mhurhangee/ep-ind-claims huggingface dataset:
A thrust reverser system comprising: a pressure shell; a blocker door pivotably coupled to the pressure shell; and a drag link comprising: a first segment pivotably coupled to a second segment, and a third segment pivotably coupled to the second segment and the blocker door; wherein the second segment is configured to nest within the first segment and the third segment is configured to nest within the second segment when the blocker door is in a stowed position; characterised in that: the blocker door comprises a trench extending from a surface of the blocker door, the trench comprising a first sidewall and a second sidewall extending substantially perpendicular from the surface and a joining wall disposed between and coupled with the first sidewall and second sidewall; and in that the first segment is configured to exert a force on a first end of the second segment, wherein a second end of the first segment is configured to contact the first end of the second segment such that, when deploying, a second end of the second segment exerts a force upon the joining wall of the trench, causing a cranking action that assists a pivoting motion of the blocker door. a pressure shell; a blocker door pivotably coupled to the pressure shell; and a drag link comprising: a first segment pivotably coupled to a second segment, and a third segment pivotably coupled to the second segment and the blocker door; a first segment pivotably coupled to a second segment, and a third segment pivotably coupled to the second segment and the blocker door; wherein the second segment is configured to nest within the first segment and the third segment is configured to nest within the second segment when the blocker door is in a stowed position; characterised in that: the blocker door comprises a trench extending from a surface of the blocker door, the trench comprising a first sidewall and a second sidewall extending substantially perpendicular from the surface and a joining wall disposed between and coupled with the first sidewall and second sidewall; and in that the first segment is configured to exert a force on a first end of the second segment, wherein a second end of the first segment is configured to contact the first end of the second segment such that, when deploying, a second end of the second segment exerts a force upon the joining wall of the trench, causing a cranking action that assists a pivoting motion of the blocker door. the blocker door comprises a trench extending from a surface of the blocker door, the trench comprising a first sidewall and a second sidewall extending substantially perpendicular from the surface and a joining wall disposed between and coupled with the first sidewall and second sidewall; and in that the first segment is configured to exert a force on a first end of the second segment, wherein a second end of the first segment is configured to contact the first end of the second segment such that, when deploying, a second end of the second segment exerts a force upon the joining wall of the trench, causing a cranking action that assists a pivoting motion of the blocker door.
Device for withdrawing wire from a wire pack having a wire winding, comprising a wire container in which the wire pack having the wire winding is arranged, a support ring arranged on the wire pack and a guide for the wire to be withdrawn from the wire pack, wherein the wire can be drawn off at the outer side of the support ring facing the inner wall of the wire container, characterized in that the guide is formed by a rotary eye which is rotatably mounted on the support ring and through which the wire to be drawn off can be guided.
A three-phase or single phase dry transformer comprising at least: - a housing, the housing comprising inside it at least one coil; - a sealed compartment, the sealed compartment being associated to the transformer housing, the sealed compartment being provided with a cavity; - a taps panel being associated to the coil; the transformer being characterized in that the taps panel is positioned inside the cavity, the cavity being filled with a removable solid dielectric material. - a housing, the housing comprising inside it at least one coil; - a sealed compartment, the sealed compartment being associated to the transformer housing, the sealed compartment being provided with a cavity; - a taps panel being associated to the coil;
Stacking arrangement, comprising at least one portable container of a first type with a container body having a stowage receptacle bounded by circumferential walls and accessible through a stowage receptacle opening at a top side of the container for stowing items, wherein a carrying handle projecting upwards in front of the circumferential walls is provided on the container body, wherein a base wall provided at an underside of the container body for stacking the container onto a lower container (10; 60; 80) along a stacking direction is formed, wherein the container of the first type is designed for stacking onto a lower container of the same first type in such a way that a carrying handle receptacle for accommodating a carrying handle of the lower container is provided at the underside of the container body and the container of the first type has first coupling components of first coupling means for a coupling to the lower container of the first type which is resistant to pull-off in the stacking direction, so that the coupled containers, wherein the carrying handle of the lower container engages with the carrying handle receptacle of the upper container, can be carried as a container stack, characterised in that the stacking arrangement comprises at least one container of a second type, wherein the underside of the container of the first type is designed for stacking onto the container of the second type and coupling components of second coupling means (45, 55), which are different from the first coupling means, are provided in the region of the underside of the container of the first type for a coupling of the container to the lower container of the second type which is resistant to pull-off in the stacking direction, wherein the coupling components of the second coupling means comprise a locking anchor contour located in a fixed position on the container of the first type and a rotary lock mounted on the second container for rotation about an axis of rotation, wherein the axis of rotation extends approximately orthogonally to a side wall of the container of the second type, and wherein the rotary lock can be brought into coupling engagement with the locking anchor contour when adopting a coupling position.
A power converter comprising: a power conversion module configured to convert input three-phase AC power to desired power and to output the desired power; a drive control unit configured to drive an active element included in the power conversion module; a power supply unit that generates a power supply voltage for the drive control unit and outputs the power supply voltage to the drive control unit; and three-phase AC power lines that are provided at a previous stage of the power conversion module and output a three-phase AC power connected to an input side of the power conversion module to the power conversion module; characterized in that the three-phase AC power lines do not comprise a neutral line, and the power converter further comprises: two capacitors, that are connected in series between a phase power line,, and another phase power line,, among the three-phase AC power lines; and power supply lines that are respectively connected between the phase power line,, and the power supply unit, and between the two capacitors, and the power supply unit to supply power to the power supply unit. a power conversion module configured to convert input three-phase AC power to desired power and to output the desired power; a drive control unit configured to drive an active element included in the power conversion module; a power supply unit that generates a power supply voltage for the drive control unit and outputs the power supply voltage to the drive control unit; and three-phase AC power lines that are provided at a previous stage of the power conversion module and output a three-phase AC power connected to an input side of the power conversion module to the power conversion module; characterized in that the three-phase AC power lines do not comprise a neutral line, and the power converter further comprises: two capacitors, that are connected in series between a phase power line,, and another phase power line,, among the three-phase AC power lines; and power supply lines that are respectively connected between the phase power line,, and the power supply unit, and between the two capacitors, and the power supply unit to supply power to the power supply unit. two capacitors, that are connected in series between a phase power line,, and another phase power line,, among the three-phase AC power lines; and power supply lines that are respectively connected between the phase power line,, and the power supply unit, and between the two capacitors, and the power supply unit to supply power to the power supply unit.
Glass fibre of quaternary composition comprising SiO 2, Al 2 O 3, CaO, and MgO, each present in an amount of at least 5 wt.%, and comprising less than 3.3 wt.% B 2 O 3, and less than 2.0 wt.% fluorine, characterized in that, • Al 2 O 3 < 20 wt.%, • 23.5 ≤ MgO + CaO ≤ 35.0 wt%, and • 27.0 ≤ MgO + Al 2 O 3 ≤ 43.0 wt.%, all amounts being expressed in weight % with respect to the total weight of the composition, and wherein a quaternary composition is defined as a composition comprising at least 5 wt% of the following four components: SiO 2, Al 2 O 3, CaO, and MgO. • Al 2 O 3 < 20 wt.%, • 23.5 ≤ MgO + CaO ≤ 35.0 wt%, and • 27.0 ≤ MgO + Al 2 O 3 ≤ 43.0 wt.%, all amounts being expressed in weight % with respect to the total weight of the composition, and wherein a quaternary composition is defined as a composition comprising at least 5 wt% of the following four components: SiO 2, Al 2 O 3, CaO, and MgO.
A method of transmitting a signal from a wireless power receiver, the method comprising the steps of: receiving a signal from at least one of a wireless power supplier and an external wireless power receiver; determining a transmission frequency of a transmission signal based on whether a power communication signal from the external wireless power receiver is included in the received signal; and transmitting the transmission signal including transmission data based on the transmission frequency. receiving a signal from at least one of a wireless power supplier and an external wireless power receiver; determining a transmission frequency of a transmission signal based on whether a power communication signal from the external wireless power receiver is included in the received signal; and transmitting the transmission signal including transmission data based on the transmission frequency.
For use in a user equipment, UE, in a wireless communication system, a method of determining channel quality information, CQI, the method comprising: receiving, from an eNodeB, eNB, signaling parameters related to a co-channel precoding matrix indicator, PMI, codebook, wherein the co-channel PMI codebook is selected from a plurality of predefined co-channel PMI codebooks; determining a single user PMI, SU-PMI; determining a co-channel PMI based on the determined SU-PMI and the received signaling parameters; determining a multi-user CQI, MU-CQI, based on the determined co-channel PMI; and transmitting the MU-CQI to the eNB. receiving, from an eNodeB, eNB, signaling parameters related to a co-channel precoding matrix indicator, PMI, codebook, wherein the co-channel PMI codebook is selected from a plurality of predefined co-channel PMI codebooks; determining a single user PMI, SU-PMI; determining a co-channel PMI based on the determined SU-PMI and the received signaling parameters; determining a multi-user CQI, MU-CQI, based on the determined co-channel PMI; and transmitting the MU-CQI to the eNB.
Actuating device for the remote actuation of a member to be actuated by means of an actuating member, wherein the actuating device comprises a flexible actuating jacket and a flexible actuating core displaceably guided therein and wherein the actuating jacket is surrounded by an attenuator element made from a rubber-elastic material at least at one position, wherein the attenuator element comprises a hub disposed on the actuating jacket, from which at least one attenuator disk extends radially, characterized in, that the attenuator disk comprises one or more, particularly 3 to 6 axial preferably circular through holes (7 to 11) from each of which extends an insertion slot (12 to 16) extending to the circumference of the attenuator disk.
A battery electrode paste composition, comprising: a silane coupling agent-modified active substance comprising lithium and at least one non-lithium metal, wherein the silane coupling agent-modified active substance is obtained by bonding a silane coupling agent to an active substance; a conductive additive; an adhesive; and a maleimide additive comprising a compound having a maleimide structure. a silane coupling agent-modified active substance comprising lithium and at least one non-lithium metal, wherein the silane coupling agent-modified active substance is obtained by bonding a silane coupling agent to an active substance; a conductive additive; an adhesive; and a maleimide additive comprising a compound having a maleimide structure.
A method of conveying a mixture of liquid refrigerant and gaseous refrigerant through an evaporator shell that contains a plurality of heat exchanger tubes, the method comprising: delivering the mixture of liquid refrigerant and gaseous refrigerant into a bottom portion (56, 108) of the evaporator shell, wherein the mixture upon entering the evaporator shell is at least 90% gaseous refrigerant by volume; at least temporarily trapping the gaseous refrigerant within a gas trap chamber (42a, 42b, 62a, 62b) that is between the bottom portion of the evaporator shell and the plurality of heat exchanger tubes; and conveying the liquid refrigerant from the gas trap chamber (42a, 42b, 62a, 62b) and directing the liquid refrigerant upward toward the plurality of heat exchanger tubes. delivering the mixture of liquid refrigerant and gaseous refrigerant into a bottom portion (56, 108) of the evaporator shell, wherein the mixture upon entering the evaporator shell is at least 90% gaseous refrigerant by volume; at least temporarily trapping the gaseous refrigerant within a gas trap chamber (42a, 42b, 62a, 62b) that is between the bottom portion of the evaporator shell and the plurality of heat exchanger tubes; and conveying the liquid refrigerant from the gas trap chamber (42a, 42b, 62a, 62b) and directing the liquid refrigerant upward toward the plurality of heat exchanger tubes.
A method comprising: receiving crossline measurement data measured by survey receivers; based at least in part on an amount of crossline energy of the crossline measurement data, selecting a type of data processing technique from among a plurality of different types of data processing techniques comprising a 2-dimensional data processing technique, a 2.5-dimensional data processing technique, and a 3-dimensional data processing technique, wherein the amount of crossline energy comprises an amount of energy that is present in a signal that propagates in a crossline direction; and performing the selected type of data processing technique to characterize a target structure. receiving crossline measurement data measured by survey receivers; based at least in part on an amount of crossline energy of the crossline measurement data, selecting a type of data processing technique from among a plurality of different types of data processing techniques comprising a 2-dimensional data processing technique, a 2.5-dimensional data processing technique, and a 3-dimensional data processing technique, wherein the amount of crossline energy comprises an amount of energy that is present in a signal that propagates in a crossline direction; and performing the selected type of data processing technique to characterize a target structure.
A method performed at a synchronising entity of synchronising the broadcasting of data by multiple base stations to groups of multiple users via a wireless communication network such that the same data is broadcast at substantially the same time by each of said multiple base stations such that a user equipment receiving the same signal from multiple base stations can make use of the multiple same signals when decoding, comprising: receiving from a network control node information regarding a change in service to be provided to a first group of multiple users receiving an existing service from a multimedia broadcast multicast gateway; transmitting control data regarding said change in service to said multiple base stations along with an indicator of where in a multiplexed data stream, comprising said existing service, said control data should be inserted; wherein said control data comprises radio bearer information indicating a traffic channel for transmitting user data of a new service and configuration information for transmission of said user data. receiving from a network control node information regarding a change in service to be provided to a first group of multiple users receiving an existing service from a multimedia broadcast multicast gateway; transmitting control data regarding said change in service to said multiple base stations along with an indicator of where in a multiplexed data stream, comprising said existing service, said control data should be inserted; wherein said control data comprises radio bearer information indicating a traffic channel for transmitting user data of a new service and configuration information for transmission of said user data.
A titanium black dispersion for a wafer level lens comprising: titanium black particles; a dispersant; and an organic solvent, wherein 90% or more of dispersed objects that consist of the titanium black particles have particle diameters of 30 nm or less. titanium black particles; a dispersant; and an organic solvent, wherein 90% or more of dispersed objects that consist of the titanium black particles have particle diameters of 30 nm or less.
A polishing pad for polishing a substrate, the polishing pad comprising: a polishing body having a polishing side opposite a back surface; and a polishing surface comprising a plurality of cylindrical protrusions continuous with the polishing side of the polishing body; wherein the plurality of cylindrical protrusions is arranged in a plurality of high density regions having less spacing between adjacent protrusions within a high density region than between adjacent protrusions of adjacent high density regions; wherein the cylindrical protrusions of each high density region are arranged in a hexagonal-packed pattern, the polishing pad being characterized in that each of the high density regions has a rhombic shape, and a sub-pattern of a plurality of the high density regions is repeated every 60 degree rotation of the polishing pad. a polishing body having a polishing side opposite a back surface; and a polishing surface comprising a plurality of cylindrical protrusions continuous with the polishing side of the polishing body; wherein the plurality of cylindrical protrusions is arranged in a plurality of high density regions having less spacing between adjacent protrusions within a high density region than between adjacent protrusions of adjacent high density regions; wherein the cylindrical protrusions of each high density region are arranged in a hexagonal-packed pattern, the polishing pad being characterized in that each of the high density regions has a rhombic shape, and a sub-pattern of a plurality of the high density regions is repeated every 60 degree rotation of the polishing pad.
Method for determining a relative humidity of the air in a motor vehicle passenger compartment, comprising the following steps: - determining a parameter reflecting a specific humidity of the air from a relative humidity of the air and a temperature of the air in a particulate matter sensor integrating at least one temperature sensor and a relative humidity sensor; - calculating the relative humidity of the air in said passenger compartment of the motor vehicle from said parameter and a temperature of the air in the passenger compartment, said parameter being a partial pressure of the water in the air (Pvap). - determining a parameter reflecting a specific humidity of the air from a relative humidity of the air and a temperature of the air in a particulate matter sensor integrating at least one temperature sensor and a relative humidity sensor; - calculating the relative humidity of the air in said passenger compartment of the motor vehicle from said parameter and a temperature of the air in the passenger compartment, said parameter being a partial pressure of the water in the air (Pvap).
Method for producing an injection molding tool for creating an optical element for influencing the light output of lighting means, wherein the injection molding tool is designed such that the optical element to be produced comprises a frustoconical lens body, wherein the frustoconical lens body comprises a recess having a base surface and peripheral surface as a light in-coupling surface, a lateral surface, and a light-refracting light exit surface provided with a scattering structure which is configured in a wave-like manner, wherein the injection molding tool comprises a surface region which is provided for forming the light-refracting light exit surface of the optical element and is provided with a structure created by remelting with the aid of a laser, and wherein the structure of the surface region created by remelting is formed by two superposed continuous and differentiable wave-like structures which are substantially perpendicular to one another. wherein the injection molding tool is designed such that the optical element to be produced comprises a frustoconical lens body, wherein the frustoconical lens body comprises a recess having a base surface and peripheral surface as a light in-coupling surface, a lateral surface, and a light-refracting light exit surface provided with a scattering structure which is configured in a wave-like manner, wherein the injection molding tool comprises a surface region which is provided for forming the light-refracting light exit surface of the optical element and is provided with a structure created by remelting with the aid of a laser, and wherein the structure of the surface region created by remelting is formed by two superposed continuous and differentiable wave-like structures which are substantially perpendicular to one another.