mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a porous three-dimensional article comprising the steps of: - creating a model of a non-porous three-dimensional article comprising a predetermined number of two-dimensional layers with a predetermined thickness, - creating a model of a porous structure comprising the steps of: ∘ defining a three-dimensional space comprising a completely randomized pattern of nodes without periodicity, wherein said nodes are connected together in a predetermined manner with struts, ∘ slicing said three-dimensional space into a predetermined number of two-dimensional layers with a predetermined thickness, ∘ applying one two-dimensional layer of said model of non-porous three-dimensional article on one two-dimensional layer of said porous structure resulting in a porous two-dimensional layer of said article, ∘ repeating said applying step for all non-porous two-dimensional layers of said article, - manufacturing the porous three-dimensional article by exposing fusible material to an energy source, so that a layer of fused material is corresponding to a porous two-dimensional layer of said article, wherein said three-dimensional article has a porous structure without periodicity. - creating a model of a non-porous three-dimensional article comprising a predetermined number of two-dimensional layers with a predetermined thickness, - creating a model of a porous structure comprising the steps of: ∘ defining a three-dimensional space comprising a completely randomized pattern of nodes without periodicity, wherein said nodes are connected together in a predetermined manner with struts, ∘ slicing said three-dimensional space into a predetermined number of two-dimensional layers with a predetermined thickness, ∘ applying one two-dimensional layer of said model of non-porous three-dimensional article on one two-dimensional layer of said porous structure resulting in a porous two-dimensional layer of said article, ∘ repeating said applying step for all non-porous two-dimensional layers of said article, ∘ defining a three-dimensional space comprising a completely randomized pattern of nodes without periodicity, wherein said nodes are connected together in a predetermined manner with struts, ∘ slicing said three-dimensional space into a predetermined number of two-dimensional layers with a predetermined thickness, ∘ applying one two-dimensional layer of said model of non-porous three-dimensional article on one two-dimensional layer of said porous structure resulting in a porous two-dimensional layer of said article, ∘ repeating said applying step for all non-porous two-dimensional layers of said article, - manufacturing the porous three-dimensional article by exposing fusible material to an energy source, so that a layer of fused material is corresponding to a porous two-dimensional layer of said article, wherein said three-dimensional article has a porous structure without periodicity.
An assembly and release apparatus for a garment, comprising: a C-shaped clip defining a channel and an open slot extending along the channel, open at at least one open end of the clip, and including at least one element configured for attaching the C-shaped clip to a first location on the garment; a pin slidably receivable in the channel of the C-shaped clip through the open end to assemble the C-shaped clip and the pin together, the pin having a tab or strip configured to extend through the slot, for attaching the pin to a second location on the garment; at least one detent element associated with the C-shaped clip, cooperatively engageable with the pin for retaining the pin in the channel, and releasable in a predetermined manner to allow slidably removing the pin from the channel through the open end, wherein the at least one detent element comprises a tab extending from the C-shaped clip, cooperatively engageable with or receivable in a notch in the pin, and removable therefrom in a manual pulling motion, wherein the C-shaped clip and the pin are elongate, and the tab is located about a central portion of the C-shaped clip, wherein the slot is sufficiently small to prevent passage of the pin therethrough. a C-shaped clip defining a channel and an open slot extending along the channel, open at at least one open end of the clip, and including at least one element configured for attaching the C-shaped clip to a first location on the garment; a pin slidably receivable in the channel of the C-shaped clip through the open end to assemble the C-shaped clip and the pin together, the pin having a tab or strip configured to extend through the slot, for attaching the pin to a second location on the garment; at least one detent element associated with the C-shaped clip, cooperatively engageable with the pin for retaining the pin in the channel, and releasable in a predetermined manner to allow slidably removing the pin from the channel through the open end, wherein the at least one detent element comprises a tab extending from the C-shaped clip, cooperatively engageable with or receivable in a notch in the pin, and removable therefrom in a manual pulling motion, wherein the C-shaped clip and the pin are elongate, and the tab is located about a central portion of the C-shaped clip, wherein the slot is sufficiently small to prevent passage of the pin therethrough.
A server system for providing data to at least one mobile device, the server system comprising: a processing resource configured to: obtain data that represents the variation of a speed modification parameter as a function of location, wherein the speed modification parameter is representative of an expected modification to an average speed of travel associated with road segments within a digital map due to weather or other environmental conditions; and process the data to generate at least one data set representative of the data for transmission to a mobile device; and a communications resource (162,164) for transmitting the at least one data set to the mobile device, wherein the processing resource is configured to determine from the data at least one contour (400,402) that represents a boundary of a respective area for which the speed modification parameter has substantially the same value, and to generate contour data representing the at least one contour, the data set comprising the contour data, and wherein the communications resource (162,164) is operable to receive location data from the mobile device identifying at least one location and the processing resource is configured to obtain the data set in dependence on the identified location. a processing resource configured to: obtain data that represents the variation of a speed modification parameter as a function of location, wherein the speed modification parameter is representative of an expected modification to an average speed of travel associated with road segments within a digital map due to weather or other environmental conditions; and process the data to generate at least one data set representative of the data for transmission to a mobile device; and obtain data that represents the variation of a speed modification parameter as a function of location, wherein the speed modification parameter is representative of an expected modification to an average speed of travel associated with road segments within a digital map due to weather or other environmental conditions; and process the data to generate at least one data set representative of the data for transmission to a mobile device; and a communications resource (162,164) for transmitting the at least one data set to the mobile device, wherein the processing resource is configured to determine from the data at least one contour (400,402) that represents a boundary of a respective area for which the speed modification parameter has substantially the same value, and to generate contour data representing the at least one contour, the data set comprising the contour data, and wherein the communications resource (162,164) is operable to receive location data from the mobile device identifying at least one location and the processing resource is configured to obtain the data set in dependence on the identified location.
A connector, in particular an automotive mini-coaxial connector, for connection to a compatible plug device, comprising: a housing body which comprises at least two coaxial connectors for connecting to corresponding coaxial sockets of the compatible plug device, wherein the coaxial connectors are oriented substantially in parallel with one another and extend in a connection direction from the housing body; and a connection housing connected to the housing body for connecting the connector to the compatible plug device, wherein the connection housing encloses the at least two coaxial connectors in the connection direction at least in sections, wherein the connection housing has exactly one insertion possibility for inserting the compatible plug device, wherein the coaxial connectors are connected to corresponding coaxial sockets when the compatible plug device is inserted in the connection housing in accordance with the exactly one insertion possibility, characterised in that the connection housing is arrangeable on the housing body according to one of four possible orientations, wherein the housing body comprises two positioning projections and the connection housing comprises four positioning openings, and wherein the two positioning projections and the four positioning openings are arranged in such a way that, depending on the orientation in which the connection housing is arranged on the housing body, each positioning projection engages in a dedicated positioning opening of the four positioning openings. a housing body which comprises at least two coaxial connectors for connecting to corresponding coaxial sockets of the compatible plug device, wherein the coaxial connectors are oriented substantially in parallel with one another and extend in a connection direction from the housing body; and a connection housing connected to the housing body for connecting the connector to the compatible plug device, wherein the connection housing encloses the at least two coaxial connectors in the connection direction at least in sections, wherein the connection housing has exactly one insertion possibility for inserting the compatible plug device, wherein the coaxial connectors are connected to corresponding coaxial sockets when the compatible plug device is inserted in the connection housing in accordance with the exactly one insertion possibility, characterised in that the connection housing is arrangeable on the housing body according to one of four possible orientations, wherein the housing body comprises two positioning projections and the connection housing comprises four positioning openings, and wherein the two positioning projections and the four positioning openings are arranged in such a way that, depending on the orientation in which the connection housing is arranged on the housing body, each positioning projection engages in a dedicated positioning opening of the four positioning openings.
A compound comprising a peptide and a conjugating group, wherein the peptide comprises the amino acid sequence: X 1 - X 2 - X 3 - X 4 - X 5 - X 6 - X 7 wherein X 1 is D-cysteine; X 2 is D-alanine or D-arginine; X 3 is D-arginine; X 4 is D-alanine or D-arginine; X 5 is D-arginine; X 6 is D-alanine; and X 7 is D-arginine, for use in the treatment of hyperparathyroidism or a hypercalcemic disorder. X 1 is D-cysteine; X 2 is D-alanine or D-arginine; X 3 is D-arginine; X 4 is D-alanine or D-arginine; X 5 is D-arginine; X 6 is D-alanine; and X 7 is D-arginine,
A vacuum cleaner comprising: a motor assembly for generating an air flow for drawing air carrying dust into a dust collector compartment; a cover for the motor assembly; and an air flow channel, from the motor assembly to an air outlet in the housing, characterised in that the cover comprises an inner and an outer motor assembly cover member (32, 33), each extending over an end of the motor assembly near the air outlet and along the side of the motor assembly to form a double wall (32b, 33b) of the wall structure between the motor assembly and the air outlet in a region where the air exits the motor assembly and each having an edge (32c, 33c) located with respect to other walls of the wall structure such that air flows around the edge to reach the outlet and thereby forms one or more turns of the air flow channel, wherein at least one of said edges (32c, 33c, 34c) has an undulating shape with a plurality of peaks and troughs and/or at least one of said edges (32c, 33c, 34c) are wave-shaped, preferably at least one of said edges (32c, 33c, 34c) are in the shape of a sinusoid curve. a motor assembly for generating an air flow for drawing air carrying dust into a dust collector compartment; a cover for the motor assembly; and an air flow channel, from the motor assembly to an air outlet in the housing, characterised in that the cover comprises an inner and an outer motor assembly cover member (32, 33), each extending over an end of the motor assembly near the air outlet and along the side of the motor assembly to form a double wall (32b, 33b) of the wall structure between the motor assembly and the air outlet in a region where the air exits the motor assembly and each having an edge (32c, 33c) located with respect to other walls of the wall structure such that air flows around the edge to reach the outlet and thereby forms one or more turns of the air flow channel, wherein at least one of said edges (32c, 33c, 34c) has an undulating shape with a plurality of peaks and troughs and/or at least one of said edges (32c, 33c, 34c) are wave-shaped, preferably at least one of said edges (32c, 33c, 34c) are in the shape of a sinusoid curve.
Exterior mirror apparatus for a motor vehicle, having a mirror housing, in which at least one mirror element and/or a camera sensor is arranged, having a mirror foot, which carries at its one end the mirror housing and is attachable or attached at its other end to the motor vehicle, and having at least one flow guiding element for influencing an air flow at the exterior mirror apparatus, wherein in each case a plurality of parallel flow guiding elements are arranged at a lower side and/or at an upper side of the mirror foot, wherein the respective flow guiding element is embodied in the form of a rib element projecting from the mirror foot such that it terminates perpendicular to the peel edge of the air flow at the mirror foot at the separation edge, and wherein the mirror foot is embodied such that the separation edge extends at an angle to the air flow direction when the motor vehicle travels straight ahead.
A method of drilling a borehole, comprising: generating periodically spaced acoustic pulses at a surface location, wherein the periodically spaced acoustic pulses are generated at times provided by a surface clock at a surface location; recording arrival times of the acoustic pulses at a downhole end of a drill string in the borehole; and using a downhole processor to: calculate travel times of the acoustic pulses using the recorded arrival times and without referring to the times from the surface clock; determine a length of the drill string between the surface location and a drill bit at the downhole end using the calculated travel times; correct the determined length using a known acoustic impedance of the drill string; obtain an azimuth angle and inclination of the drill bit; determine a position and orientation of the drill bit from the corrected length, the obtained azimuth angle and inclination of the drill bit; determine a trajectory for the borehole using in-situ formation measurements obtained downhole; and alter a steering parameter of the drill bit using the determined position and orientation of the drill bit to obtain the determined trajectory of the borehole. generating periodically spaced acoustic pulses at a surface location, wherein the periodically spaced acoustic pulses are generated at times provided by a surface clock at a surface location; recording arrival times of the acoustic pulses at a downhole end of a drill string in the borehole; and using a downhole processor to: calculate travel times of the acoustic pulses using the recorded arrival times and without referring to the times from the surface clock; determine a length of the drill string between the surface location and a drill bit at the downhole end using the calculated travel times; correct the determined length using a known acoustic impedance of the drill string; obtain an azimuth angle and inclination of the drill bit; determine a position and orientation of the drill bit from the corrected length, the obtained azimuth angle and inclination of the drill bit; determine a trajectory for the borehole using in-situ formation measurements obtained downhole; and alter a steering parameter of the drill bit using the determined position and orientation of the drill bit to obtain the determined trajectory of the borehole. calculate travel times of the acoustic pulses using the recorded arrival times and without referring to the times from the surface clock; determine a length of the drill string between the surface location and a drill bit at the downhole end using the calculated travel times; correct the determined length using a known acoustic impedance of the drill string; obtain an azimuth angle and inclination of the drill bit; determine a position and orientation of the drill bit from the corrected length, the obtained azimuth angle and inclination of the drill bit; determine a trajectory for the borehole using in-situ formation measurements obtained downhole; and alter a steering parameter of the drill bit using the determined position and orientation of the drill bit to obtain the determined trajectory of the borehole.
An absorbent article which has a longitudinal direction, a width direction, and a thickness direction, and comprises an absorbent body that includes at least a water absorbent fiber, wherein the absorbent body includes a deformation guiding portion which extends in a predetermined direction, and base portions which are disposed on both sides of the deformation guiding portion, the deformation guiding portion includes a compressed region which extends in the predetermined direction and in which the absorbent body is compacted in the thickness direction, and protruded portions which extend in the predetermined direction on both sides of the compressed region and protrude from the base portions toward a skin surface side, and a fiber density of the protruded portions is lower than a fiber density of the base portions.
A method for controlling transmission frequency for a subscriber line of a customer premise device by a transmission control apparatus in an access network structure in which at least one network management device and a plurality of customer premise devices are connected through a bundle cable including a plurality of subscriber lines, the method comprising: setting a partial frequency band in an entire service frequency band provided by the subscriber line as a transmission frequency band of the customer premise device; and setting variably the transmission frequency band in the entire service frequency band when a triggering event occurs, wherein traffic of the customer premise device is transmitted and received in the transmission frequency band, characterized in that the setting variably the transmission frequency band includes: setting variably a size of the transmission frequency band within the entire service frequency band upon the occurrence of the triggering event including changes in usage states of an adjacent subscriber line. setting a partial frequency band in an entire service frequency band provided by the subscriber line as a transmission frequency band of the customer premise device; and setting variably the transmission frequency band in the entire service frequency band when a triggering event occurs, wherein traffic of the customer premise device is transmitted and received in the transmission frequency band, characterized in that the setting variably the transmission frequency band includes: setting variably a size of the transmission frequency band within the entire service frequency band upon the occurrence of the triggering event including changes in usage states of an adjacent subscriber line.
A sanitary fitting for tapping water, in particular hot water, having a valve element for setting the water volume and having a water outlet line, which runs from the valve element via an outlet path to an outlet, wherein by closing the valve element, said water outlet line can be subjected to a negative pressure (p U), by means of which the water in the water outlet line can be at least partially back-suctioned against the outflow direction into a water tank, wherein the sanitary fitting has a valve housing with an adjoining outlet pipe, characterized in that a line disconnector is arranged in the water outlet line, which with the closing of the valve element separates the water column in the water outlet line into a first partial column, which can be back-suctioned into the water tank, and into a second partial column, wherein the second partial column flows out of the outlet in the outflow direction, wherein the line disconnector has a ventilation opening, which with the valve element closed brings about a pressure equalization between the ambient pressure and the water column pressure and at which the second partial column breaks as the valve element is closed, and wherein the water outlet line and the line disconnector are arranged in the outlet pipe and an adjustable closing member is assigned to the ventilation opening, which seals the ventilation opening in a water tight manner owing to the flow pressure (p F) in the water outlet line when the valve element is open, and unblocks the ventilation opening when the valve element is closed.