mhurhangee/ep-ind-claims huggingface dataset:
A soil processing machine, in particular a soil compactor, comprising at least one drive roller (28, 30) driven to rotate and an electrohydraulic drive system for driving at least one drive roller (28, 30), wherein the electrohydraulic drive system has a traction hydraulic circuit having at least one traction hydraulic motor (46, 48) in association with at least one drive roller (28, 30) and at least one traction hydraulic pump driven by an electric motor for conveying fluid in the traction hydraulic circuit, wherein the traction hydraulic circuit comprises a first line region between a first connection fitting of the at least one traction hydraulic pump and a respective first connection fitting (54, 56) of each traction hydraulic motor (46, 48) for conveying fluid to each traction hydraulic motor (46, 48) to drive the at least one drive roller (28, 30) in a first direction of rotation and a second line region between a second connection fitting of the at least one traction hydraulic pump and a respective second connection fitting (68, 70) of each traction hydraulic motor (46, 48) for conveying fluid to each traction hydraulic motor (46, 48) to drive the at least one drive roller (28, 30) in a second direction of rotation opposite to the first direction of rotation, wherein a valve assembly (78, 80) is provided in association with each line region (50, 64) for selectively interrupting and releasing a fluid flow connection between the at least one traction hydraulic pump and at least one traction hydraulic motor (46, 48), characterized in that a first pressure sensor arrangement is provided in association with the valve assembly arranged in the first line region, wherein the first pressure sensor arrangement comprises at least one pressure sensor for detecting a fluid pressure in a line section of the first line region between the first connection fitting of the at least one traction hydraulic pump and the valve assembly arranged in the first line region and at least one pressure sensor for detecting a fluid pressure in a line section of the first line region between the valve assembly arranged in the first line region and the at least one traction hydraulic motor (46, 48), and/or in that a second pressure sensor arrangement is provided in association with the valve assembly arranged in the second line region, wherein the second pressure sensor arrangement comprises at least one pressure sensor for detecting a fluid pressure in a line section of the second line region between the second connection fitting of the at least one traction hydraulic pump and the valve assembly arranged in the second line region and at least one pressure sensor for detecting a fluid pressure in a line section of the second line region between the valve assembly arranged in the second line region and the at least one traction hydraulic motor (46, 48).
Insert for a rim of a spoked wheel for bicycle, comprising: - a first surface portion configured to abut against an inner surface of a rim at a spoke attachment hole of the rim, - a through hole extending along a longitudinal axis and configured to be crossed by a spoke attachment element, and - a second surface portion configured to abut against an enlarged head of the spoke attachment element, - at least one holding element configured to prevent the movement of the spoke attachment element along said longitudinal axis when said spoke attachment element abuts against said second surface portion, characterized in that said insert comprises a main body on which a first through hole is made and an annular element coupled with the main body and having a second through hole arranged coaxially to the first through hole, the through hole of the insert being defined by the first and second through hole (62a, 62b), wherein said at least one holding element is defined by at least one flexible portion (67a, 767a) of said annular element that projects cantilevered in said second through hole. - a first surface portion configured to abut against an inner surface of a rim at a spoke attachment hole of the rim, - a through hole extending along a longitudinal axis and configured to be crossed by a spoke attachment element, and - a second surface portion configured to abut against an enlarged head of the spoke attachment element, - at least one holding element configured to prevent the movement of the spoke attachment element along said longitudinal axis when said spoke attachment element abuts against said second surface portion,
A pressure washer, for providing a super-heated jet of water, the pressure washer comprising: a water pump configured to provide at most 20 litres of water per minute at greater than 15 MPa to an output thereof; a boiler arranged to receive pressurised water from the output of the water pump, the boiler configured to heat the pressurised water with a power of at least 75 kW to a temperature of at least 155 degrees centigrade; a hose for conveying the super-heated pressurised water from the boiler, wherein the hose comprises a PTFE lining; and a nozzle connected to the hose and configured to produce a shaped liquid spray jet of super-heated water. a water pump configured to provide at most 20 litres of water per minute at greater than 15 MPa to an output thereof; a boiler arranged to receive pressurised water from the output of the water pump, the boiler configured to heat the pressurised water with a power of at least 75 kW to a temperature of at least 155 degrees centigrade; a hose for conveying the super-heated pressurised water from the boiler, wherein the hose comprises a PTFE lining; and a nozzle connected to the hose and configured to produce a shaped liquid spray jet of super-heated water.
Rainwater collector, in particular for a flat roof, comprising a water inlet opening arranged at the top, a water outlet opening having a smaller diameter arranged at the bottom and an intermediate portion therebetween which is rotationally symmetrical with respect to a vertical axis and the inner wall of which extends along a contour line which starts planarly at an incline to a horizontal plane at the top and extends so as to taper at a distance from the horizontal plane at the bottom, steeply tapering into an inner cylinder lateral surface of a cylinder portion, which surface extends around the vertical axis, characterised in that the contour line is defined by the graphs of a function R = D 0 · (H/x) 1/4 · C + K, which specifies a radial distance for each axial distance (x) from the horizontal plane, C and K being in the range of from 0.1 and 2, D0 corresponding to the diameter of the cylinder portion.
A resin composition comprising: a compound having a maleimido group, a divalent group having at least two imido bonds, and a saturated or unsaturated divalent hydrocarbon group having a number of carbon atoms of 8 to 100, an inorganic filler, and a catalyst, wherein a relative dielectric constant at 10 GHz of a cured substance of the resin composition determined by a cavity resonator perturbation method as described in the passage entitled "Dielectric characteristics" of the description is 3.1 or lower, wherein the content of the compound with respect to the total mass of the resin composition is 2 to 50% by mass, wherein the content ratio of the inorganic filler with respect to the total volume of the solid content in the resin composition is 3 to 75% by volume, wherein the number of divalent groups having at least two imido bonds in the compound is 2 to 40, wherein the number of saturated or unsaturated divalent hydrocarbon groups having a number of carbon atoms of 8 to 100 in the compound is 2 to 40, wherein the divalent group having at least two imido bonds is a group represented by the following formula: wherein in the formula, R 1 represents a tetravalent organic group, and wherein the saturated or unsaturated divalent hydrocarbon group is a group represented by the following formula: wherein in the formula, R 2 and R 3 each independently represent an alkylene group having 4 to 50 carbon atoms; R 4 represents an alkyl group having 4 to 50 carbon atoms; and R 5 represents an alkyl group having 2 to 50 carbon atoms. a compound having a maleimido group, a divalent group having at least two imido bonds, and a saturated or unsaturated divalent hydrocarbon group having a number of carbon atoms of 8 to 100, an inorganic filler, and a catalyst, wherein a relative dielectric constant at 10 GHz of a cured substance of the resin composition determined by a cavity resonator perturbation method as described in the passage entitled "Dielectric characteristics" of the description is 3.1 or lower, wherein the content of the compound with respect to the total mass of the resin composition is 2 to 50% by mass, wherein the content ratio of the inorganic filler with respect to the total volume of the solid content in the resin composition is 3 to 75% by volume, wherein the number of divalent groups having at least two imido bonds in the compound is 2 to 40, wherein the number of saturated or unsaturated divalent hydrocarbon groups having a number of carbon atoms of 8 to 100 in the compound is 2 to 40, wherein the divalent group having at least two imido bonds is a group represented by the following formula: wherein in the formula, R 1 represents a tetravalent organic group, and wherein the saturated or unsaturated divalent hydrocarbon group is a group represented by the following formula: wherein in the formula, R 2 and R 3 each independently represent an alkylene group having 4 to 50 carbon atoms; R 4 represents an alkyl group having 4 to 50 carbon atoms; and R 5 represents an alkyl group having 2 to 50 carbon atoms.
A method of power and data transfer in a rotating wing aircraft, characterized by: providing, by a coil (204, 302) embedded in paramagnetic material in a rotor shaft of a rotor hub composed of a paramagnetic material, power to at least one sensor (12, 214, 304); and receiving, by the coil (204, 302), data from the at least one sensor (12, 214, 304). providing, by a coil (204, 302) embedded in paramagnetic material in a rotor shaft of a rotor hub composed of a paramagnetic material, power to at least one sensor (12, 214, 304); and receiving, by the coil (204, 302), data from the at least one sensor (12, 214, 304).
A method of making cheese having a ratio of K/Na of more than 0.2 up to 4.0 wherein the cheese is salted with a salting agent comprising milk minerals and NaCl, wherein the NaCl content of the cheese is more than 0.81% up to 5.0%.
A heating device for heating a curable dental material, the heating device comprising: a body having an opening (22, 24) formed therein configured to at least partially receive a container (26, 28) housing the curable dental material to be heated, at least one light emitting diode configured to emit infrared light having a wavelength in the range of 500nm - 2000nm, preferably in the range of 800nm - 1500nm, onto an outer surface of the container (26, 28) housing the curable dental material once received in the opening (22, 24), at least one temperature sensor configured to determine a temperature of the outer surface of the container (26, 28) once received in the opening (22, 24) of the body, and a controller having a control circuitry configured to communicate with the temperature sensor and the at least one light emitting diode and to control the temperature of the outer surface of the container (26, 28) based on the temperature of the outer surface of the container (26, 28) determined by the temperature sensor by controlling the amount of infrared light emitted by the at least one light emitting diode wherein the temperature sensor is either a contactless temperature sensor configured to detect infrared energy emitted by the container, or a contact temperature sensor configured to contact the outer surface of the container in order to determine the temperature of the outer surface of the container. a body having an opening (22, 24) formed therein configured to at least partially receive a container (26, 28) housing the curable dental material to be heated, at least one light emitting diode configured to emit infrared light having a wavelength in the range of 500nm - 2000nm, preferably in the range of 800nm - 1500nm, onto an outer surface of the container (26, 28) housing the curable dental material once received in the opening (22, 24), at least one temperature sensor configured to determine a temperature of the outer surface of the container (26, 28) once received in the opening (22, 24) of the body, and a controller having a control circuitry configured to communicate with the temperature sensor and the at least one light emitting diode and to control the temperature of the outer surface of the container (26, 28) based on the temperature of the outer surface of the container (26, 28) determined by the temperature sensor by controlling the amount of infrared light emitted by the at least one light emitting diode wherein the temperature sensor is either a contactless temperature sensor configured to detect infrared energy emitted by the container, or a contact temperature sensor configured to contact the outer surface of the container in order to determine the temperature of the outer surface of the container.
Sailboat steering system comprising a steerable saildrive, a control lever for controlling a propeller speed of the steerable saildrive, a rudder angle sensor to measure the ruder angle α of a rudder, and an electronic control unit, wherein the electronic control unit is enabled to control a steering angle β of the steerable saildrive depending on the position of the control lever and depending on a rudder angle α of the rudder, measured by the rudder angle sensor, and wherein the sailboat steering system allows setting the rudder angle α and the steering angle β to different values at different boat speeds.
Gas burners system for a food cooking appliance, said burners system comprising a couple of burners (10, 20) substantially concentric, said couple of burners (10, 20) comprising an outer burner provided with a first burner cap and an inner burner provided with a second burner cap, said first burner cap and said second burner cap respectively comprising a plurality of first openings and second openings to allow the emission of gas, said first burner cap has a substantially circular shape when viewed in plan and each first opening has an elongated shape when viewed in plan, wherein each first opening comprises a first portion, a second portion and an intermediate portion, said second portion being closer to the central burner than said first portion, and wherein each first opening is oriented substantially in radial way on said first burner cap, characterized in that the burners system comprises passages formed on a side surface of the outer burner, in particular said passages being positioned on opposite sides respect to a vertical axis (A-A) of said burners system, said passages allowing to suck the primary air above a cooking hob, and in that said first openings and second openings develop in a direction substantially parallel to the vertical axis (A-A) of the burners system to generate a flame which propagates from the burners system towards the outside in said direction substantially parallel to said axis (A-A) of the burners system.
Composition comprising, based on the dry weight of said composition, 10 to 70 % by weight of one or more hydraulic binder and 20 to 85 % by weight of one or more filler, characterized in that the composition contains 0,05 to 5 % by weight, based on the amount of the hydraulic binder, of at least one terpenoid alcohol, wherein the terpenoid alcohol is not terpineol or borneol. 10 to 70 % by weight of one or more hydraulic binder and 20 to 85 % by weight of one or more filler,
A system for tomographic imaging, the system comprising: a plurality of x-ray sources (301, 601, 701) positioned statically with respect to one another; an x-ray detector; a processing device; and, a linear particle accelerator (LINAC) having a radiation source (602,702); wherein the detector is positioned such that an object to be imaged is aligned between the plurality of x-ray sources and the detector; wherein each x-ray source (301, 601, 701) and the radiation source of the linear particle accelerator (LINAC) (602, 702) are focused on a common isocenter; and, wherein the plurality of x-ray sources are disposed in a ring-shaped, oval or rectangular configuration. a plurality of x-ray sources (301, 601, 701) positioned statically with respect to one another; an x-ray detector; a processing device; and, a linear particle accelerator (LINAC) having a radiation source (602,702); wherein the detector is positioned such that an object to be imaged is aligned between the plurality of x-ray sources and the detector; wherein each x-ray source (301, 601, 701) and the radiation source of the linear particle accelerator (LINAC) (602, 702) are focused on a common isocenter; and, wherein the plurality of x-ray sources are disposed in a ring-shaped, oval or rectangular configuration.
A method of receiving a signal by a first station, STA, from a second STA in a wireless local area network, WLAN, system, the method comprising: receiving a header field comprising 2 ∗ N Modulation and Coding Scheme, MCS, information for at least one spatial stream from the second STA, wherein N is a natural number; and receiving the signal from the second STA based on the 2 ∗ N MCS information for spatial streams, wherein based on the signal being received based on a channel aggregation, N MCS information of 2 ∗ N MCS information is used for a first aggregated channel and remaining N MCS information of 2 ∗ N MCS information is used for a second aggregated channel, wherein the 2 ∗ N MCS information indicates a plurality of a modulation types, characterized in that: based on a maximum number of the at least one spatial stream being 8, a maximum number of the MCS information having different modulation types among the 2 ∗ N MCS information is 4, and wherein based on the channel aggregation being not used for the spatial streams, the 2 ∗ N MCS information is used for Single User - Multi Input Multi Output, SU-MIMO transmission using single channel or channel bonding. receiving a header field comprising 2 ∗ N Modulation and Coding Scheme, MCS, information for at least one spatial stream from the second STA, wherein N is a natural number; and receiving the signal from the second STA based on the 2 ∗ N MCS information for spatial streams, wherein based on the signal being received based on a channel aggregation, N MCS information of 2 ∗ N MCS information is used for a first aggregated channel and remaining N MCS information of 2 ∗ N MCS information is used for a second aggregated channel, wherein the 2 ∗ N MCS information indicates a plurality of a modulation types, characterized in that: based on a maximum number of the at least one spatial stream being 8, a maximum number of the MCS information having different modulation types among the 2 ∗ N MCS information is 4, and wherein based on the channel aggregation being not used for the spatial streams, the 2 ∗ N MCS information is used for Single User - Multi Input Multi Output, SU-MIMO transmission using single channel or channel bonding. based on a maximum number of the at least one spatial stream being 8, a maximum number of the MCS information having different modulation types among the 2 ∗ N MCS information is 4, and wherein based on the channel aggregation being not used for the spatial streams, the 2 ∗ N MCS information is used for Single User - Multi Input Multi Output, SU-MIMO transmission using single channel or channel bonding.
An electronic device comprising: a) a housing; b) a first printed circuit board,PCB, carried by the housing and radio frequency, RF, circuitry on the PCB; and c) an RF filter module carried by the PCB comprising a) a second PCB carried by the first PCB, b) a plurality of first coaxial resonators arranged in side-by-side relation on the second PCB, and at least one second coaxial resonator stacked on the plurality of first coaxial resonators, and c) interconnect circuitry (46, 47) coupling the plurality of first coaxial resonators and the at least one second coaxial resonator to the second PCB (40; wherein the electronic device further comprises: d) a daughter board, e) the interconnect circuitry (46, 47) is at least partially carried by the daughter board which extends vertically upward from the second PCB. a) a housing; b) a first printed circuit board,PCB, carried by the housing and radio frequency, RF, circuitry on the PCB; and c) an RF filter module carried by the PCB comprising a) a second PCB carried by the first PCB, b) a plurality of first coaxial resonators arranged in side-by-side relation on the second PCB, and at least one second coaxial resonator stacked on the plurality of first coaxial resonators, and c) interconnect circuitry (46, 47) coupling the plurality of first coaxial resonators and the at least one second coaxial resonator to the second PCB (40; wherein the electronic device further comprises: d) a daughter board, e) the interconnect circuitry (46, 47) is at least partially carried by the daughter board which extends vertically upward from the second PCB. a) a second PCB carried by the first PCB, b) a plurality of first coaxial resonators arranged in side-by-side relation on the second PCB, and at least one second coaxial resonator stacked on the plurality of first coaxial resonators, and c) interconnect circuitry (46, 47) coupling the plurality of first coaxial resonators and the at least one second coaxial resonator to the second PCB (40; wherein the electronic device further comprises: d) a daughter board, e) the interconnect circuitry (46, 47) is at least partially carried by the daughter board which extends vertically upward from the second PCB.
A method (1700, 1800) for wireless communication performed at a user equipment, UE, comprising: monitoring (1705, 1805) a common portion of a control channel shared by a plurality of user equipments, UEs, and a dedicated portion of the control channel that is specific to the UE, the common portion assigned to a first set of control channel resources and the dedicated portion assigned to a second set of control channel resources within the control channel; concatenating (1710, 1815), based at least in part on the monitoring, information fields of one or more symbols received via the first and second sets of control channel resources to form a polar-encoded codeword; and decoding (1715, 1820) the polar-encoded codeword to obtain common information, comprising control information for a plurality of UEs, from the common portion and dedicated information, comprising control information specific to the UE, from the dedicated portion. monitoring (1705, 1805) a common portion of a control channel shared by a plurality of user equipments, UEs, and a dedicated portion of the control channel that is specific to the UE, the common portion assigned to a first set of control channel resources and the dedicated portion assigned to a second set of control channel resources within the control channel; concatenating (1710, 1815), based at least in part on the monitoring, information fields of one or more symbols received via the first and second sets of control channel resources to form a polar-encoded codeword; and decoding (1715, 1820) the polar-encoded codeword to obtain common information, comprising control information for a plurality of UEs, from the common portion and dedicated information, comprising control information specific to the UE, from the dedicated portion.