mhurhangee/ep-ind-claims huggingface dataset:
A point contact gear based on conjugate curves, characterized in that: a curve equation of a contact curve composed of meshing points on tooth surfaces of the gear is { x 1 = x i u y 1 = y i u z 1 = z i u u min ≤ u ≤ u max i = 1,3,5,...,2 n + 1 wherein, u is an independent variable parameter of the curve; u min and u max is a value range of the contact curve, viz. from a parameter of the curve at engaging-in point of the tooth profile to a parameter of the curve at engaging-out point of the tooth profile; the subscript i represents different contact curves; an equation of an equidistant curve of said contact curve along the direction of common normal line of the tooth surfaces is { x 1 ⁢ ρ = x 1 + ρ i · n xi y 1 ⁢ ρ = y 1 + ρ i · n yi z 1 ⁢ ρ = z 1 + ρ i · n zi wherein, ρ i is a distance between the contact curve and the equidistant curve; n xi, n yi and n zi are decomposed normal vectors of unit vector of the common normal line at the meshing point along the directions of axes of the coordinate system regarding to the gear; an equation of a tooth profile curve of the gear under the coordinate system of normal plane of the contact curve is { x n 1 = x n 1 v 1 y n 1 = y n 1 v 1 z n 1 = z n 1 v 1 Wherein, ν l is an independent variable parameter of the curve. wherein, u is an independent variable parameter of the curve; u min and u max is a value range of the contact curve, viz. from a parameter of the curve at engaging-in point of the tooth profile to a parameter of the curve at engaging-out point of the tooth profile; the subscript i represents different contact curves; an equation of an equidistant curve of said contact curve along the direction of common normal line of the tooth surfaces is wherein, ρ i is a distance between the contact curve and the equidistant curve; n xi, n yi and n zi are decomposed normal vectors of unit vector of the common normal line at the meshing point along the directions of axes of the coordinate system regarding to the gear; an equation of a tooth profile curve of the gear under the coordinate system of normal plane of the contact curve is
Points adjustment mechanism for two movable point tongues arranged between two opposing stock rails with a lock housing likewise arranged between the opposing stock rails, wherein: a) the lock housing is supported by a lock fastening arranged between the stock rails; b) the lock fastening can be fastened to two adjacently arranged sleeper bodies or to both flanges of a hollow sleeper; c) a locking of the points adjustment mechanism by the interaction of a cam rod guided in a central lock support and at least one locking pawl pivotably mounted on the lock housing is achieved, wherein the pivot axis is aligned horizontally; d) the lock support is connected to the lock fastening; e) starting from the lock housing by means of a tongue adjusting rod fastened to it and an adapter piece fastened to it, a point of attachment to the point tongue is provided, and f) the cam rod can be moved by a point machine between the two end positions of the point tongues. a) the lock housing is supported by a lock fastening arranged between the stock rails; b) the lock fastening can be fastened to two adjacently arranged sleeper bodies or to both flanges of a hollow sleeper; c) a locking of the points adjustment mechanism by the interaction of a cam rod guided in a central lock support and at least one locking pawl pivotably mounted on the lock housing is achieved, wherein the pivot axis is aligned horizontally; d) the lock support is connected to the lock fastening; e) starting from the lock housing by means of a tongue adjusting rod fastened to it and an adapter piece fastened to it, a point of attachment to the point tongue is provided, and f) the cam rod can be moved by a point machine between the two end positions of the point tongues.
A container for consumer goods, comprising container walls, wherein the container is formed from a blank, wherein at least one container wall comprises a fluid guide element (16, 17, 18, 36, 37, 38, 39, 40, 41) and adhesive is provided in the fluid guide element (16, 17, 18, 36, 37, 38, 39, 40, 41), wherein the at least one container wall is formed from a panel (27, 29, 31) of the blank, and wherein the container wall is fixed by means of the adhesive to a further component of the container, characterized in that the fluid guide element (16, 17, 18, 36, 37, 38, 39, 40, 41) is adapted to promote the adhesive into advancing into a predetermined direction, such that locally applied adhesive is distributed to the desired locations in the panel (27, 29, 31).
An electro-conductive member for electrophotography, comprising: an electro-conductive mandrel; and an electro-conductive layer, wherein: the electro-conductive layer comprises an ionic electro-conductive resin and an ion carrier; and the ionic electro-conductive resin has at least one structure selected from the group consisting of structures represented by the following formulae,,, and, and a structure represented by the following formula: in the formula to the formula, R 1, R 2, R 3, and R 4 each represent a divalent organic group, X 1, X 2, X 3, and X 4 each independently represent a sulfonic group or a quaternary ammonium base, and I represents an integer of 1 or more and 23 or less. an electro-conductive mandrel; and an electro-conductive layer, wherein: the electro-conductive layer comprises an ionic electro-conductive resin and an ion carrier; and the ionic electro-conductive resin has at least one structure selected from the group consisting of structures represented by the following formulae,,, and, and a structure represented by the following formula: in the formula to the formula, R 1, R 2, R 3, and R 4 each represent a divalent organic group, X 1, X 2, X 3, and X 4 each independently represent a sulfonic group or a quaternary ammonium base, and I represents an integer of 1 or more and 23 or less. the electro-conductive layer comprises an ionic electro-conductive resin and an ion carrier; and the ionic electro-conductive resin has at least one structure selected from the group consisting of structures represented by the following formulae,,, and, and a structure represented by the following formula: in the formula to the formula, R 1, R 2, R 3, and R 4 each represent a divalent organic group, X 1, X 2, X 3, and X 4 each independently represent a sulfonic group or a quaternary ammonium base, and I represents an integer of 1 or more and 23 or less.
A lighting device for a bicycle comprising at least one light emitter and a controller programmed to vary the brightness and/or flash rate and/or flashing pattern of the at least one light emitter based upon the measurement of the motion of the device, wherein the controller is provided with sensor means in the form of a three axis accelerometer to measure the acceleration, orientation and rate of change of orientation of the device, characterised in that the controller is configured to compare the measured acceleration, orientation and rate of change of orientation with reference data contained in predetermined look-up tables to determine a risk score, the controller being configured to select the brightness and/or flash rate and/or flashing pattern of the at least one light emitter as a function of the risk score.
A method, implemented by a security relay node in a Public Land Mobile Network, PLMN, the method comprising the steps of: - receiving, from a Network Function, NF, within the PLMN, a control packet to be provided to a further PLMN; - delegating, to a remote security node, a setup of a N32-c interface towards the further PLMN such that said N32-c interface terminates at said remote security node; - relaying said control packet to the remote security node for delivery of the control packet, over the N32-C interface, towards the further PLMN, the remote security node being outside of both the PLMN and the further PLMN. - receiving, from a Network Function, NF, within the PLMN, a control packet to be provided to a further PLMN; - delegating, to a remote security node, a setup of a N32-c interface towards the further PLMN such that said N32-c interface terminates at said remote security node; - relaying said control packet to the remote security node for delivery of the control packet, over the N32-C interface, towards the further PLMN, the remote security node being outside of both the PLMN and the further PLMN.
Hold-down device for a forming device intended for producing three-dimensional shaped bodies from packaging material, comprising at least one hold-down element and at least one further hold-down element, which are mounted so as to be movable relative to one another and are intended to hold the packaging material during a forming process, and comprising at least one cutting device, which, in particular before forming the packaging material, is intended to cut through the packaging material at least in places and/or cut into said material at least in places, the cutting device being arranged on the hold-down element and/or on the further hold-down element such that the cutting device is movable, in particular is moved, at least substantially synchronously with a relative movement of the hold-down element and the further hold-down element, characterized in that the cutting device comprises at least one cutting element, which is arranged in particular at least largely circumferentially around a through-opening, and which comprises at least one cutting segment (56, 58) and at least one further cutting segment, the cutting segment (56, 58) having a maximum height, which is different from a maximum height of the further cutting segment, in order to make an incision in the packaging material and a further incision in the packaging material, a maximum cutting depth of the incision being different from a maximum cutting depth of the further incision.
An engineered NK cell comprising an exogenous nucleotide sequence coding for a Chimeric Antigen Receptor directed against at least one antigen expressed at the surface of a malignant or infected cell, wherein the expression of at least one gene selected from the group consisting of those encoding TGF-β receptor and Cbl-B, is reduced in said NK cell.
Process for producing a thermoplastic fibre composite material from a thermoplastic matrix M comprising at least one thermoplastic moulding compound A having at least one chemically reactive functionality selected from the group consisting of maleic anhydride function, N-phenylmaleimide function and glycidyl (meth)acrylate function, and at least one ply of reinforcing fibres B, comprising the steps of: i) providing at least one sheetlike structure F composed of reinforcing fibres B, wherein the at least one sheetlike structure F is a scrim, a weave, a mat, a nonwoven or a knit, ii) introducing the at least one sheetlike structure F into a thermoplastic matrix M, iii) reacting functional groups in the thermoplastic matrix M with polar groups on the surface of the reinforcing fibres B, iv) consolidating the fibre composite material, v) optionally cooling and further process steps, wherein steps (ii) and/or (iii) are conducted by compression attachment with elevated pressure at a temperature of 200 to 340°C, wherein the residence time for production of the fibre composite material at temperatures of 200°C to 340°C is not more than 10 minutes, wherein the reinforcing fibres B are embedded in layers into the fibre composite material. i) providing at least one sheetlike structure F composed of reinforcing fibres B, wherein the at least one sheetlike structure F is a scrim, a weave, a mat, a nonwoven or a knit, ii) introducing the at least one sheetlike structure F into a thermoplastic matrix M, iii) reacting functional groups in the thermoplastic matrix M with polar groups on the surface of the reinforcing fibres B, iv) consolidating the fibre composite material, v) optionally cooling and further process steps,
A method for estimating the degree of saturation of a reversible solid ammonia storage material in a storage unit, said storage unit equipped with a heater to release ammonia and a connected tube for ammonia flow in said method for determining the degree of saturation, using mapping data generated for the type of storage unit or specifically for the storage unit which map the measured initial temperature ( T INIT) and the recorded target-pressure time ( t TARGET), or the recorded target-pressure heat ( Q TARGET), to a value of the degree of saturation, the method comprising: a. Measure the initial temperature ( T INIT) with a sensor in or around the storage unit before any heating is initiated; b. Initiate the heating while recording the active time of heating (t) or the amount of energy released by the heater; c. Measure the desorption pressure created by solid storage material in the storage unit via a pressure sensor in fluid communication with the storage unit; d. Record the time ( t TARGET), or the heat ( Q TARGET) where the pressure reaches a certain target pressure ( P TARGET); e. Use the values of the target-pressure time ( t TARGET), or the target-pressure heat ( Q TARGET), and the initial temperature ( T INIT) to derive an approximate degree of saturation, based on the mapping data which map the measured initial temperature ( T INIT) and the recorded target-pressure time ( t TARGET), or the recorded target-pressure heat ( Q TARGET), to a value of the degree of saturation. a. Measure the initial temperature ( T INIT) with a sensor in or around the storage unit before any heating is initiated; b. Initiate the heating while recording the active time of heating (t) or the amount of energy released by the heater; c. Measure the desorption pressure created by solid storage material in the storage unit via a pressure sensor in fluid communication with the storage unit; d. Record the time ( t TARGET), or the heat ( Q TARGET) where the pressure reaches a certain target pressure ( P TARGET); e. Use the values of the target-pressure time ( t TARGET), or the target-pressure heat ( Q TARGET), and the initial temperature ( T INIT) to derive an approximate degree of saturation, based on the mapping data which map the measured initial temperature ( T INIT) and the recorded target-pressure time ( t TARGET), or the recorded target-pressure heat ( Q TARGET), to a value of the degree of saturation.
A beam failure recovery method, performed by a User Equipment, UE, the method comprising: determining, a target reporting mode for beam failure of a first secondary cell, SCell; and in a case that the UE detects that beam failure occurs to the first SCell, reporting information of beam failure recovery to a base station corresponding to the first SCell by using the target reporting mode, wherein the information of beam failure recovery comprises information indicating that a beam failure event occurs to the first SCell and candidate beam information, or the information of beam failure recovery comprises candidate beam information, wherein the candidate beam information comprises reference signal indication information corresponding to a candidate beam; wherein the reporting the information of beam failure recovery to the base station corresponding to the first SCell by using the target reporting mode, comprises: reporting the information of beam failure recovery to the base station through a Physical Uplink Shared Channel, PUSCH, based on a configured grant. determining, a target reporting mode for beam failure of a first secondary cell, SCell; and in a case that the UE detects that beam failure occurs to the first SCell, reporting information of beam failure recovery to a base station corresponding to the first SCell by using the target reporting mode, wherein the information of beam failure recovery comprises information indicating that a beam failure event occurs to the first SCell and candidate beam information, or the information of beam failure recovery comprises candidate beam information, wherein the candidate beam information comprises reference signal indication information corresponding to a candidate beam; wherein the reporting the information of beam failure recovery to the base station corresponding to the first SCell by using the target reporting mode, comprises: reporting the information of beam failure recovery to the base station through a Physical Uplink Shared Channel, PUSCH, based on a configured grant.
A razor cartridge, comprising: main blades; a trimmer blade; a housing accommodating the main blades so as for cutting edges of the main blades to be exposed at the front of the housing and accommodating the trimmer blade so as for a cutting edge of the trimmer blade to be exposed at the rear of the housing; the razor cartridge being characterized by a trimmer cover (30, 230) provided at the rear of the housing to be slidable along a rear surface of the housing and to move back and forth between a first position and a second position. main blades; a trimmer blade; a housing accommodating the main blades so as for cutting edges of the main blades to be exposed at the front of the housing and accommodating the trimmer blade so as for a cutting edge of the trimmer blade to be exposed at the rear of the housing; the razor cartridge being characterized by a trimmer cover (30, 230) provided at the rear of the housing to be slidable along a rear surface of the housing and to move back and forth between a first position and a second position.
A method for allocating a sequence resource through randomization, comprising: producing a cyclic shift offset for use in random assignment of the sequence resource to a mobile device; and assigning a sequence resource randomly through implementation of the produced cyclic shift offset; characterized in that the method further comprises: determining a distance between base stations, mobile devices or mobile devices and base stations; inferring if the determined distance is such that interference is expected; and determining if the cyclic shift offset should be coordinated among nearby base stations or uncoordinated based upon a result of the inference. producing a cyclic shift offset for use in random assignment of the sequence resource to a mobile device; and assigning a sequence resource randomly through implementation of the produced cyclic shift offset; characterized in that the method further comprises: determining a distance between base stations, mobile devices or mobile devices and base stations; inferring if the determined distance is such that interference is expected; and determining if the cyclic shift offset should be coordinated among nearby base stations or uncoordinated based upon a result of the inference. determining a distance between base stations, mobile devices or mobile devices and base stations; inferring if the determined distance is such that interference is expected; and determining if the cyclic shift offset should be coordinated among nearby base stations or uncoordinated based upon a result of the inference.
Hand dryer having a housing which has a drying space which is accessible from the outer side, a fan and a plurality of discharge nozzles which are connected to the fan and which are orientated in such a manner that a drying operation can be carried out in the drying space, wherein the housing has at least two housing portions (7, 8) which are arranged beside each other and between which the drying space is arranged and which extend in a vertical direction, wherein the at least two housing portions (7, 8) have the discharge nozzles which are arranged one above the other in such a manner that an air flow plane which is defined by them extends primarily in a vertical manner, characterized in that the at least two housing portions (7, 8) are constructed in a vessel-like manner and the discharge nozzles are arranged at the front edges thereof.
A method of cooling a metal strip, which method comprises: continuously advancing a metal strip, having lateral edges, generally horizontally in a direction of strip advance; delivering a coolant liquid onto a lower surface of the metal strip from below across an entire width of the strip; preventing said coolant liquid from contacting an upper surface of the metal strip; and optionally subsequently removing said coolant liquid from said lower surface of the strip; wherein said coolant liquid is prevented from contacting said upper surface of the metal strip by forming a gas-directing channel immediately above said upper surface of the metal strip adjacent to at least one of said lateral edges thereof, wherein said gas-directing channel is formed by positioning at least one stationary cover plate above and spaced from said upper surface of the strip adjacent to said at least one lateral edge, said gas-directing channel being defined between said upper surface and said cover plate, and forcing a gas through the channel in a direction generally away from a center of the strip towards said at least one lateral edge to deflect coolant liquid away from said at least one lateral edge of the strip and said upper surface. continuously advancing a metal strip, having lateral edges, generally horizontally in a direction of strip advance; delivering a coolant liquid onto a lower surface of the metal strip from below across an entire width of the strip; preventing said coolant liquid from contacting an upper surface of the metal strip; and optionally subsequently removing said coolant liquid from said lower surface of the strip; wherein said coolant liquid is prevented from contacting said upper surface of the metal strip by forming a gas-directing channel immediately above said upper surface of the metal strip adjacent to at least one of said lateral edges thereof, wherein said gas-directing channel is formed by positioning at least one stationary cover plate above and spaced from said upper surface of the strip adjacent to said at least one lateral edge, said gas-directing channel being defined between said upper surface and said cover plate, and forcing a gas through the channel in a direction generally away from a center of the strip towards said at least one lateral edge to deflect coolant liquid away from said at least one lateral edge of the strip and said upper surface.
A method for performing a lateral flow assay, the method comprising: providing a sampling membrane with a receiving region, a collection region, which is a sub-part of the receiving region, and a detection region, the collection region having a known saturation volume; defining a barrier between the collection region and the detection region; providing a test sample to the receiving region of the membrane; saturating the collection region with a test sample having a volume of less than about 100 microliters so that a known volume of the test sample is contained in the collection region; removing the barrier between the collection region and detection region of the membrane; and supplying a diluent to the collection region of the membrane to facilitate flow of the test sample from the collection region to the detection region of the membrane; wherein the method further comprises defining the collection region by separating the collection region from the receiving region prior to supplying the diluent to the collection region. providing a sampling membrane with a receiving region, a collection region, which is a sub-part of the receiving region, and a detection region, the collection region having a known saturation volume; defining a barrier between the collection region and the detection region; providing a test sample to the receiving region of the membrane; saturating the collection region with a test sample having a volume of less than about 100 microliters so that a known volume of the test sample is contained in the collection region; removing the barrier between the collection region and detection region of the membrane; and supplying a diluent to the collection region of the membrane to facilitate flow of the test sample from the collection region to the detection region of the membrane; wherein the method further comprises defining the collection region by separating the collection region from the receiving region prior to supplying the diluent to the collection region.