divided, wherein the M resource subsets do not overlap in frequency domain, and each resource subset comprises at least one control channel bearing resource unit, M is an integer, and M ≥ 2; the first resource set comprises N control channel bearing resource units, at least two of the N control channel bearing resource units belong to different resource subsets, and at least two of the N control channel bearing resource units are inconsecutive in frequency domain, N ≥ 2; wherein each of the N control channel bearing resource units includes at least two resource element groups, REGs, at least two REGs included in each control channel bearing resource unit are consecutive in frequency domain, each REG comprises a plurality of resource elements, REs; and sending, by the network device, downlink control information on the first resource set. determining, by a network device, a first resource set based on M resource subsets into which target resources are divided, wherein the M resource subsets do not overlap in frequency domain, and each resource subset comprises at least one control channel bearing resource unit, M is an integer, and M ≥ 2; the first resource set comprises N control channel bearing resource units, at least two of the N control channel bearing resource units belong to different resource subsets, and at least two of the N control channel bearing resource units are inconsecutive in frequency domain, N ≥ 2; wherein each of the N control channel bearing resource units includes at least two resource element groups, REGs, at least two REGs included in each control channel bearing resource unit are consecutive in frequency domain, each REG comprises a plurality of resource elements, REs; and sending, by the network device, downlink control information on the first resource set.
Container comprising in its lower part hatches actuated by a gripping device comprising a hollow guide tube, of axis XX', open at both ends, carrying at a first end an attachment plate and at a second end a fixed gripping member, and containing a movable control bar for opening and closing the hatches, wherein in a first position, the gripping device is attached by the attachment plate to an upper wall of the container such that the axis XX' of the gripping device is oriented vertically, characterised in that, in a second position, the gripping device is attached to the upper wall of the container by means of a hoisting and handling plate, comprising means for hooking to handling means, such that the axis XX' of the gripping device is arranged horizontally.
A device, configured to: apply a switching signal to a boost converter, wherein the boost converter is configured to provide a voltage for a haptic feedback element; wait for at least one time interval (301, 401); measure at least one voltage (302, 303, 304) on an output side of the boost converter; and estimate an equivalent input voltage of the boost converter based on the at least one measured voltage, wherein the equivalent input voltage represents a physical input voltage that would cause the at least one measured voltage in reference conditions; characterised in that, the device is further configured to: measure the input voltage directly in addition to the estimation of the equivalent input voltage; and deduce parameters related to the operation of the boost converter based on the equivalent input voltage and the measured input voltage. apply a switching signal to a boost converter, wherein the boost converter is configured to provide a voltage for a haptic feedback element; wait for at least one time interval (301, 401); measure at least one voltage (302, 303, 304) on an output side of the boost converter; and estimate an equivalent input voltage of the boost converter based on the at least one measured voltage, wherein the equivalent input voltage represents a physical input voltage that would cause the at least one measured voltage in reference conditions; characterised in that, the device is further configured to: measure the input voltage directly in addition to the estimation of the equivalent input voltage; and deduce parameters related to the operation of the boost converter based on the equivalent input voltage and the measured input voltage. measure the input voltage directly in addition to the estimation of the equivalent input voltage; and deduce parameters related to the operation of the boost converter based on the equivalent input voltage and the measured input voltage.
A nonwoven fabric comprising a plurality of polylactic acid-containing fibers that form a nonwoven web, wherein the filaments of the web are boldly bound perpendicular to their lay-down direction which is the machine direction, wherein the web has a side which is provided with an alternating pattern of individualized bonded areas which bonded areas are in the form of rods that have a linear shape and which are arranged in the cross direction of the web, wherein the rods each in their length direction form an angle of 90° with the machine direction of the web, and the rods are arranged in such a way that in the machine direction of the web no uninterrupted regions exist along the web while in the cross direction of the web the arrangement of the rods defines a plurality of uninterrupted regions that extend continuously along the web, the alternating pattern of individualized bonded areas defines a non-bonded area, the web has a basis weight on the range of from 5-50 g/m 2, the surface of the bonded areas is in the range of 5-20 % of the total surface of the side, and the surface of the non-bonded area is in the range of 80-95 % of the total surface of the side.