mhurhangee/ep-ind-claims huggingface dataset:
Air spring assembly, comprising at least one integrated control valve for applying compressed air to a pressure chamber formed between an outer tube, a pedestal tube and an air bellows connecting them, wherein the at least one integrated control valve can be activated with several switching positions via integrated mechanical actuating means as a function of an air spring stroke for level adjustment, wherein furthermore the pressure chamber comprises a compression spring with end faces located between a tube upper part of the outer tube and a tube lower part of the outer tube, characterised in that a lever mechanically connected to the at least one integrated control valve can be actuated via at least one actuating lug located at an end face of the tube lower part in order to implement a stepped characteristic of a ventilation and/or venting of the pressure chamber, the at least one actuating lug partially entering the pedestal tube for actuating the lever.
Method for determining an adaptive reaction time (t R) of a driver of a motor vehicle which is determined from the activity of the driver, wherein a first vehicle-specific driver's activity is determined from the intensity of operator control actions performed by the driver in the motor vehicle, and a second correlated driver's activity, which reflects the chronological correlation between the behavior of a vehicle driving ahead and reactions of the driver caused thereby, is determined, wherein, in order to determine the adaptive driver's reaction time (t R), the two determined driver's activities (P1, P2) are logically linked.
Industrial truck comprising: - a vehicle body; - a mast that extends substantially vertically and is rigidly connected to the vehicle body or hinged to the vehicle body, the mast being associated with a load-carrying apparatus such that said apparatus can be moved upwards and downwards on said mast, which load-carrying apparatus comprises at least one load-receiving means for receiving a load that is to be transported; - an outrigger, the longitudinal axis of which extends between a first fastening point on the vehicle body and a second fastening point on the mast, the second fastening point being associated with a vertically upper side of the mast; wherein the outrigger is associated with an apparatus for reducing vibrations which is designed to reduce vibrations acting in the direction of the longitudinal axis of the outrigger, characterized in that the apparatus for reducing vibrations is designed as a shock absorber or a helical spring. - a vehicle body; - a mast that extends substantially vertically and is rigidly connected to the vehicle body or hinged to the vehicle body, the mast being associated with a load-carrying apparatus such that said apparatus can be moved upwards and downwards on said mast, which load-carrying apparatus comprises at least one load-receiving means for receiving a load that is to be transported; - an outrigger, the longitudinal axis of which extends between a first fastening point on the vehicle body and a second fastening point on the mast, the second fastening point being associated with a vertically upper side of the mast; wherein the outrigger is associated with an apparatus for reducing vibrations which is designed to reduce vibrations acting in the direction of the longitudinal axis of the outrigger, characterized in that the apparatus for reducing vibrations is designed as a shock absorber or a helical spring. wherein the outrigger is associated with an apparatus for reducing vibrations which is designed to reduce vibrations acting in the direction of the longitudinal axis of the outrigger, characterized in that the apparatus for reducing vibrations is designed as a shock absorber or a helical spring.
A circuit, comprising: a switch fabric configured to have a footprint on a semiconductor surface, the footprint having four sides; a plurality of input conductors (325, 335) configured to conduct a plurality of channels into the switch fabric with regard to each side of the footprint, each channel having a same width in bits; a plurality of output conductors (330, 340) configured to conduct the plurality of channels out of the switch fabric with regard to each side of the footprint, wherein the input and output conductors for a first opposing pair of the sides are arranged in first tracks corresponding to the channels, and wherein the switch fabric includes a plurality of channel switching circuits (305, 310, 315, 320) corresponding to the channels and arranged in the footprint such that each first track spans the corresponding channel switching circuit, and wherein the input and output conductors for a second opposing pair of the sides for the footprint are arranged according to the bits in second tracks such that each second track spans across all the channel switching circuits; and wherein each channel switching circuit includes a plurality of multiplexers (385, 390) corresponding to each side, and wherein each side's corresponding multiplexers in each channel switching circuit are configured to drive the output conductors for the channel switching circuit's corresponding channel with a selected channel from the input conductors for the remaining sides. a switch fabric configured to have a footprint on a semiconductor surface, the footprint having four sides; a plurality of input conductors (325, 335) configured to conduct a plurality of channels into the switch fabric with regard to each side of the footprint, each channel having a same width in bits; a plurality of output conductors (330, 340) configured to conduct the plurality of channels out of the switch fabric with regard to each side of the footprint, wherein the input and output conductors for a first opposing pair of the sides are arranged in first tracks corresponding to the channels, and wherein the switch fabric includes a plurality of channel switching circuits (305, 310, 315, 320) corresponding to the channels and arranged in the footprint such that each first track spans the corresponding channel switching circuit, and wherein the input and output conductors for a second opposing pair of the sides for the footprint are arranged according to the bits in second tracks such that each second track spans across all the channel switching circuits; and wherein each channel switching circuit includes a plurality of multiplexers (385, 390) corresponding to each side, and wherein each side's corresponding multiplexers in each channel switching circuit are configured to drive the output conductors for the channel switching circuit's corresponding channel with a selected channel from the input conductors for the remaining sides.
A light extraction substrate for an organic light-emitting diode device, comprising: a base substrate; a number of light-scattering particles disposed on the base substrate, the number of light-scattering particles producing a first light-scattering effect; a cover matrix layer disposed on the base substrate to cover the number of light-scattering particles such that the number of light-scattering particles are distributed within the cover matrix layer; and a planarization layer disposed on the cover matrix layer, with a surface thereof abutting an organic light-emitting diode, wherein at least one of the number of light-scattering particles, the cover matrix layer, and the planarization layer has a different refractive index, wherein the cover matrix layer is formed from rutile TiO2 and includes a number of irregular-shaped voids formed in the rutile TiO2, the number of irregular-shaped voids producing a second light-scattering effect, the second light-scattering effect being equal to or greater than the first light-scattering effect, wherein sizes of the number of voids range from 50 nm to 900 nm, and the number of light-scattering particles have a packing density of 40% or more within the cover matrix layer. a base substrate; a number of light-scattering particles disposed on the base substrate, the number of light-scattering particles producing a first light-scattering effect; a cover matrix layer disposed on the base substrate to cover the number of light-scattering particles such that the number of light-scattering particles are distributed within the cover matrix layer; and a planarization layer disposed on the cover matrix layer, with a surface thereof abutting an organic light-emitting diode, wherein at least one of the number of light-scattering particles, the cover matrix layer, and the planarization layer has a different refractive index, wherein the cover matrix layer is formed from rutile TiO2 and includes a number of irregular-shaped voids formed in the rutile TiO2, the number of irregular-shaped voids producing a second light-scattering effect, the second light-scattering effect being equal to or greater than the first light-scattering effect, wherein sizes of the number of voids range from 50 nm to 900 nm, and the number of light-scattering particles have a packing density of 40% or more within the cover matrix layer.
A gallinaceous bird embryo into which cancer cells have been grafted within the tissues of the embryo, characterized in that: - the embryo is at a developmental stage between stage HH10 and stage HH25 at the time of the graft, - said cancer cells are not introduced into the lumen of the neural tube, - said cancer cells are not neuroblastoma cells not melanoma cells, - said cancer cells reproduce and form tumours in an implantation site within the embryo that is distinct from the grafting site, and - said gallinaceous bird is a chicken (gallus gallus) or a quail (Coturnix japonica). - the embryo is at a developmental stage between stage HH10 and stage HH25 at the time of the graft, - said cancer cells are not introduced into the lumen of the neural tube, - said cancer cells are not neuroblastoma cells not melanoma cells, - said cancer cells reproduce and form tumours in an implantation site within the embryo that is distinct from the grafting site, and - said gallinaceous bird is a chicken (gallus gallus) or a quail (Coturnix japonica).
A method, initiated by a User Equipment, UE, being in a Radio Resource Control, RRC, INACTIVE state, the method comprising: transmitting, to a first cell, a first RRC resume request message, requesting to resume communication; characterised by: receiving, in response to the transmitted first RRC resume request message, an RRC Release message comprising a suspend configuration and information to release and redirect to another carrier frequency; and transmitting, to a second cell of the carrier frequency comprised in the RRC Release message, a second RRC resume request message, requesting to resume communication. receiving, in response to the transmitted first RRC resume request message, an RRC Release message comprising a suspend configuration and information to release and redirect to another carrier frequency; and transmitting, to a second cell of the carrier frequency comprised in the RRC Release message, a second RRC resume request message, requesting to resume communication.
Device for connection of first and second double-wall pipes (28, 30), the first pipe including a first interior pipe that has an end section and an end surface (32.1) and a first exterior pipe spaced from the first interior pipe that has an end section and an end surface (34.1), the second pipe including a second interior pipe that has an end section and an end surface (36.1) and second exterior pipe spaced from the second interior pipe that has an end section and an end surface (38.1), the connection device including an interior connection system configured to connect the first and second interior pipes (32, 36) and an exterior connection system configured to connect the first and second exterior pipes (34, 38) and including a first part that cooperates with the end section of the first exterior pipe and a second part that cooperates with the end section of the second exterior pipe, characterized in that the exterior connection system is configured so that at a first temperature at least one of the first and second parts exerts a contact force on the end section (T34, T38) of the corresponding first or second exterior pipe (34, 38) greater than at a second temperature higher than the first temperature.
An intravascular functional element, in particular an implant, more particularly a stent, flow diverter, stent graft and intravascular occlusion device, with a radially self-expandable mesh structure which is tubular at least in sections, which has a wire or a plurality of wires, wherein the wire /at least one of the wires comprises a superelastic material, in particular a superelastic material produced from an alloy with nickel and titanium alloy elements, characterized in that the mixed oxide layer on the surface of the wire /the wires is formed with a layer thickness of 250 nm to 400 nm, wherein the quadratic roughness R q of the wire /the wires is from 0.02 um to 0.5 um, in particular from 0.05 um to 0.2 μm, in particular from 0.06 μm to 0.1 μm, and/or the roughness, in particular the quadratic roughness R q, in the circumferential direction of the wire /the wires is greater than the roughness, in particular the quadratic roughness R q, in the longitudinal direction of the wire /the wires.
A method of operating a network node in a cellular telecommunications network, wherein the cellular telecommunications network includes a first base station and a first User Equipment, UE, and the first UE is connected to the first base station by a first and second connection having resources associated with a first and second subscription respectively, the method comprising the steps of: determining that the first connection and second connection relate to the first and second subscription respectively; determining that the first connection and second connection relate to the first UE; defining a first connection group including the first connection, the second connection and a third connection, the third connection relating to the first subscription and to the first UE; monitoring a first resource usage of the first connection group; and initiating a handover of one or both of the first and second connections based on the first resource usage. determining that the first connection and second connection relate to the first and second subscription respectively; determining that the first connection and second connection relate to the first UE; defining a first connection group including the first connection, the second connection and a third connection, the third connection relating to the first subscription and to the first UE; monitoring a first resource usage of the first connection group; and initiating a handover of one or both of the first and second connections based on the first resource usage.
A sheet processing apparatus applying a post-processing on a conveyed sheet comprising: a processing tray on which a plurality of sheet are loaded into a sheet bundle; a shifting unit configured to shift the sheet bundle in a width direction intersecting with a conveying direction of the sheet on the processing tray; a discharging part configured to discharge the sheet bundle from the processing tray; a stacking tray on which the sheet bundle discharged by the discharging part is stacked; and wherein the discharging part includes a lower roller abutting with a lowermost sheet of the sheet bundle and an upper roller configured to separate upward from the lower roller during the shifting and to be displaced in a direction approaching the lower roller during the discharging of the sheet bundle; characterized by a pressing lever turnable between a first position where the pressing lever abuts with the sheet bundle on the stacking tray and a second position where the pressing lever is displaced on the discharging part side from the first position; and the pressing lever is configured to project upward from above an apex portion of the lower roller at the second position and to turn into the second position during the shifting. a processing tray on which a plurality of sheet are loaded into a sheet bundle; a shifting unit configured to shift the sheet bundle in a width direction intersecting with a conveying direction of the sheet on the processing tray; a discharging part configured to discharge the sheet bundle from the processing tray; a stacking tray on which the sheet bundle discharged by the discharging part is stacked; and wherein the discharging part includes a lower roller abutting with a lowermost sheet of the sheet bundle and an upper roller configured to separate upward from the lower roller during the shifting and to be displaced in a direction approaching the lower roller during the discharging of the sheet bundle; characterized by a pressing lever turnable between a first position where the pressing lever abuts with the sheet bundle on the stacking tray and a second position where the pressing lever is displaced on the discharging part side from the first position; and the pressing lever is configured to project upward from above an apex portion of the lower roller at the second position and to turn into the second position during the shifting.
Valve for conducting a gas flow, having a valve housing, a valve body, and at least one sealing element, wherein a primary branch and a secondary branch are configured in the valve housing, the valve housing has at least one cut-out, the primary branch has a primary flow duct having an inlet and an outlet, and the secondary branch has two secondary flow ducts (11, 12), the secondary flow ducts (11, 12) are disposed so as to be spaced apart transversely to the longitudinal direction of the primary flow duct and on one side are connected to the primary flow duct, the secondary branch is closed and the primary branch is opened in a first terminal position of the valve body, the secondary branch is opened and the primary branch is closed in a second terminal position of the valve body, and the valve body is embodied so as to be movable in a translatory manner between the two terminal positions (P1, P2), the valve body has a longitudinal slide and a transverse slide which in terms of the face planes thereof are disposed on one another so as to be mutually orthogonal, the closure of the secondary branch in the first terminal position of the valve body is performed by the transverse slide, wherein the primary flow duct is opened, and the complete closure of the primary branch in the second terminal position of the valve body is performed by the longitudinal slide, characterized in that the secondary flow ducts (11, 12) of the secondary branch are opened in the second terminal position, and the entire gas flow in the second terminal position is directed through the secondary branch.
Disc brake for a commercial vehicle with a pneumatic brake cylinder, a brake disc, a brake caliper, a brake application device and with brake pads, wherein the brake caliper is configured to engage over the brake disc and the brake application device, which can be actuated by the brake cylinder, is arranged in the brake caliper, by means of which the brake linings can be pressed against the brake disc on both sides during braking, an extendable and retractable piston rod of the brake cylinder being in engagement with the brake application device, and the brake caliper being detachably fastened to the brake cylinder by means of a fastening device, characterized in that the fastening device comprises at least one screw with a screw head, a screw shank and an external thread formed on the screw shank and at least one bore formed in or on the brake cylinder with an internal thread, into which the screw shank is screwed with the external thread, the screw head being locked on a counter surface of the brake caliper.
An aircraft wing spar comprising: a web at a central portion of the wing spar, the web having a length that extends along a length of the wing spar, the web being comprised of only pre-preg fabric; a first spar cap on a first edge of the web, the first spar cap having a length that extends along the length of the web, the first spar cap being comprised of the pre-preg fabric of the web and pre-preg tape; and, a second spar cap on a second edge of the web, the second spar cap having a length that extends along the length of the web, the second spar cap being comprised of the pre-preg fabric of the web and pre-preg tape; wherein the pre-preg tape is unidirectional pre-preg tape that is oriented along the length of the first spar cap and the length of the second spar cap, and wherein the aircraft wing spar has a C-channel cross-section configuration. a web at a central portion of the wing spar, the web having a length that extends along a length of the wing spar, the web being comprised of only pre-preg fabric; a first spar cap on a first edge of the web, the first spar cap having a length that extends along the length of the web, the first spar cap being comprised of the pre-preg fabric of the web and pre-preg tape; and, a second spar cap on a second edge of the web, the second spar cap having a length that extends along the length of the web, the second spar cap being comprised of the pre-preg fabric of the web and pre-preg tape; wherein the pre-preg tape is unidirectional pre-preg tape that is oriented along the length of the first spar cap and the length of the second spar cap, and wherein the aircraft wing spar has a C-channel cross-section configuration.
A system for classifying a tumor of interest based on 3-dimensional image data for visualizing the tumor of interest, characterized in that the system comprises: - an overlay data structure for computing a TNM,Tumor-Node-Metastasis, overlay for displaying in a tumor image, the tumor image being computed from the image data, wherein the TNM overlay comprises TNM information for determining the stage of the tumor of interest; and - an overlay unit for computing the TNM overlay based on the overlay data structure and positioning the TNM overlay on the tumor image, wherein the size of the TNM overlay is based on the scale of the computed tumor image. - an overlay data structure for computing a TNM,Tumor-Node-Metastasis, overlay for displaying in a tumor image, the tumor image being computed from the image data, wherein the TNM overlay comprises TNM information for determining the stage of the tumor of interest; and - an overlay unit for computing the TNM overlay based on the overlay data structure and positioning the TNM overlay on the tumor image, wherein the size of the TNM overlay is based on the scale of the computed tumor image.
Process for reducing the amount of hydroxyl-end-groups of polyesters, wherein the polyester is prepared in a process for preparing a polyester from at least one dicarboxylic acid and at least one dihydroxy alcohol, and at least one additive selected from the group consisting of dicarboxylic acid anhydride and/or mono-isocyanate is added in this process for preparing the polyester. the polyester is prepared in a process for preparing a polyester from at least one dicarboxylic acid and at least one dihydroxy alcohol, and at least one additive selected from the group consisting of dicarboxylic acid anhydride and/or mono-isocyanate is added in this process for preparing the polyester.