mhurhangee/ep-ind-claims huggingface dataset:
A fork system (1, 101, 201, 301, 401, 501, 601, 701) for an at least partially muscle-powered bicycle, comprising: - an inner shaft, - a connecting element (11, 111, 211, 311, 411, 511, 611, 711, 811, 911), and - a fork element (3, 103, 203, 303, 403, 503, 603, 703, 803, 903), wherein the connecting element (11,111, 211, 311, 411, 511, 611, 711, 811, 911) has a first end for connecting to the inner shaft and a second end for connecting to the fork element (3, 103, 203, 303, 403, 503, 603, 703, 803, 903), and the second end has a larger radial extent than the first end and than the inner shaft, - a securing unit which is a toggle joint, wherein its first lever arm is fixed to an outer shaft and its second lever arm is fixed to the connecting element (11, 111, 211, 311, 411, 511, 611, 711, 811, 911), wherein the securing unit has an upper lever axis, a central lever axis and a lower lever axis, wherein the inner shaft is inserted at least partially into the outer shaft in an axially displaceable manner, and wherein the securing unit prevents rotation between the outer shaft and the fork element (3, 103, 203, 303, 403, 503, 603, 703, 803, 903), characterised in that a centre axis of the three lever axes (35, 36, 37) on the two lever arms (33, 34) in the fully folded position relative to a perpendicular to a longitudinal axis of the inner shaft deviates by an angle (a) of at least 10° downwards towards the fork element (3, 103, 203, 303, 403, 503, 603, 703, 803, 903). - an inner shaft, - a connecting element (11, 111, 211, 311, 411, 511, 611, 711, 811, 911), and - a fork element (3, 103, 203, 303, 403, 503, 603, 703, 803, 903), wherein the connecting element (11,111, 211, 311, 411, 511, 611, 711, 811, 911) has a first end for connecting to the inner shaft and a second end for connecting to the fork element (3, 103, 203, 303, 403, 503, 603, 703, 803, 903), and the second end has a larger radial extent than the first end and than the inner shaft, - a securing unit which is a toggle joint,
A porous sintered body comprising: hollow cores following a vanished shape of an interlaced or otherwise structured fibriform vanisher material; sintered walls extending longitudinally of the cores and obtained by sintering a first sintering powder held around the cores; and voids between the sintered walls; the cores and the voids communicating with each other via absent regions formed in the sintered walls, wherein the sintered walls have surfaces formed with a sintered microparticulate layer made from a material containing a second sintering powder having a smaller diameter than the first sintering powder,the layer having predetermined pores, the cores have a diameter of 5um through 100um, the sintered walls are made by sintering the first sintering powder having an average particle size of 1/5 thorough 1/50 of a diameter of the fibriform vanisher material, the sintered walls have an average thickness of 0.5 um through 50 um; and the sintered microparticulate layer is made of a material containing at least two different kinds of micro particle powders and is made by sintering the second sintering powder of an average particle size of 20 nm through 1000 nm, and has a thickness of 20 nm through 1000nm, and wherein the fibriform vanisher material has a circular section, the first sintering powder and the second sintering powder are ballshaped. hollow cores following a vanished shape of an interlaced or otherwise structured fibriform vanisher material; sintered walls extending longitudinally of the cores and obtained by sintering a first sintering powder held around the cores; and voids between the sintered walls; the cores and the voids communicating with each other via absent regions formed in the sintered walls, wherein the sintered walls have surfaces formed with a sintered microparticulate layer made from a material containing a second sintering powder having a smaller diameter than the first sintering powder,the layer having predetermined pores, the cores have a diameter of 5um through 100um, the sintered walls are made by sintering the first sintering powder having an average particle size of 1/5 thorough 1/50 of a diameter of the fibriform vanisher material, the sintered walls have an average thickness of 0.5 um through 50 um; and the sintered microparticulate layer is made of a material containing at least two different kinds of micro particle powders and is made by sintering the second sintering powder of an average particle size of 20 nm through 1000 nm, and has a thickness of 20 nm through 1000nm, the fibriform vanisher material has a circular section, the first sintering powder and the second sintering powder are ballshaped.
A method of establishing a session key at a communication device, wherein the session key is to be shared between the communication device and a network application function, NAF, and wherein a service bootstrap key and an associated transaction identifier, previously derived by application of a general bootstrapping architecture, GBA, procedure, are shared between the communication device and a bootstrapping server function, BSF, the method being performed at the communication device and comprising: acquiring a NAF identifier associated with the NAF; deriving a NAF specific key based on the NAF identifier and the service bootstrap key; deriving the session key based on the NAF specific key and one or more key defining parameters, wherein the key defining parameters are accessible by the communication device and by the NAF and are non-accessible by the BSF, wherein the one or more key defining parameters includes conditions of a radio link between the communication device and an access point of the NAF; and transmitting an attach request message and the transaction identifier towards the NAF for establishment of the session key at the NAF. wherein a service bootstrap key and an associated transaction identifier, previously derived by application of a general bootstrapping architecture, GBA, procedure, are shared between the communication device and a bootstrapping server function, BSF, the method being performed at the communication device and comprising: acquiring a NAF identifier associated with the NAF; deriving a NAF specific key based on the NAF identifier and the service bootstrap key; deriving the session key based on the NAF specific key and one or more key defining parameters, wherein the key defining parameters are accessible by the communication device and by the NAF and are non-accessible by the BSF, wherein the one or more key defining parameters includes conditions of a radio link between the communication device and an access point of the NAF; and transmitting an attach request message and the transaction identifier towards the NAF for establishment of the session key at the NAF. acquiring a NAF identifier associated with the NAF; deriving a NAF specific key based on the NAF identifier and the service bootstrap key; deriving the session key based on the NAF specific key and one or more key defining parameters, wherein the key defining parameters are accessible by the communication device and by the NAF and are non-accessible by the BSF, wherein the one or more key defining parameters includes conditions of a radio link between the communication device and an access point of the NAF; and transmitting an attach request message and the transaction identifier towards the NAF for establishment of the session key at the NAF.
A head-up display projector comprising: a light source for forming a projection image; and a reflection member having a selective reflection layer that reflects visible light and is constituted by two or more layers having selective reflection center wavelengths different from each other and an interference suppression layer that has a thickness of 10 μm or more, wherein in the reflection member, the interference suppression layer is located closer to a side on which light from the light source is incident than the selective reflection layer is, characterized in that the interference suppression layer has a thickness of 80 μm or more, and the light source includes LEDs. a light source for forming a projection image; and a reflection member having a selective reflection layer that reflects visible light and is constituted by two or more layers having selective reflection center wavelengths different from each other and an interference suppression layer that has a thickness of 10 μm or more, wherein in the reflection member, the interference suppression layer is located closer to a side on which light from the light source is incident than the selective reflection layer is, characterized in that the interference suppression layer has a thickness of 80 μm or more, and the light source includes LEDs.
A radioactive metal-labeled anti-P-cadherin antibody, which is obtained by binding a radioactive metallic element to an anti-P-cadherin antibody via a metal-chelating reagent, wherein the anti-P-cadherin antibody is a monoclonal antibody or a recombinant antibody produced by an antibody-producing cell represented by an accession number of NITE BP-897, NITE BP-899, NITE BP-1048, NITE BP-1049, or NITE BP-1050, or a P-cadherin binding fragment of any of these antibodies.
A compound selected from the group consisting of O-ethyl S-(3-methylbut-2-en-1-yl) carbonothioate; O-ethyl S-(3-methylbut-3-en-1-yl) carbonothioate; -S-(but-2-en-l-yl) O-ethyl carbonothioate; S-(but-3-en-l-yl) O-ethyl carbonothioate; S-allyl O-ethyl carbonothioate; O-ethyl S-geranyl carbonthioate; O-ethyl S-neryl carbonthioate; and O-ethyl S-farnesyl carbonthioate.
A jelly roll-type positive temperature coefficient device for overcurrent and/or overtemperature protection, comprising: a PTC material layer; a first electrode layer disposed on a first surface of the PTC material layer; a second electrode layer disposed on a second surface of the PTC material layer opposite the first surface, wherein the PTC material layer is disposed between overlapping portions of the first electrode layer and the second electrode layer; and an insulation layer disposed on a surface of the second electrode layer opposite the PTC material layer, wherein the insulation layer covers a region where the first electrode layer overlaps the second electrode layer; wherein the first electrode layer, the PTC material layer, the second electrode layer, and the insulation layer are rolled together to define a jelly roll structure with the PTC material layer providing an electrically conductive pathway between the overlapping first and second electrode layers, and with the insulation layer providing an electrically insulating barrier between the first and second electrode layers, characterized in that the first and second electrode layers are offset relative to one another, with a lateral edge of the first electrode layer extending beyond a first lateral edge of the PTC material layer a and with a lateral edge of the second electrode layer extending beyond a second lateral edge of the PTC material layer opposite the first lateral edge. a PTC material layer; a first electrode layer disposed on a first surface of the PTC material layer; a second electrode layer disposed on a second surface of the PTC material layer opposite the first surface, wherein the PTC material layer is disposed between overlapping portions of the first electrode layer and the second electrode layer; and an insulation layer disposed on a surface of the second electrode layer opposite the PTC material layer, wherein the insulation layer covers a region where the first electrode layer overlaps the second electrode layer; wherein the first electrode layer, the PTC material layer, the second electrode layer, and the insulation layer are rolled together to define a jelly roll structure with the PTC material layer providing an electrically conductive pathway between the overlapping first and second electrode layers, and with the insulation layer providing an electrically insulating barrier between the first and second electrode layers, characterized in that the first and second electrode layers are offset relative to one another, with a lateral edge of the first electrode layer extending beyond a first lateral edge of the PTC material layer a and with a lateral edge of the second electrode layer extending beyond a second lateral edge of the PTC material layer opposite the first lateral edge.
Method for producing a food material essentially consisting of isomalt for its use as a container for food material, characterised in that it includes the steps of: - melting in an extruder of the material by heating the temperature from 80°C to 160°C, preferably from 150°C to 160°C, - tempering so as to obtain the material in the stable crystalline form thereof and to eliminate bubbles in the material, and - pouring or injecting into moulds, wherein the tempering step is realized at a temperature higher than the melting temperature of the isomalt, but enabling to remain the product in malleable and ductile form, said tempering step comprising a step of heating at a temperature of 160°C for 3 minutes, followed by a cooling step at a temperature of 120°C to 130°C. - melting in an extruder of the material by heating the temperature from 80°C to 160°C, preferably from 150°C to 160°C, - tempering so as to obtain the material in the stable crystalline form thereof and to eliminate bubbles in the material, and - pouring or injecting into moulds, wherein the tempering step is realized at a temperature higher than the melting temperature of the isomalt, but enabling to remain the product in malleable and ductile form, said tempering step comprising a step of heating at a temperature of 160°C for 3 minutes, followed by a cooling step at a temperature of 120°C to 130°C.
Wiper blade of flat bar construction with a wiper strip which is held by a supporting element in the form of two flat spring rails. which are inserted into two longitudinal grooves in a head strip of the wiper strip and are pre-bent concavely to form a wiper lip of the wiper strip, wherein end caps (34, 82) sit on the ends of the spring rails, at least one of which end caps secures the wiper strip in the longitudinal direction relative to the spring rails by means of a locking device attached to a side flap of the end cap, wherein the locking device is a locking cam which, in the closed state of the side flap, engages in a corresponding recess in the head strip of the wiper strip, characterized in that at least one of the end caps (34, 82) has, in the end wall facing the end of the wiper blade, an installation opening for the installation and removal of the wiper strip, and in that the end caps (34, 82) hold the spring rails at a predetermined distance from each other.
A method for receiving data in a User Equipment, UE, apparatus, the method comprising the steps transmitting, to a base station, a handover complete message; receiving, from the base station after transmitting the handover complete message, a Packet Data Convergence Protocol, PDCP, Packet through a Radio Link Control, RLC, layer; checking all stored PDCP Packets with consecutively associated SNs starting from a Sequence Number, SN, associated with the received PDCP Packet; and delivering said all stored PDCP Packets with consecutively associated SNs starting from the SN associated with the received PDCP Packet to a higher layer, wherein the PDCP Packet received from the RLC layer is received after re-establishment of the RLC layer, the RLC layer being re-established based on the handover.
A bumper assembly for a material handling vehicle comprising: a main body including at least one cutout arranged on the main body; a window plate removably coupled to the main body and covering the at least one cutout; and characterized in that the window plate includes a window arranged therein; and in that the bumper assembly comprises a lower section removably coupled to the main body and including a protection plate extending below the at least one cutout. a main body including at least one cutout arranged on the main body; a window plate removably coupled to the main body and covering the at least one cutout; and characterized in that the window plate includes a window arranged therein; and in that the bumper assembly comprises a lower section removably coupled to the main body and including a protection plate extending below the at least one cutout.
A shaving razor comprising a handle and a blade cartridge unit, the handle comprising: • a main body weighing greater than about 60 grams; • a first substantially flat arm having a first distal end and a first proximal end defining a first arm opening, the first proximal end being coupled to a first location of the main body; • a second substantially flat arm having a second distal end and a second proximal end defining a second arm opening, the second proximal end being coupled to a second location of the main body; and • the first and second distal ends being in spaced relationship, characterized that the handle further comprises a pivoting head having a trapezoidal prism shape, the pivoting head being pivotally coupled between the first and second distal ends, and the blade cartridge unit is attached to the pivoting head such that the blade cartridge unit can pivot on the handle. • a main body weighing greater than about 60 grams; • a first substantially flat arm having a first distal end and a first proximal end defining a first arm opening, the first proximal end being coupled to a first location of the main body; • a second substantially flat arm having a second distal end and a second proximal end defining a second arm opening, the second proximal end being coupled to a second location of the main body; and • the first and second distal ends being in spaced relationship,
A method for performing dynamic range compression, DRC, on an input audio signal to generate an output audio signal, the method comprising: (a) determining an average level or power of the input audio signal, where the average is over a time longer than an attack time and/or a release time of an instance of application of the DRC which applies non-unity gain; and (b) applying no DRC to the input audio signal when the average level or power of the input audio signal approaches, or matches, or exceeds a target, thereby generating the output audio signal, and otherwise applying the DRC to the input audio signal to generate the output audio signal, wherein the target is a knee point for the DRC, or an audio signal level which is at least substantially equal to a maximum playback level of a playback system or device which is to play the output audio signal, wherein applying the DRC to the input audio signal to generate the output audio signal in step (b) includes: determining a dynamic DRC gain, gDRC; smoothing the dynamic DRC gain, gDRC, to generate a smoothed dynamic gain, gDRCsmoothed; determining a dynamic gain, g, based on a minimum determination of the DRC gain, gDRC, and the smoothed dynamic gain, gDRCsmoothed; and applying the dynamic gain, g, to the input audio signal. (a) determining an average level or power of the input audio signal, where the average is over a time longer than an attack time and/or a release time of an instance of application of the DRC which applies non-unity gain; and (b) applying no DRC to the input audio signal when the average level or power of the input audio signal approaches, or matches, or exceeds a target, thereby generating the output audio signal, and otherwise applying the DRC to the input audio signal to generate the output audio signal, wherein the target is a knee point for the DRC, or an audio signal level which is at least substantially equal to a maximum playback level of a playback system or device which is to play the output audio signal, determining a dynamic DRC gain, gDRC; smoothing the dynamic DRC gain, gDRC, to generate a smoothed dynamic gain, gDRCsmoothed; determining a dynamic gain, g, based on a minimum determination of the DRC gain, gDRC, and the smoothed dynamic gain, gDRCsmoothed; and applying the dynamic gain, g, to the input audio signal.
A system providing digital predistortion for a dual-band transmitter comprising: first tuning circuitry adapted to tune a first baseband signal to a first intermediate frequency to provide a first intermediate frequency signal; second tuning circuitry adapted to tune a second baseband signal to a second intermediate frequency to provide a second intermediate frequency signal; combiner circuitry adapted to combine the first intermediate frequency signal and the second intermediate frequency signal to provide a combined intermediate frequency signal; and predistortion circuitry adapted to predistort the combined intermediate frequency signal to compensate for a non-linearity of a power amplifier in a transmit chain of the dual-band transmitter, thereby providing a predistorted signal; wherein a separation between the first intermediate frequency and the second intermediate frequency is at or near a minimum separation value below which one or more frequency bands in the predistorted signal for up to a target intermodulation order overlap frequency bands in the predistorted signal centered at the first and second intermediate frequencies. first tuning circuitry adapted to tune a first baseband signal to a first intermediate frequency to provide a first intermediate frequency signal; second tuning circuitry adapted to tune a second baseband signal to a second intermediate frequency to provide a second intermediate frequency signal; combiner circuitry adapted to combine the first intermediate frequency signal and the second intermediate frequency signal to provide a combined intermediate frequency signal; and predistortion circuitry adapted to predistort the combined intermediate frequency signal to compensate for a non-linearity of a power amplifier in a transmit chain of the dual-band transmitter, thereby providing a predistorted signal; wherein a separation between the first intermediate frequency and the second intermediate frequency is at or near a minimum separation value below which one or more frequency bands in the predistorted signal for up to a target intermodulation order overlap frequency bands in the predistorted signal centered at the first and second intermediate frequencies.