mhurhangee/ep-ind-claims huggingface dataset:
Points for a track system for rail vehicles, wherein the points have rails and a sequence of sleepers, and at least two of the rails are fastened in each case on a sleeper upper side of the respective sleeper such that they are opposite each other in pairs, and an intermediate layer is arranged in each case between a respective one of the rails. and the respective sleeper upper side, and the sleepers each have a respective sleeper pad on sleeper undersides, which are opposite their respective sleeper upper sides, and the sleeper pads each have at least one elastomer layer, and the intermediate layers each have at least one elastomer layer, characterized in that the elastomer layer of the sleeper pad of a respective one of the sleepers has at least two regions (11, 12) with different softnesses, wherein the harder region of the elastomer layer of the sleeper pad is arranged under a first of the rails (2, 29) and the softer region of the elastomer layer of the sleeper pad is arranged under a second of the rails (2, 30), wherein the first of the rails (2, 29) and the second of the rails (2, 30) are fastened at a distance from each other on the sleeper upper side of the respective sleeper, and the elastomer layer of the intermediate layer arranged between the first of the rails (2, 29) and the sleeper upper side of this sleeper and the elastomer layer of the intermediate layer arranged between the second of the rails (2, 30) and the sleeper upper side of this sleeper have a different softness relative to each other.
A surface property-improving agent for molded bodies made of polyolefin resins, containing: 50.0 parts to 90.0 parts by mass of a non-polar wax with a melting point of 50°C to 100°C; and 10.0 parts to 50.0 parts by mass of a vinyl copolymer obtained by copolymerizing two types of monomers and, wherein the sum of the non-polar wax and the vinyl copolymer is 100.0 parts by mass, the monomer is styrene and/or acrylonitrile, the vinyl copolymer contains 0.1 parts to 49.9 parts by mass of the monomer and 0.1 part to 9.9 parts by mass of the monomer, the sum of the monomer and the monomer is 10.0 parts to 50.0 parts by mass, and the monomer is a methacryloxypropyl polyorganosiloxane represented by the following formula: where m+1 is an integer. 50.0 parts to 90.0 parts by mass of a non-polar wax with a melting point of 50°C to 100°C; and 10.0 parts to 50.0 parts by mass of a vinyl copolymer obtained by copolymerizing two types of monomers and, wherein the sum of the non-polar wax and the vinyl copolymer is 100.0 parts by mass, the monomer is styrene and/or acrylonitrile, the vinyl copolymer contains 0.1 parts to 49.9 parts by mass of the monomer and 0.1 part to 9.9 parts by mass of the monomer, the sum of the monomer and the monomer is 10.0 parts to 50.0 parts by mass, and the monomer is a methacryloxypropyl polyorganosiloxane represented by the following formula: where m+1 is an integer.
A method for providing geographic information to head units of vehicles, the method comprising: determining, by one or more processors at a portable device, a user context related to a geographic location during a session in which a user interacts with a software application executing on the portable device; detecting, by the one or more processors, that the portable device has been communicatively coupled to a head unit of a vehicle, wherein the head unit is equipped with a display device, wherein the session has been deactivated prior to detecting that the portable device has been communicatively coupled to the head unit; transmitting to the head unit, without an express user command, a request that the head unit accept data from the portable device for output via the display device; and in response to receiving an indication that the request has been granted, causing, by the one or more processors, information related to the geographic location to be displayed via the display device, without an express user input at the portable device, wherein determining the user context related to the geographic location comprises: detecting that information related to the geographic location is provided via a user interface of the portable device; automatically determining a likelihood that a user wishes to navigate to the geographic location; and when the likelihood is above a threshold value, causing the geographic location to be automatically selected as a destination for navigation directions. determining, by one or more processors at a portable device, a user context related to a geographic location during a session in which a user interacts with a software application executing on the portable device; detecting, by the one or more processors, that the portable device has been communicatively coupled to a head unit of a vehicle, wherein the head unit is equipped with a display device, wherein the session has been deactivated prior to detecting that the portable device has been communicatively coupled to the head unit; transmitting to the head unit, without an express user command, a request that the head unit accept data from the portable device for output via the display device; and in response to receiving an indication that the request has been granted, causing, by the one or more processors, information related to the geographic location to be displayed via the display device, without an express user input at the portable device, detecting that information related to the geographic location is provided via a user interface of the portable device; automatically determining a likelihood that a user wishes to navigate to the geographic location; and when the likelihood is above a threshold value, causing the geographic location to be automatically selected as a destination for navigation directions.
A solid-state electrolyte for an electrochemical device, the solid-state electrolyte comprising: a conductive material comprising a ceramic material having a crystal structure and a dopant in the crystal structure, the conductive material having a lithium-ion conductivity and a conductive material electronic conductivity wherein the conductive material electronic conductivity is greater than a reference electronic conductivity of a reference material comprising the ceramic material having the crystal structure without the dopant in the crystal structure, wherein the ceramic material comprises an oxide including lithium, lanthanum, and zirconium, wherein the crystal structure is a garnet-type crystal structure, wherein the dopant is selected from the group consisting of transition metal ions and mixtures thereof, wherein the dopant comprises cobalt ions, and wherein the dopant is present in the crystal structure at 0.05 to 3 weight percent based on a total weight of chemical elements in the crystal structure. a conductive material comprising a ceramic material having a crystal structure and a dopant in the crystal structure, the conductive material having a lithium-ion conductivity and a conductive material electronic conductivity wherein the conductive material electronic conductivity is greater than a reference electronic conductivity of a reference material comprising the ceramic material having the crystal structure without the dopant in the crystal structure, wherein the ceramic material comprises an oxide including lithium, lanthanum, and zirconium, wherein the crystal structure is a garnet-type crystal structure, wherein the dopant is selected from the group consisting of transition metal ions and mixtures thereof, wherein the dopant comprises cobalt ions, and wherein the dopant is present in the crystal structure at 0.05 to 3 weight percent based on a total weight of chemical elements in the crystal structure.
A three-dimensional mirror comprising: a glass substrate comprising a first major surface, a second major surface opposite to the first major surface, and a minor surface connecting the first and second major surfaces (508, 509); and a reflective layer disposed on at least a portion of the first major surface of the glass substrate, wherein the first major surface comprises an aspheric curvature and a reverse curvature that is disposed in a reverse curve region of the glass substrate, wherein the second major surface comprises a surface defect from a vacuum forming process used to curve the 3D mirror, wherein the surface defect is a ditch-type vacuum hole imprint that is disposed within 2 mm from an edge of the second major surface, and has a depth of less than about 1 μm. a glass substrate comprising a first major surface, a second major surface opposite to the first major surface, and a minor surface connecting the first and second major surfaces (508, 509); and a reflective layer disposed on at least a portion of the first major surface of the glass substrate, wherein the first major surface comprises an aspheric curvature and a reverse curvature that is disposed in a reverse curve region of the glass substrate, wherein the second major surface comprises a surface defect from a vacuum forming process used to curve the 3D mirror, wherein the surface defect is a ditch-type vacuum hole imprint that is disposed within 2 mm from an edge of the second major surface, and has a depth of less than about 1 μm.
A medical device for denervating renal perivascular nerves comprising a system having a refrigerant source, a controller for the refrigerant source and a catheter comprising a flexible shaft for insertion into the renal artery of a patient, the shaft having an inner lumen for supplying a refrigerant and a cryoballoon arranged at the distal end of the shaft, wherein at least one bipolar electrode is arranged on the cryoballoon for emitting an electrical impulse for stimulating the perivascular nerves, characterized in that the medical device is designed such that, when in use, the cryoballoon touches the wall of the renal artery over an entire length of more than 2.5 cm, cools it by introducing a refrigerant and thereby ablates over an entire length of at least 2.5 cm over the entire circumference, wherein the catheter has a pressure sensor for direct invasive blood pressure measurement during denervation and, in the case of use, measures the rate of pressure rise delta mmHg/s with the sensor, and the control unit is designed to control the source of refrigerant or the supply of refrigerant into the cryoballoon as a function of the rate of rise of a patient's blood pressure.
A laminar core assembly (500, 700) for a circular saw blade or grinder having a first layer (502, 506, 702, 706) combined with a second layer (506, 706) wherein the first layer comprises a plurality of metal sheet sections (504, 504A, 504B, 504C, 504D, 504E, 520, 520A, 520B, 520C, 520D, 604, 604A, 604B, 604C, 604D, 604E, 620, 620A, 620B, 620C), wherein each metal section has an anisotropic material property characteristic and wherein the plurality of metal sections are secured into fixed positions relative to each other to form the first layer, and wherein at least a part of adjacent sections of the plurality of metal sections are separated from each other by a gap (518, 522, 718), and characterized in that a plurality of metal sections are positioned in the first layer as a function of a strength orientation or direction of their anisotropic material property characteristics.
Monitoring device for a disc brake, at least having: a sensor unit for attaching to a brake calliper of a disc brake, and a measuring element, the sensor unit being configured to detect a relative position of the measuring element which can be moved relative to the sensor unit, the sensor unit and the measuring element being spaced apart from one another in order to configure a contactless monitoring device, a prestressing element being arranged between the measuring element and the sensor unit in order to prestress the measuring element against a pressure spindle of the disc brake, characterized in that the measuring element is of annular configuration and surrounds the sensor unit merely partially along a movement direction, a length of the measuring element in the movement direction being smaller than a length of the sensor unit in the movement direction. a sensor unit for attaching to a brake calliper of a disc brake, and a measuring element, the sensor unit being configured to detect a relative position of the measuring element which can be moved relative to the sensor unit, the sensor unit and the measuring element being spaced apart from one another in order to configure a contactless monitoring device, a prestressing element being arranged between the measuring element and the sensor unit in order to prestress the measuring element against a pressure spindle of the disc brake, characterized in that the measuring element is of annular configuration and surrounds the sensor unit merely partially along a movement direction, a length of the measuring element in the movement direction being smaller than a length of the sensor unit in the movement direction.
A method for sending a data packet, comprising: receiving, by an evolved NodeB, a data packet sent by a core network, and sending the data packet to an user equipment over a current access point of the user equipment; and keeping caching the data packet on the evolved NodeB before determining that the user equipment has correctly received the data packet from the current access point, wherein the determining is made according to a response message received from the current access point; when the evolved NodeB knows that the user equipment needs to hand over to the evolved NodeB, stopping sending the data packet sent by the core network to the current access point; after the user equipment hands over to the evolved NodeB, sending, by the evolved NodeB, a data packet that is not determined to have been correctly received by the user equipment from the current access point to the user equipment. receiving, by an evolved NodeB, a data packet sent by a core network, and sending the data packet to an user equipment over a current access point of the user equipment; and keeping caching the data packet on the evolved NodeB before determining that the user equipment has correctly received the data packet from the current access point, wherein the determining is made according to a response message received from the current access point; when the evolved NodeB knows that the user equipment needs to hand over to the evolved NodeB, stopping sending the data packet sent by the core network to the current access point; after the user equipment hands over to the evolved NodeB, sending, by the evolved NodeB, a data packet that is not determined to have been correctly received by the user equipment from the current access point to the user equipment.
A fuel feed system to convey particulate fuel from a hopper to a firebox, the system comprising: a hopper interface having a plurality of sidewalls defining an inlet opening to receive particulate fuel; a support plate located below the inlet opening; a pusher plate assembly movably positioned on the support plate; a passageway including an infeed end below the support plate and a delivery end adjacent a firebox; a delivery system to move particulate fuel through the passageway from the infeed end to the delivery end; a motor configured and disposed to actuate both the delivery system and the pusher plate assembly; and a dust removal system to direct fines to the passageway. a hopper interface having a plurality of sidewalls defining an inlet opening to receive particulate fuel; a support plate located below the inlet opening; a pusher plate assembly movably positioned on the support plate; a passageway including an infeed end below the support plate and a delivery end adjacent a firebox; a delivery system to move particulate fuel through the passageway from the infeed end to the delivery end; a motor configured and disposed to actuate both the delivery system and the pusher plate assembly; and a dust removal system to direct fines to the passageway.
An image forming apparatus capable of, upon satisfaction of a predetermined condition, waking up from a power saving state requiring less power, the image forming apparatus comprising: an image forming section that forms an image on a recording paper sheet; a first detecting section that detects a person present within a predetermined range from the image forming apparatus; a second detecting section that detects an eye gaze of the person detected by the first detecting section; a display section; and a control unit that includes a processor and, upon execution of a control program by the processor, functions as a control section, the image forming apparatus further comprises a sheet output section to which a recording paper sheet having an image formed thereon is to be discharged, characterized in that when, during the power saving state of the image forming apparatus, the first detecting section detects a person and the second detecting section detects an eye gaze of the person directed in a predetermined direction, the control section wakes up the image forming apparatus from the power saving state and control the display section to display a predetermined screen according to the direction of the person's eye gaze detected by the second detecting section, when, during the power saving state of the image forming apparatus, the first detecting section detects a person and the second detecting section detects an eye gaze of the person directed toward the sheet output section, the control section keeps a state of the image forming apparatus in the power saving state. an image forming section that forms an image on a recording paper sheet; a first detecting section that detects a person present within a predetermined range from the image forming apparatus; a second detecting section that detects an eye gaze of the person detected by the first detecting section; a display section; and a control unit that includes a processor and, upon execution of a control program by the processor, functions as a control section, the image forming apparatus further comprises a sheet output section to which a recording paper sheet having an image formed thereon is to be discharged, characterized in that when, during the power saving state of the image forming apparatus, the first detecting section detects a person and the second detecting section detects an eye gaze of the person directed in a predetermined direction, the control section wakes up the image forming apparatus from the power saving state and control the display section to display a predetermined screen according to the direction of the person's eye gaze detected by the second detecting section, when, during the power saving state of the image forming apparatus, the first detecting section detects a person and the second detecting section detects an eye gaze of the person directed toward the sheet output section, the control section keeps a state of the image forming apparatus in the power saving state.
A process for hydrocracking a feedstream comprising hydrocarbons to obtain BTX in a gas phase hydrocracking reactor system which comprises (i) an upstream end and a downstream end, (ii) a plurality of successive reaction zones distributed along the reactor between the upstream end and the downstream end, wherein each of the reaction zones has a bed of a hydrocracking catalyst contained therein and (iii) a plurality of quench zones, the quench zones being distributed along the reactor and each being situated between successive reaction zones, wherein the process comprises: (a) injecting a first portion of a hydrogen gas into the upstream end and a first portion of a hydrocarbon gas from the feedstream into the upstream end and (b) injecting a second portion of the hydrogen gas into at least one of the quench zones and injecting a second portion of the hydrocarbon gas from the feedstream into at least one of the quench zones, wherein the molar ratio between hydrogen and hydrocarbons entering each of the reaction zones is 1:1 to 4:1, wherein the molar ratio between hydrogen and hydrocarbons entering the reaction zones decreases with the distance of the reaction zone from the upstream end of the reactor. (i) an upstream end and a downstream end, (ii) a plurality of successive reaction zones distributed along the reactor between the upstream end and the downstream end, wherein each of the reaction zones has a bed of a hydrocracking catalyst contained therein and (iii) a plurality of quench zones, the quench zones being distributed along the reactor and each being situated between successive reaction zones, wherein the process comprises: (a) injecting a first portion of a hydrogen gas into the upstream end and a first portion of a hydrocarbon gas from the feedstream into the upstream end and (b) injecting a second portion of the hydrogen gas into at least one of the quench zones and injecting a second portion of the hydrocarbon gas from the feedstream into at least one of the quench zones, wherein the molar ratio between hydrogen and hydrocarbons entering each of the reaction zones is 1:1 to 4:1, wherein the molar ratio between hydrogen and hydrocarbons entering the reaction zones decreases with the distance of the reaction zone from the upstream end of the reactor. (a) injecting a first portion of a hydrogen gas into the upstream end and a first portion of a hydrocarbon gas from the feedstream into the upstream end and (b) injecting a second portion of the hydrogen gas into at least one of the quench zones and injecting a second portion of the hydrocarbon gas from the feedstream into at least one of the quench zones, wherein the molar ratio between hydrogen and hydrocarbons entering each of the reaction zones is 1:1 to 4:1, wherein the molar ratio between hydrogen and hydrocarbons entering the reaction zones decreases with the distance of the reaction zone from the upstream end of the reactor.
An antenna (100; 300; 400; 600), comprising: a suspended air stripline, SAS, (210; 340) disposed in a housing, said SAS having a proximate end and a distal end; a ridged waveguide coupler (220; 320, 330, 350), having a proximate end and a distal end, said proximate end of said ridged waveguide coupler disposed substantially in an aperture in said housing and coupled thereto, said aperture located above said distal end of said SAS; an electromagnetic bandgap, EBG, ground plane (120a; 333; 33a; 610) disposed on said housing substantially surrounding said ridged waveguide coupler; and one or more radiating elements (230; 310; 620) coupled to the distal end of said ridged waveguide coupler, wherein said one or more radiating elements are configured to couple electromagnetic energy from the proximate end of said SAS, through said ridged waveguide coupler, and into free space. a suspended air stripline, SAS, (210; 340) disposed in a housing, said SAS having a proximate end and a distal end; a ridged waveguide coupler (220; 320, 330, 350), having a proximate end and a distal end, said proximate end of said ridged waveguide coupler disposed substantially in an aperture in said housing and coupled thereto, said aperture located above said distal end of said SAS; an electromagnetic bandgap, EBG, ground plane (120a; 333; 33a; 610) disposed on said housing substantially surrounding said ridged waveguide coupler; and one or more radiating elements (230; 310; 620) coupled to the distal end of said ridged waveguide coupler, wherein said one or more radiating elements are configured to couple electromagnetic energy from the proximate end of said SAS, through said ridged waveguide coupler, and into free space.