mhurhangee/patent-ind-claim-en huggingface dataset:
A hoop assembly for a gas turbine engine, the hoop assembly comprising a plurality of ceramic matrix composite segments arranged circumferentially adjacent to one another around a central axis , each of the segments including an arcuate surface extending in a circumferential direction around a portion of the central axis and a pair of flanges extending outwardly in a radial direction away from the circumferential ends of the arcuate surface , wherein each one of the pair of flanges of each segment is coupled to a corresponding flange of a circumferentially adjacent segment to resist movement of the segments relative to each other, characterised in that coupling is achieved by having each of the pair of flanges of each segment formed to include an aperture extending therethrough, and the aperture receives a fastener that secures flanges of circumferentially adjacent segments to each other.
Data encoding device suitable for encoding a plurality of low-density parity-check codes, referred to as LDPC codes, said encoding device comprising an input interface for receiving data of a data packet to be encoded and an output interface for providing encoded data, characterized in that it comprises: - a first multiplexer circuit and a second multiplexer circuit , said first multiplexer circuit being connected at an input to the input interface and at an output to the input of said second multiplexer circuit, said second multiplexer circuit being connected at an output to the output interface, - a first encoding circuit for encoding quasi-cyclic LDPC code, connected at an input to the input interface and at an output to the input of the first multiplexer circuit , - a second encoding circuit for encoding quasi-cyclic LDPC code, connected at an input to the input interface and at an output to the input of the first multiplexer circuit , said second encoding circuit being arranged in parallel with said first encoding circuit , - a third encoding circuit for encoding quasi-cyclic LDPC code, connected at an input to the output of the first multiplexer circuit and at an output to the input of the second multiplexer circuit . - a first multiplexer circuit and a second multiplexer circuit , said first multiplexer circuit being connected at an input to the input interface and at an output to the input of said second multiplexer circuit, said second multiplexer circuit being connected at an output to the output interface, - a first encoding circuit for encoding quasi-cyclic LDPC code, connected at an input to the input interface and at an output to the input of the first multiplexer circuit , - a second encoding circuit for encoding quasi-cyclic LDPC code, connected at an input to the input interface and at an output to the input of the first multiplexer circuit , said second encoding circuit being arranged in parallel with said first encoding circuit , - a third encoding circuit for encoding quasi-cyclic LDPC code, connected at an input to the output of the first multiplexer circuit and at an output to the input of the second multiplexer circuit .
Drum for a drum brake manufactured as a single part from aluminium alloy and comprising a central axis (X), a rear wall for being connected to a wheel and extending perpendicular to the central axis (X), a circumferential wall extending parallel to the central axis (X), and a transition area attaching the circumferential wall with the rear wall , the circumferential wall has an inner face and an outer face which is opposite the inner face , the inner face defines a braking surface for being contacted by braking shoes of the drum brake, and the outer face has a heat dissipating mass projecting radially from the outer face , the circumferential wall has in the outer face a first segment free of heat dissipating mass extending from the transition area and a second segment in which the heat dissipating mass is arranged and extends from the first segment , such that the circumferential wall is thicker in the second segment than in the first segment , the inner face is parallel to the central axis (X) and extends from a first point (p1) which is attached to the transition area and contained in a first imaginary plane (i) perpendicular to the central axis (X), and the heat dissipating mass has a wall extending from the first segment , from an intersection point (p3) which is defined between the wall and the first segment , with the intersection point (p3) being contained in a second imaginary plane (i') perpendicular to the central axis (X), characterized in that the first imaginary plane (i) is separated from the second imaginary plane (i') by a distance (D1) of at least 5 mm and the wall of the heat dissipating mass is a vertical wall extending from the first segment perpendicular to the central axis (X), with the vertical wall being contained in the second imaginary plane (i').
Electric circuit board , in particular a printed circuit board, for an aircraft solid state power controller , the electric circuit board comprising a power connection assembly comprising a power connector and a complementary connection element , the power connector comprising: a first portion including a socket configured for receiving an electric plug , which is insertable into the socket in a receiving direction (R); and a second portion comprising a connection surface configured for mating with a complementary connection surface of the complementary connection element ; wherein at least one opening is formed within the connection surface ; wherein the complementary connection element comprises a complementary connection surface , which is configured for mating with the connection surface formed at the second portion of the power connector ; and wherein the connection surface and the complementary connection surface extend in a direction parallel, or essentially parallel, to the plane of the electric circuit board ; characterized in that the power connector further comprises a connection channel extending between the socket and a lower surface (81 b) of the power connector , and at least one electric connector arranged within the connection channel ; and in that the electric circuit board further comprises at least one conducting path electrically connecting with the electric connector , which is arranged within the connection channel . a first portion including a socket configured for receiving an electric plug , which is insertable into the socket in a receiving direction (R); and a second portion comprising a connection surface configured for mating with a complementary connection surface of the complementary connection element ; wherein at least one opening is formed within the connection surface ; wherein the complementary connection element comprises a complementary connection surface , which is configured for mating with the connection surface formed at the second portion of the power connector ; and wherein the connection surface and the complementary connection surface extend in a direction parallel, or essentially parallel, to the plane of the electric circuit board ; characterized in that the power connector further comprises a connection channel extending between the socket and a lower surface (81 b) of the power connector , and at least one electric connector arranged within the connection channel ; and in that the electric circuit board further comprises at least one conducting path electrically connecting with the electric connector , which is arranged within the connection channel .
A flow path structure comprising: a flow path introducing fluid from an inlet through a bent portion to an outlet ; a fan provided between the bent portion and the outlet ; and when a flow direction of the fluid is a direction that the fluid is introduced from the inlet to the outlet while being bent by the bent portion , and an intersectional-to-flow direction is a direction intersecting with the flow direction, a flow velocity control structure provided between the inlet and the fan to reduce difference in flow velocity that the fluid flowing into the flow path has in the intersectional-to-flow direction, wherein the flow velocity control structure includes, in the intersectional-to-flow direction, plural flow velocity control members provided alternately with spaces through which the fluid passes, characterised in that the flow velocity control members have a first flow velocity control member and a second flow velocity control member provided in a region, in which the fluid flows at a higher flow velocity than in a region provided with the first flow velocity control member, and that a width of the second flow velocity control member in the intersectional-to-flow direction at a position of the second flow velocity control member is larger than a width of the first flow velocity control member in the intersectional-to-flow direction at a position of the first flow velocity control member. a flow path introducing fluid from an inlet through a bent portion to an outlet ; a fan provided between the bent portion and the outlet ; and when a flow direction of the fluid is a direction that the fluid is introduced from the inlet to the outlet while being bent by the bent portion , and an intersectional-to-flow direction is a direction intersecting with the flow direction, a flow velocity control structure provided between the inlet and the fan to reduce difference in flow velocity that the fluid flowing into the flow path has in the intersectional-to-flow direction, wherein the flow velocity control structure includes, in the intersectional-to-flow direction, plural flow velocity control members provided alternately with spaces through which the fluid passes, characterised in that the flow velocity control members have a first flow velocity control member and a second flow velocity control member provided in a region, in which the fluid flows at a higher flow velocity than in a region provided with the first flow velocity control member, and that a width of the second flow velocity control member in the intersectional-to-flow direction at a position of the second flow velocity control member is larger than a width of the first flow velocity control member in the intersectional-to-flow direction at a position of the first flow velocity control member.
A control unit (4, 4-a, 4-b) for controlling an electric power converter arranged to convert multi-phase alternating current input from a generator and supply the converted current to a motor , the control unit comprising: input power factor commanding means (4-3, 4-10) for outputting an input power factor command value (φ*) for controlling an input power factor of the generator based on an output torque command value (Tm*) of the motor and an output rotation angular speed (ωm) of the motor ; and input power factor controlling means (4-4∼4-9) for outputting a control signal to the electric power converter for controlling the input power factor to the value based on the input power factor command value (φ*), characterized in that the input power factor controlling means (4-4∼4-9) is arranged to generate a drive voltage command to satisfy an output voltage command (vu*, vv*, vw*) of the motor by synthesizing output voltages of two virtual direct current voltage sources (Vdc_a, Vdc_b), which correspond to a respective instantaneous input voltage value (Vmax, Vmid, Vgrd) of an input voltage (Vr, Vs, Vt) of the multi-phase alternating current from the generator , and wherein the input power factor controlling means (4-4∼4-9) is arranged to control the input power factor by varying a voltage distribution ratio (γ) of the two virtual direct current voltage sources (Vdc_a, Vdc_b). input power factor commanding means (4-3, 4-10) for outputting an input power factor command value (φ*) for controlling an input power factor of the generator based on an output torque command value (Tm*) of the motor and an output rotation angular speed (ωm) of the motor ; and input power factor controlling means (4-4∼4-9) for outputting a control signal to the electric power converter for controlling the input power factor to the value based on the input power factor command value (φ*), characterized in that the input power factor controlling means (4-4∼4-9) is arranged to generate a drive voltage command to satisfy an output voltage command (vu*, vv*, vw*) of the motor by synthesizing output voltages of two virtual direct current voltage sources (Vdc_a, Vdc_b), which correspond to a respective instantaneous input voltage value (Vmax, Vmid, Vgrd) of an input voltage (Vr, Vs, Vt) of the multi-phase alternating current from the generator , and wherein the input power factor controlling means (4-4∼4-9) is arranged to control the input power factor by varying a voltage distribution ratio (γ) of the two virtual direct current voltage sources (Vdc_a, Vdc_b).
A method for transmitting uplink, UL, data by a user equipment, UE, in a wireless communication system, the method comprising: based on the UE transmitting the UL data on a first UL resource of a configured grant, CG, configuration based on a Hybrid-ARQ, HARQ, process, starting (S1201) a CG retransmission timer for the HARQ process and a CG timer for the HARQ process, wherein while the CG retransmission timer is running, performing retransmission of the UL data based on the HARQ process is prohibited, and wherein while the CG timer is running, performing new transmission of UL data based on the HARQ process is prohibited; based on a second UL resource of the CG configuration not being configured between an expiration time point of the CG retransmission timer and an expected expiration time point of the CG timer, stopping (S1203) the CG timer upon expiration of the CG retransmission timer; and performing retransmission of the UL data based on the HARQ process after the expected expiration time point of the CG timer. based on the UE transmitting the UL data on a first UL resource of a configured grant, CG, configuration based on a Hybrid-ARQ, HARQ, process, starting (S1201) a CG retransmission timer for the HARQ process and a CG timer for the HARQ process, wherein while the CG retransmission timer is running, performing retransmission of the UL data based on the HARQ process is prohibited, and wherein while the CG timer is running, performing new transmission of UL data based on the HARQ process is prohibited; based on a second UL resource of the CG configuration not being configured between an expiration time point of the CG retransmission timer and an expected expiration time point of the CG timer, stopping (S1203) the CG timer upon expiration of the CG retransmission timer; and performing retransmission of the UL data based on the HARQ process after the expected expiration time point of the CG timer.
A method for producing an instant coffee, the method comprising: providing a finely ground roasted coffee material; providing an aqueous coffee extract; mixing the finely ground roasted coffee material with the aqueous coffee extract to form a first mixture; and drying the first mixture, wherein, before drying, the finely ground roasted coffee material: is heated to a temperature of from 70 to 100°C in an aqueous environment for a duration of from 1 minute to 3 hours. providing a finely ground roasted coffee material; providing an aqueous coffee extract; mixing the finely ground roasted coffee material with the aqueous coffee extract to form a first mixture; and drying the first mixture, wherein, before drying, the finely ground roasted coffee material: is heated to a temperature of from 70 to 100°C in an aqueous environment for a duration of from 1 minute to 3 hours.
Method of producing an image of an object based on data acquired by a dimensioning system in its regular mode of operation, wherein the dimensioning system comprises • a plurality of laser scanners , each of which contains an emitter of a collimated beam of modulated laser radiation, a dynamic beam deflector to move the collimated beam in a sweeping motion over the object , and a radiation sensor to receive the radiation reflected from the object and convert it into an electrical signal, • processor means to control the operations of the scanners, to receive and process the electrical signals produced by the radiation sensors of the scanners, and to execute said method, • memory means to store data delivered by the processor means, wherein the method comprises a step of • at discrete points in time, calculating a distance value based on a time delay or phase shift value between emitted and received radiation, characterized by comprising the steps of • based on a spatial direction of the beam, the distance value, and an intensity at each individual point in time, assembling a three-dimensional model of surface points of the object, wherein the three-dimensional model of surface points of the object includes an intensity value associated with each surface point; • storing the three-dimensional model in the memory means, and • based on the three-dimensional model, producing on demand two-dimensional images of the object surface from any desired viewing angle that was exposed tc the scanner rays to document an appearance of the object at the time a scan was taken. • a plurality of laser scanners , each of which contains an emitter of a collimated beam of modulated laser radiation, a dynamic beam deflector to move the collimated beam in a sweeping motion over the object , and a radiation sensor to receive the radiation reflected from the object and convert it into an electrical signal, • processor means to control the operations of the scanners, to receive and process the electrical signals produced by the radiation sensors of the scanners, and to execute said method, • memory means to store data delivered by the processor means, wherein the method comprises a step of • at discrete points in time, calculating a distance value based on a time delay or phase shift value between emitted and received radiation, characterized by comprising the steps of • based on a spatial direction of the beam, the distance value, and an intensity at each individual point in time, assembling a three-dimensional model of surface points of the object, wherein the three-dimensional model of surface points of the object includes an intensity value associated with each surface point; • storing the three-dimensional model in the memory means, and • based on the three-dimensional model, producing on demand two-dimensional images of the object surface from any desired viewing angle that was exposed tc the scanner rays to document an appearance of the object at the time a scan was taken.
A microfluidic device comprising arrays for detecting a plurality of targets in a sample, each array comprising: a plurality of capture agents or components thereof attached to a substrate in a plurality of substantially parallel lines forming a barcoded pattern, wherein the plurality of capture agents is disposed such that each capture agent is disposed along one line, wherein some or all of the substantially parallel lines are connected to one another through at least one of the ends, wherein each capture agent of the plurality of capture agents is bindingly distinguishable and positionally distinguishable from another and capable of specifically binding a target of the plurality of targets to form a plurality of capture agent target binding complexes, and wherein the capture agent target binding complexes are detectable along a plurality of substantially parallel lines forming a barcoded pattern, which can be detected with a single line scan perpendicular to the stripe direction, wherein said substantially parallel lines are formed by microfluidic channels or portions thereof that are connected to each other to form single channels configured in a serpentine-like shape such that the substantially parallel lines are connected to each other and are configured in a serpentine-like shape forming repeated barcode arrays. a plurality of capture agents or components thereof attached to a substrate in a plurality of substantially parallel lines forming a barcoded pattern, wherein the plurality of capture agents is disposed such that each capture agent is disposed along one line, wherein some or all of the substantially parallel lines are connected to one another through at least one of the ends, wherein each capture agent of the plurality of capture agents is bindingly distinguishable and positionally distinguishable from another and capable of specifically binding a target of the plurality of targets to form a plurality of capture agent target binding complexes, and wherein the capture agent target binding complexes are detectable along a plurality of substantially parallel lines forming a barcoded pattern, which can be detected with a single line scan perpendicular to the stripe direction, wherein said substantially parallel lines are formed by microfluidic channels or portions thereof that are connected to each other to form single channels configured in a serpentine-like shape such that the substantially parallel lines are connected to each other and are configured in a serpentine-like shape forming repeated barcode arrays.
An applicator for feminine hygiene tampons, said applicator comprising a syringe for expelling an absorbent tampon , said syringe having a cylinder for containing said tampon and a plunger for expelling said tampon from said cylinder, characterized in that said cylinder and/or said plunger are made of a biodegradable and compostable material which comprises 3% to 10% by weight of polylactic acid, 34% to 60% by weight of polybutyrate and 10% to 15% by weight of polybutylene succinate.
Water-conducting domestic appliance , in particular a laundry-treatment appliance for washing laundry, having a treatment area , a treatment-agent container , which is used to store at least one treatment agent, a dosing unit , which is used to dispense the treatment agent for the treatment area , and a controller , wherein the controller has a plurality of treatment programs and is used to control the dosing unit according to a treatment program selected by a user from the treatment programs, wherein at least one treatment-agent parameter is provided, which can be set by the user, and wherein the controller executes the selected treatment program on the basis of the treatment-agent parameter, wherein an input unit connected to the controller is provided, which allows the user to change the treatment-agent parameter in order to set the treatment agent parameter, wherein a display unit connected to the controller is provided, wherein the controller , when the treatment-agent parameter is changed, defines at least one characteristic program property of the selected treatment program, said property depending on the treatment-agent parameter, with reference to the changed treatment-agent parameter, characterised in that the characteristic program property is an expected program duration, an expected energy requirement or an expected water requirement, and the display unit displays the characteristic program property, defined by the controller , of the selected treatment program, wherein furthermore the controller detects a load of the treatment area and that the controller controls the dosing device on the basis of at least the treatment-agent parameter and the detected load in the treatment area according to the selected treatment program.