mhurhangee/ep-ind-claims huggingface dataset:
Rotary clothes dryer with a vertical pole, a spreading frame for receiving a washing line, and a locking device for locking the spreading frame in a closed position, wherein the spreading frame has a plurality of arms and a plurality of spreading arms for supporting the arms, wherein the arms are mounted pivotably about pivot axes in a lower collar, which is displaceable along the pole, and wherein the spreading arms are articulated in articulation axes (8, 6) on an upper collar, which is fixed to the pole, and on the arms, characterized in that the pivot points of the articulation axes of the spreading arms in the arms are spaced apart radially further from a vertical centre axis of the pole than the pivot points of the pivot axes in the lower collar and the pivot points of the articulation axes in the upper collar, and in that the locking device has at least one rigid engagement element fastened to the upper collar and a plurality of rigid mating elements which are fastened to a respective free end of the arms and are interlocked in the closed state of the spreading frame, and in that the spreading frame has a displacement device for vertically displacing the arms in the closed state of the spreading frame. the pivot points of the articulation axes of the spreading arms in the arms are spaced apart radially further from a vertical centre axis of the pole than the pivot points of the pivot axes in the lower collar and the pivot points of the articulation axes in the upper collar, and in that the locking device has at least one rigid engagement element fastened to the upper collar and a plurality of rigid mating elements which are fastened to a respective free end of the arms and are interlocked in the closed state of the spreading frame, and in that the spreading frame has a displacement device for vertically displacing the arms in the closed state of the spreading frame.
A gingival fibroblast-derived product for use in the prevention or treatment of an orthopaedic pathology in an individual, wherein the gingival fibroblast-derived product is selected from the group consisting of gingival fibroblast whole cells, a gingival fibroblast-conditioned medium, a gingival fibroblast culture, and a gingival fibroblast extract, and wherein the gingival fibroblast-derived product is obtained from gingival fibroblasts which have not undergone a differentiation into cells having an osteogenic phenotype.
Fitment for package for preparing a beverage connectable to a machine for supplying sanitized liquid to the package, wherein the fitment comprises: a sealing portion for sealing to a container, a housing and a fluid connector adapted for fluidly connecting the fitment to a liquid supply and treatment unit of the machine and to supply liquid inside the container; the fluid connector being arranged in the housing to be displaceable between a storage position in which the fluid connector is enclosed in the housing and a treatment position in which at least a frontal portion of the fluid connector including the tip of the frontal portion with a liquid inlet extends beyond the housing, wherein the fluid connector is arranged in the housing to be slidably moveable between the storage position and the treatment position, wherein the housing is configured as a guiding tube for housing the fluid connector; the housing having a front end opening for enabling the frontal portion of the fluid connector to extend beyond the housing in the treatment position characterised in that the housing comprises a rear end opening for forming a passage to a pusher of the machine for enabling the pusher to move the fluid connector into the treatment position. a sealing portion for sealing to a container, a housing and a fluid connector adapted for fluidly connecting the fitment to a liquid supply and treatment unit of the machine and to supply liquid inside the container; the fluid connector being arranged in the housing to be displaceable between a storage position in which the fluid connector is enclosed in the housing and a treatment position in which at least a frontal portion of the fluid connector including the tip of the frontal portion with a liquid inlet extends beyond the housing, wherein the fluid connector is arranged in the housing to be slidably moveable between the storage position and the treatment position, wherein the housing is configured as a guiding tube for housing the fluid connector; the housing having a front end opening for enabling the frontal portion of the fluid connector to extend beyond the housing in the treatment position characterised in that the housing comprises a rear end opening for forming a passage to a pusher of the machine for enabling the pusher to move the fluid connector into the treatment position.
A method in a network node (115A-C, 120, 130), comprising: providing to a user equipment (110A-C) a dedicated physical control channel, the dedicated physical control channel being associated with a first fractional dedicated physical channel for conveying transmit power control commands to the user equipment (110A-C) for power controlling the dedicated physical control channel; providing to the user equipment (110A-C) a secondary dedicated physical control channel, the secondary dedicated physical control channel comprising an uplink control channel for communicating transmit power control commands, the secondary dedicated physical control channel being associated with a second fractional dedicated physical channel for conveying transmit power control commands to the user equipment (110A-C) for power controlling the secondary dedicated physical control channel; receiving, from the user equipment (110A-C), a downlink transmit power control command, the downlink transmit power control command being carried on the secondary dedicated physical control channel, wherein the downlink transmit power control command is determined based on a quality of the second fractional dedicated physical channel independent of a quality of a third fractional dedicated physical channel associated with a second network node (115A-C, 120, 130); and controlling a transmit power of the second fractional dedicated physical channel associated with the secondary dedicated physical control channel based on the downlink transmit power control command carried on the secondary dedicated physical control channel. providing to a user equipment (110A-C) a dedicated physical control channel, the dedicated physical control channel being associated with a first fractional dedicated physical channel for conveying transmit power control commands to the user equipment (110A-C) for power controlling the dedicated physical control channel; providing to the user equipment (110A-C) a secondary dedicated physical control channel, the secondary dedicated physical control channel comprising an uplink control channel for communicating transmit power control commands, the secondary dedicated physical control channel being associated with a second fractional dedicated physical channel for conveying transmit power control commands to the user equipment (110A-C) for power controlling the secondary dedicated physical control channel; receiving, from the user equipment (110A-C), a downlink transmit power control command, the downlink transmit power control command being carried on the secondary dedicated physical control channel, wherein the downlink transmit power control command is determined based on a quality of the second fractional dedicated physical channel independent of a quality of a third fractional dedicated physical channel associated with a second network node (115A-C, 120, 130); and controlling a transmit power of the second fractional dedicated physical channel associated with the secondary dedicated physical control channel based on the downlink transmit power control command carried on the secondary dedicated physical control channel.
A fluid inlet device suitable for introducing a mixture of liquid and gas into a vessel, which fluid inlet device comprises an inlet flow channel having an inlet end for receiving the mixture of liquid and gas; and a plurality of curved guiding vanes placed one behind the other along the inlet flow channel, wherein each vane comprises an intercepting part extending towards the inlet end of the inlet flow channel, and an outwardly directed deflecting part defining a generally convex side and a generally concave side of the curved vane, the width of the deflecting part of the vane decreasing in downstream direction, and the deflecting part having a trailing end extending between an upper rim and a lower rim to a trailing rim, wherein the deflecting parts of two consecutive vanes form an outlet channel of the inlet device and define a main direction of gas flow in the outlet channel, and wherein at least one of the vanes is provided with a liquid catcher channel extending along at least part of a rim of the vane from an upstream position with respect to the vane to a downstream position, the downstream end of the liquid catcher channel extending until the downstream end of the trailing end of the vane, or beyond the downstream end, wherein the main direction of gas flow is in the horizontal plane of the inlet device and the upstream position is at a first distance from the lower rim and the downstream position is at a second, smaller distance from the lower rim, and wherein a virtual line along the vane between the upstream position and the downstream position deviates from the main direction of gas flow by an angle of at least 10 degrees and at most 75 degrees.
Method for estimating an axle load distribution in a road train (100, 200), wherein the method has a step of ascertainment, in which at least one load on an axle of the road train (100, 200) is ascertained using a slip value and a force value, wherein the slip value represents a slip between the axle and a further axle of the road train (100, 200) and the force value represents a tractive or decelerating force at the axle, characterized in that the load is further ascertained using a freewheeling slip value (so) in the step of ascertainment, wherein the freewheeling slip value (so) represents the slip between the axle and the further axle when the force on both axles (108, 110) is less than a threshold value and wherein a step of capture is provided, in which a first vehicle state and at least one second vehicle state are captured during the operation of the road train (100, 200), wherein a first slip value and a first force value are captured in the first vehicle state and a second slip value and a second force value are captured in the second vehicle state, wherein the freewheeling slip value (so) is determined using the first vehicle state and the second vehicle state.
A substrate carrier for electroplating a plurality of substrates, the substrate carrier comprising: a non-conductive carrier body (102, 202) for holding the substrates, characterized in that an area of the non-conductive carrier body (102, 202) that is directly behind the substrates being continuous so as to be impermeable to flow of electroplating solution through the area of the non-conductive carrier body; a plurality of aligning features on the non-conductive carrier body, wherein the aligning features are arranged to surround and align the substrates; and electrically-conductive lines embedded within the non-conductive carrier body. a non-conductive carrier body (102, 202) for holding the substrates, characterized in that an area of the non-conductive carrier body (102, 202) that is directly behind the substrates being continuous so as to be impermeable to flow of electroplating solution through the area of the non-conductive carrier body; a plurality of aligning features on the non-conductive carrier body, wherein the aligning features are arranged to surround and align the substrates; and electrically-conductive lines embedded within the non-conductive carrier body.
A battery state detection device comprising: a casing, and a shunt resistor in the casing; and a battery post terminal, the shunt resistor including a conductor part having, at least partially, a flat shape, the battery post terminal including a battery post connecting part that is to be connected to a battery post, and a shunt resistor connecting part that is to be connected to the conductor part of the shunt resistor, the shunt resistor connecting part having a flat shape, the conductor part of the shunt resistor and the shunt resistor connecting part of the battery post terminal being connected to each other by welding, characterized in that the battery post terminal includes a bent portion and a reinforcement wall, wherein the bent portion being a cranked portion provided between the shunt resistor connecting part and the battery post connecting part, and a fold line of the bent portion is substantially in parallel to the longitudinal direction of the shunt resistor, that the width of the battery post terminal is increased in a boundary between its portion exposed to the outside of the casing and its portion inserted in the casing, and that the reinforcement wall is connected to a lateral end surface of the bent portion.
A driving tool for driving in fasteners on a cartridge belt, in particular nails or staples, in driving cycles out of a driving channel, wherein a driving cycle is combined with a conveying cycle for the cartridge belt along a conveying path, wherein a mechanical cartridge belt limit switch is provided which senses at a sensing point in the conveying path whether the cartridge belt is present, wherein, after the cartridge belt is no longer present at the sensing point following a conveying cycle, the cartridge belt limit switch initiates the deactivation of the driving tool, characterized in that after the cartridge belt is no longer present at the sensing point, the cartridge belt limit switch still allows a last driving cycle or a last group of driving cycles to be carried out, and the deactivation of the driving tool is initiated only after the last driving cycle or the last group of driving cycles has been completed, wherein a conveying drive means is provided for conveying the fasteners to the driving channel and the cartridge belt limit switch is coupled to the conveying drive means in such a way that, when the cartridge belt is no longer present at the sensing point, a subsequent conveying cycle causes the deactivation of the driving tool.
Bogie for a rail vehicle, - with at least four wheels, - with an driving device for horizontal force transmission between the bogie and a chassis of the rail vehicle, - with a spring means for vertical force transmission between the bogie and the chassis, - wherein the spring means has a spring unit centrally arranged on the bogie, - wherein an driving pivot of the driving device passes vertically through the spring unit, characterised in that the towing device comprises a platform from which the driving pivot protrudes and which is so attachable to the chassis that the spring unit resiliently supports the platform vertically on the bogie, and that the driving device and the spring means have a slight longitudinal eccentricity with respect to the rotation axis of the bogie. - with at least four wheels, - with an driving device for horizontal force transmission between the bogie and a chassis of the rail vehicle, - with a spring means for vertical force transmission between the bogie and the chassis, - wherein the spring means has a spring unit centrally arranged on the bogie, - wherein an driving pivot of the driving device passes vertically through the spring unit, characterised in that the towing device comprises a platform from which the driving pivot protrudes and which is so attachable to the chassis that the spring unit resiliently supports the platform vertically on the bogie, and that the driving device and the spring means have a slight longitudinal eccentricity with respect to the rotation axis of the bogie.
A lead angle estimator for estimating a lead angle of a brushless DC motor, the lead angle being the angle between a phase-voltage-vector of a phase-voltage, and a phase-current-vector of a phase-current, the lead angle estimator comprising a sampling unit and a processing unit, - the sampling unit being adapted for obtaining phase-samples which are a measure of the phase-current, - the processing unit being adapted to estimate the lead angle by calculating a difference between at least one phase-sample at the end of an extremum period of the phase voltage and at least one phase-sample at the beginning of the extremum period, wherein the extremum period is a period around a maximum of the phase voltage or around a minimum of the phase-voltage, and characterized in that the processing unit being adapted to normalize the obtained difference by dividing the difference of the phase-samples with an average of the phase-samples during the extremum period. - the sampling unit being adapted for obtaining phase-samples which are a measure of the phase-current, - the processing unit being adapted to estimate the lead angle by calculating a difference between at least one phase-sample at the end of an extremum period of the phase voltage and at least one phase-sample at the beginning of the extremum period, wherein the extremum period is a period around a maximum of the phase voltage or around a minimum of the phase-voltage, and characterized in that the processing unit being adapted to normalize the obtained difference by dividing the difference of the phase-samples with an average of the phase-samples during the extremum period. wherein the extremum period is a period around a maximum of the phase voltage or around a minimum of the phase-voltage, and characterized in that the processing unit being adapted to normalize the obtained difference by dividing the difference of the phase-samples with an average of the phase-samples during the extremum period.
A compound of Formula I, or a pharmaceutically acceptable salt thereof, wherein R 1 is hydrogen, an optionally substituted alkyl, an optionally substituted alkenyl, or an optionally substituted alkynyl, and R 2 is wherein p is an integer ranging from 1-6, and wherein: n is an integer ranging from 1-6; and R 4 is hydrogen, an optionally substituted alkyl, an optionally substituted aralkyl or heteroaralkyl, an optionally substituted alkenyl, an optionally substituted alkynyl, an optionally substituted cycloalkyl, an optionally substituted heterocyclyl, an optionally substituted aryl, or an optionally substituted heteroaryl; and R 5 is hydrogen, an optionally substituted alkyl, an optionally substituted aralkyl or heteroaralkyl, an optionally substituted alkenyl, an optionally substituted alkynyl, an optionally substituted cycloalkyl, an optionally substituted heterocyclyl, an optionally substituted aryl, or an optionally substituted heteroaryl, or wherein R 5 is hydrogen, a C 1-12 alkyl, preferably a C 1-6 alkyl, phenyl, or benzyl; and R 6 is hydrogen, an optionally substituted alkyl, an optionally substituted aralkyl or optionally substituted heteroaralkyl, an optionally substituted alkenyl, an optionally substituted alkynyl, an optionally substituted cycloalkyl, an optionally substituted heterocyclyl, an optionally substituted aryl, or an optionally substituted heteroaryl. wherein R 1 is hydrogen, an optionally substituted alkyl, an optionally substituted alkenyl, or an optionally substituted alkynyl, and R 2 is wherein p is an integer ranging from 1-6, and wherein: n is an integer ranging from 1-6; and R 4 is hydrogen, an optionally substituted alkyl, an optionally substituted aralkyl or heteroaralkyl, an optionally substituted alkenyl, an optionally substituted alkynyl, an optionally substituted cycloalkyl, an optionally substituted heterocyclyl, an optionally substituted aryl, or an optionally substituted heteroaryl; and R 5 is hydrogen, an optionally substituted alkyl, an optionally substituted aralkyl or heteroaralkyl, an optionally substituted alkenyl, an optionally substituted alkynyl, an optionally substituted cycloalkyl, an optionally substituted heterocyclyl, an optionally substituted aryl, or an optionally substituted heteroaryl, or wherein R 5 is hydrogen, a C 1-12 alkyl, preferably a C 1-6 alkyl, phenyl, or benzyl; and R 6 is hydrogen, an optionally substituted alkyl, an optionally substituted aralkyl or optionally substituted heteroaralkyl, an optionally substituted alkenyl, an optionally substituted alkynyl, an optionally substituted cycloalkyl, an optionally substituted heterocyclyl, an optionally substituted aryl, or an optionally substituted heteroaryl.
A process for making an article by solid free-form fabrication, the process including the steps of: a) providing an STL file containing a model of the article; b) for at least one print layer of the article, using an application programing interface to instruct a rendering system to use a first bitmap, BM1, as a rendering target and to i) clear depth and color buffers; ii) enable depth testing; iii) set up a top or bottom view orthographic projection of the model; iv) set background color to a first color, C1; v) clip the model with a horizontal clipping plane at a desired height, Z n, to disregard all article geometry above Z n when the orthographic projection was set to be a top view or to disregard all model geometry below Z n when the orthographic projection was set to be a bottom view; vi) cull interior faces of the model; vii) render the model in C1 resulting in a first image; viii) cull exterior faces of the model; ix) render the model in a second color, C2, resulting in a second image; and x) represent the layer in BM1 by an "exclusive or" combination of the first and second images (110, 112); and c) utilizing BM1 for printing the at least one layer. a) providing an STL file containing a model of the article; b) for at least one print layer of the article, using an application programing interface to instruct a rendering system to use a first bitmap, BM1, as a rendering target and to i) clear depth and color buffers; ii) enable depth testing; iii) set up a top or bottom view orthographic projection of the model; iv) set background color to a first color, C1; v) clip the model with a horizontal clipping plane at a desired height, Z n, to disregard all article geometry above Z n when the orthographic projection was set to be a top view or to disregard all model geometry below Z n when the orthographic projection was set to be a bottom view; vi) cull interior faces of the model; vii) render the model in C1 resulting in a first image; viii) cull exterior faces of the model; ix) render the model in a second color, C2, resulting in a second image; and x) represent the layer in BM1 by an "exclusive or" combination of the first and second images (110, 112); and i) clear depth and color buffers; ii) enable depth testing; iii) set up a top or bottom view orthographic projection of the model; iv) set background color to a first color, C1; v) clip the model with a horizontal clipping plane at a desired height, Z n, to disregard all article geometry above Z n when the orthographic projection was set to be a top view or to disregard all model geometry below Z n when the orthographic projection was set to be a bottom view; vi) cull interior faces of the model; vii) render the model in C1 resulting in a first image; viii) cull exterior faces of the model; ix) render the model in a second color, C2, resulting in a second image; and x) represent the layer in BM1 by an "exclusive or" combination of the first and second images (110, 112); and c) utilizing BM1 for printing the at least one layer.