mhurhangee/ep-ind-claims huggingface dataset:
Load transport vehicle, comprising: - a bulk container for receiving bulk material; - a tipping body hydraulically operated by means of a first hydraulic unit, which is adapted to tilt the bulk container about at least one axis in order to discharge the bulk material; and - a control unit for controlling the first hydraulic unit; further comprising at least one sensor unit (S1, S2) which is adapted to supply data to the control unit representing at least one current operating parameter of the load transport vehicle, the control unit being further adapted to control the first hydraulic unit according to at least one predefined sequence program and to modify the at least one predefined sequence program on the basis of the data detected by the at least one sensor unit (S1, S2) during execution of the sequence program, the one sensor unit (S1, S2) or at least one of the plurality of sensor units (S1, S2) being assigned to the first and/or second hydraulic unit (20, 24), characterised in that the one sensor unit (S1, S2) or at least one of the plurality of sensor units (S1, S2) is assigned to a hydraulic cylinder of the first or second hydraulic unit (20, 24) and adapted to detect the current stroke length of the hydraulic cylinder, for example by electromechanical means or ultrasound. - a bulk container for receiving bulk material; - a tipping body hydraulically operated by means of a first hydraulic unit, which is adapted to tilt the bulk container about at least one axis in order to discharge the bulk material; and - a control unit for controlling the first hydraulic unit;
A method for manufacturing an artificial skin tissue, comprising: preparing coated cells in which a cell surface is coated with a coating film containing an extracellular matrix component, forming a dermal tissue layer by culturing the coated cells, so that the coated cells are layered three-dimensionally; forming a basal layer including type IV collagen on the dermal tissue layer by bringing type IV collagen into contact with the dermal tissue layer; and forming an epidermal layer by arranging epidermal cells on the basal layer, wherein at least one of the dermal tissue layer and the epidermal layer includes dendritic cells. preparing coated cells in which a cell surface is coated with a coating film containing an extracellular matrix component, forming a dermal tissue layer by culturing the coated cells, so that the coated cells are layered three-dimensionally; forming a basal layer including type IV collagen on the dermal tissue layer by bringing type IV collagen into contact with the dermal tissue layer; and forming an epidermal layer by arranging epidermal cells on the basal layer, wherein at least one of the dermal tissue layer and the epidermal layer includes dendritic cells.
Extruder with an extruder head for extruding cord reinforced tire components, wherein the extruder head comprises a die for receiving an extrusion material, flow channels (33, 34) that debouch into the die and a cord guide for guiding cords into the die so that in use the cords are embedded in the extrusion material, wherein the die is provided with an elongate cross sectional profile that defines a first cross section of the extrusion material in the die, wherein the cross sectional profile has a profile width and a profile height that is relatively small with respect to the profile width, wherein the cord guide is arranged for guiding the cords into the die at a cord entry height with respect to the profile height so that the cords are embedded in the extrusion material during the extruding to form an extrudate, wherein the extruder head is provided with one or more first heating elements which are positioned at the die downstream of the flow channels (33, 34) for transferring heat into the extrusion material from a first side of the profile height at the die, wherein the extruder further comprises a control unit that is operationally connected to the one or more first heating elements for generating an adjustable height temperature gradient (G1, G2) in the extrusion material across the profile height to control swelling of the extrusion material relative to the cord entry height from the first cross section to a second cross section after the extrusion material leaves the die.
Axial plain bearing having at least two in each case integral segments and a carrier; wherein at least one of the at least two segments is fixed rigidly in the carrier; wherein the segments are separate pieces; wherein at least one segment has at least one wedge surface which serves as a sliding surface; characterized in that the carrier forms at least one depression; wherein the depression fixes the at least one segment in a form-fitting manner; wherein at least one of the at least two segments has at least one bore for supply of oil; wherein the carrier forms at least one lubricant line which opens out into the depression; and wherein the lubricant line is connected in a lubricant-conducting manner to the bore. at least one of the at least two segments is fixed rigidly in the carrier; wherein the segments are separate pieces; wherein at least one segment has at least one wedge surface which serves as a sliding surface; characterized in that the carrier forms at least one depression; wherein the depression fixes the at least one segment in a form-fitting manner; wherein at least one of the at least two segments has at least one bore for supply of oil; wherein the carrier forms at least one lubricant line which opens out into the depression; and wherein the lubricant line is connected in a lubricant-conducting manner to the bore.
A compound represented by the following Chemical Formula 1: wherein L is substituted or unsubstituted C 6-60 arylene, or substituted or unsubstituted C 2-60 heteroarylene containing any one or more heteroatoms selected from N, O and S; L 1 and L 2 are each independently a single bond or methylene; X 1 and X 2 are each independently a photocurable group or a thermosetting group independently represented by -L"-R", wherein L" is a single bond, -O-, -S-, - CH 2 -, -CH 2 O-, -OCH 2 -, or -CH 2 OCH 2 -, and R" is any one of the following: R' 1 to R' 3 and R" 1 to R" 3 are each independently hydrogen, deuterium, substituted or unsubstituted C 1-60 alkyl, substituted or unsubstituted C 1-60 alkoxy, substituted or unsubstituted C 6-60 aryl, or substituted or unsubstituted C 2-60 heteroaryl containing any one or more heteroatoms selected from N, O and S; n1 to n3 and m1 to m3 are each independently an integer of 0 to 3; and Ar 1 and Ar 2 are each independently a substituent group represented by the following Chemical Formula 2: wherein each R 1 is independently a halogen; each R 2 is independently hydrogen, deuterium, or C 1-10 alkyl; and n is an integer of 1 to 5, and m is 0 or 1, provided that n+m is 5 or less. L is substituted or unsubstituted C 6-60 arylene, or substituted or unsubstituted C 2-60 heteroarylene containing any one or more heteroatoms selected from N, O and S; L 1 and L 2 are each independently a single bond or methylene; X 1 and X 2 are each independently a photocurable group or a thermosetting group independently represented by -L"-R", wherein L" is a single bond, -O-, -S-, - CH 2 -, -CH 2 O-, -OCH 2 -, or -CH 2 OCH 2 -, and R" is any one of the following: R' 1 to R' 3 and R" 1 to R" 3 are each independently hydrogen, deuterium, substituted or unsubstituted C 1-60 alkyl, substituted or unsubstituted C 1-60 alkoxy, substituted or unsubstituted C 6-60 aryl, or substituted or unsubstituted C 2-60 heteroaryl containing any one or more heteroatoms selected from N, O and S; n1 to n3 and m1 to m3 are each independently an integer of 0 to 3; and Ar 1 and Ar 2 are each independently a substituent group represented by the following Chemical Formula 2: wherein each R 1 is independently a halogen; each R 2 is independently hydrogen, deuterium, or C 1-10 alkyl; and n is an integer of 1 to 5, and m is 0 or 1, provided that n+m is 5 or less. each R 1 is independently a halogen; each R 2 is independently hydrogen, deuterium, or C 1-10 alkyl; and n is an integer of 1 to 5, and m is 0 or 1, provided that n+m is 5 or less.
Instrument allowing the neutralising and removal of ticks attached to the skin of an animal or a human, said instrument comprising: - a tubular body formed of a first part and of a second part, each part extending longitudinally and forming a closed volume therebetween, the first part of the body extending to one of its ends by a spoon-forming element oriented in the direction of the second part, - an electricity generator connected to neutralising means, capable of delivering an electrical voltage which is lethal for the tick, - means for activating the electricity generator, the spoon-forming element being provided with an open slot extending perpendicularly with respect to the longitudinal axis of the body, and capable of sandwiching a tick attached to the skin of an animal or a human. - a tubular body formed of a first part and of a second part, each part extending longitudinally and forming a closed volume therebetween, the first part of the body extending to one of its ends by a spoon-forming element oriented in the direction of the second part, - an electricity generator connected to neutralising means, capable of delivering an electrical voltage which is lethal for the tick, - means for activating the electricity generator, the spoon-forming element being provided with an open slot extending perpendicularly with respect to the longitudinal axis of the body, and capable of sandwiching a tick attached to the skin of an animal or a human.
A viscous clutch assembly including a reservoir with a bore and a valve system (44; 144; 244) for reducing morning sickness effects, the valve system comprising: a valve element (44-1; 144-1; 244-1); a counterweight portion (44-2; 144-2); a pivot (44-3; 144-3) located in between the valve element and the counterweight portion, wherein the valve element and the counterweight portion are configured to commonly move about the pivot between open and closed positions; and characterized in further comprising a biasing member (44-4; 144-4) configured to bias the valve element to cover the bore in the closed position by default, wherein the counterweight portion is configured to counteract the biasing member under centrifugal loading such that the valve element at least partially uncovers the bore in the open position. a valve element (44-1; 144-1; 244-1); a counterweight portion (44-2; 144-2); a pivot (44-3; 144-3) located in between the valve element and the counterweight portion, wherein the valve element and the counterweight portion are configured to commonly move about the pivot between open and closed positions; and characterized in further comprising a biasing member (44-4; 144-4) configured to bias the valve element to cover the bore in the closed position by default, wherein the counterweight portion is configured to counteract the biasing member under centrifugal loading such that the valve element at least partially uncovers the bore in the open position.
An implantable medical device configured for use as part of a cardiac therapy system comprising a leadless cardiac pacemaker and the IMD, the IMD comprising: a plurality of electrodes for sensing cardiac activity; communication circuitry for communicating with at least the LCP; operational circuitry configured to receive signals from the plurality of electrodes and analyze cardiac activity, the operational circuitry comprising: sensing means to sense QRS complexes; QRS complex analysis means to determine whether a selected QRS complex represents a fusion beat; and interval change means to cause the communication circuitry to communicate a pacing interval change to the LCP in order to promote fusion beats if the QRS complex does not represent a fusion beat; characterized in that the operational circuitry is configured to use either template means to determine whether a sensed QRS complex matches a template indicative of fusion, or characteristics means to determine whether a sensed QRS complex has features indicative of fusion, to thereby determine whether a selected QRS com plex represents a fusion beat. a plurality of electrodes for sensing cardiac activity; communication circuitry for communicating with at least the LCP; operational circuitry configured to receive signals from the plurality of electrodes and analyze cardiac activity, the operational circuitry comprising: sensing means to sense QRS complexes; QRS complex analysis means to determine whether a selected QRS complex represents a fusion beat; and interval change means to cause the communication circuitry to communicate a pacing interval change to the LCP in order to promote fusion beats if the QRS complex does not represent a fusion beat; sensing means to sense QRS complexes; QRS complex analysis means to determine whether a selected QRS complex represents a fusion beat; and interval change means to cause the communication circuitry to communicate a pacing interval change to the LCP in order to promote fusion beats if the QRS complex does not represent a fusion beat; characterized in that the operational circuitry is configured to use either template means to determine whether a sensed QRS complex matches a template indicative of fusion, or characteristics means to determine whether a sensed QRS complex has features indicative of fusion, to thereby determine whether a selected QRS com plex represents a fusion beat.
A seal structure comprising: a housing which is provided with insertion holes to which a flexible wiring substrate is inserted; and bush-shaped rubber elastic material-made seal members which are integrally formed on said flexible wiring substrate, and seal gaps between said insertion holes and said flexible wiring substrate, characterized in that said flexible wiring substrate includes projected portions, and said projected portions expanding a width of said flexible wiring substrate are provided on parts of the flexible wiring substrate at positions at which said seal members are integrally formed. a housing which is provided with insertion holes to which a flexible wiring substrate is inserted; and bush-shaped rubber elastic material-made seal members which are integrally formed on said flexible wiring substrate, and seal gaps between said insertion holes and said flexible wiring substrate, characterized in that said flexible wiring substrate includes projected portions, and said projected portions expanding a width of said flexible wiring substrate are provided on parts of the flexible wiring substrate at positions at which said seal members are integrally formed.
Ground drilling device for drilling in soil by means of a drill string, wherein the ground drilling device has a drilling carriage and a sled movable in translational motion on the drilling carriage, and a holder is arranged on the sled a) for the screwing connection of a rod section to the drill string, or b) for the screwing detachment of a rod section from the drill string, wherein the holder can move in translational motion relative to the sled characterized in that a support bearing the holder is displaceably arranged on the sled, which is optionally detachably fixed on the sled to compensate for a change in the position of the holder caused by the screwing. a) for the screwing connection of a rod section to the drill string, or b) for the screwing detachment of a rod section from the drill string, wherein the holder can move in translational motion relative to the sled characterized in that a support bearing the holder is displaceably arranged on the sled, which is optionally detachably fixed on the sled to compensate for a change in the position of the holder caused by the screwing.
Torque transmission device notably for a motor vehicle, comprising an annular web, a first and a second annular friction member (8a, 8b), these being situated axially one on each side of the annular web and rotationally coupled to the said annular web, first and second elastic means (15a, 15b) mounted axially under stress between, respectively, the first and second friction members (8a, 8b) on the one hand, and the annular web on the other, so as to exert an axial force tending to separate the said friction members (8a, 8b) axially from one another, the first elastic means being chosen such that they exhibit a theoretical characteristic curve of the axial force generated by the first elastic means, as a function of the axial deformation of the first elastic means that comprises a portion that increases until it reaches a first theoretical force value that forms a theoretical-force maximum, followed by a decrease in portion, the first theoretical force value F1 being given with a first positive error Ep and with a first negative error En, characterized in that the second elastic means are chosen in such a way that they exhibit a theoretical characteristic curve of the axial force (F') generated by the second elastic means, as a function of the axial deformation (C') of the second elastic means that comprise an increasing portion in which the axial force (F') increases continuously with the axial deformation (C') of the said second elastic means, at least up to a second theoretical force value F'1, the second theoretical force value F'1 being given with a second positive error E'p and with a second negative error E'n, the second elastic means being chosen such that F1 + Ep ≤ F'1 + E'n.
Method of MR imaging of at least a portion of a body of a patient placed in an examination volume of a MR device, the method comprising the steps of: - subjecting the portion of the body to a first imaging sequence for acquiring a first signal data set; - subjecting the portion of the body to a second imaging sequence for acquiring a second signal data set, wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence and wherein at least the second signal data set (21, 23) is undersampled, wherein a variable density k-space sampling pattern of the second imaging sequence is determined from the first signal data set; - reconstructing a MR image from the second signal data set by means of compressed sensing and wherein the compressed sensing reconstruction is constrained by a support (22, 32), which support (22, 32) is derived from the first signal data set and wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence in such a manner that the second signal data set is of a different contrast type than the first signal data set. - subjecting the portion of the body to a first imaging sequence for acquiring a first signal data set; - subjecting the portion of the body to a second imaging sequence for acquiring a second signal data set, wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence and wherein at least the second signal data set (21, 23) is undersampled, wherein a variable density k-space sampling pattern of the second imaging sequence is determined from the first signal data set; - reconstructing a MR image from the second signal data set by means of compressed sensing and wherein the compressed sensing reconstruction is constrained by a support (22, 32), which support (22, 32) is derived from the first signal data set and wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence in such a manner that the second signal data set is of a different contrast type than the first signal data set.
A scanning range setting method using a surveying instrument configured to measure a distance to a measurement point by using a distance measuring light and measure an angle to the measurement point, and a scanner (22, 222) configured to scan with a scanning light around a rotation axis to acquire three-dimensional point group data, comprising steps of: measuring distances and angles to two or more measurement points by the surveying instrument; storing coordinates and angles of the two or more measurement points; setting a rectangular area including all of the two or more measurement points as a scanning range (40, 140) by using a horizontal angle range between two points most distant from each other in the horizontal direction in the two or more measurement points and a vertical angle range between two points most distant from each other in the vertical direction in the two or more measurement points by the scanner (22, 222); and scanning the scanning range (40, 140) by the scanner (22, 222), wherein a coordinate system of the scanner and a coordinate system of the surveying instrument match each other, characterized in that the coordinates of the two or more measurement points are merged with three-dimensional point group data acquired by the scanner (22, 222) to create a three-dimensional model. measuring distances and angles to two or more measurement points by the surveying instrument; storing coordinates and angles of the two or more measurement points; setting a rectangular area including all of the two or more measurement points as a scanning range (40, 140) by using a horizontal angle range between two points most distant from each other in the horizontal direction in the two or more measurement points and a vertical angle range between two points most distant from each other in the vertical direction in the two or more measurement points by the scanner (22, 222); and scanning the scanning range (40, 140) by the scanner (22, 222), wherein
A method for determining network performance information, comprising: sending, by a first network element, first information to a data analytics network element, wherein the first information is used to request network performance information, and the first information comprises one or more of the following: area information of a first area, an identifier of a requesting device, or a terminal device group identifier; receiving, by the first network element, the network performance information from the data analytics network element, wherein the network performance information comprises area information of a second area and second information, and the second information comprises one or more of the following: load information of a network in the second area, service experience information for a service in the second area, or a number of terminal devices in the second area, wherein the second area is a subarea of the first area; and determining, by the first network element, a first policy based on the network performance information. sending, by a first network element, first information to a data analytics network element, wherein the first information is used to request network performance information, and the first information comprises one or more of the following: area information of a first area, an identifier of a requesting device, or a terminal device group identifier; receiving, by the first network element, the network performance information from the data analytics network element, wherein the network performance information comprises area information of a second area and second information, and the second information comprises one or more of the following: load information of a network in the second area, service experience information for a service in the second area, or a number of terminal devices in the second area, wherein the second area is a subarea of the first area; and determining, by the first network element, a first policy based on the network performance information.