mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement for modulating laser pulses , which are generated by a laser , with an electro-optical modulator which is operated by means of a pulsed modulation voltage , with a voltage converter which is connected upstream of the modulator and converts a pulsed switching voltage at an output voltage level into the modulation voltage which is increased relative to the output voltage level, wherein a pulse generator is connected upstream of the voltage converter and can be controlled via a control voltage generated by a control unit , wherein a laser signal used for generating the laser pulses can be synchronized with a control signal used for controlling the control unit , and wherein the voltage converter and the pulse generator are configured in such a manner that rise times (A) of the modulation voltage are less than the pause time (P) between two laser pulses , with the result that switching operations can be accommodated in the pause time (P).
An engine housing assembly comprising: an engine housing component , the housing component at least partially defining a first bore for receiving a first shaft and at least partially defining a second bore for receiving a second shaft ; a reinforcement member cast into the housing component, the reinforcement member having a different coefficient of thermal expansion from the housing component, wherein the reinforcement member at least partially surrounds the first and second bores, wherein the reinforcement member comprises a bearing engagement face which at least partially surrounds the first bore and is configured to engage a portion of a bearing for supporting rotation of the first shaft; and a bearing cap coupled to the engine housing component or the reinforcement member, such that the reinforcement member and the bearing cap together define the first bore; wherein the bearing cap is configured to support a remaining portion of the bearing not supported by the reinforcement member, wherein the bearing cap is made from a similar material to the reinforcement member. an engine housing component , the housing component at least partially defining a first bore for receiving a first shaft and at least partially defining a second bore for receiving a second shaft ; a reinforcement member cast into the housing component, the reinforcement member having a different coefficient of thermal expansion from the housing component, wherein the reinforcement member at least partially surrounds the first and second bores, wherein the reinforcement member comprises a bearing engagement face which at least partially surrounds the first bore and is configured to engage a portion of a bearing for supporting rotation of the first shaft; and a bearing cap coupled to the engine housing component or the reinforcement member, such that the reinforcement member and the bearing cap together define the first bore; wherein the bearing cap is configured to support a remaining portion of the bearing not supported by the reinforcement member, wherein the bearing cap is made from a similar material to the reinforcement member.
A communication device , comprising: circuitry configured to communicate with an access point according to a plurality of communication modes including at least a first mode being a centralized communication mode in which uplink multiuser multiplex transmission is performed such that the communication device transmits information at a timing controlled by the access point, and a second mode being an autonomous distributed communication mode in which media is randomly accessed using a collision avoidance mechanism; transmit data according to the first mode of the plurality of modes and retransmit the data if reception does not succeed; maintain a counter that indicates a number of times retransmission of the data has been performed according to the first mode; switch from performing communication according to the first mode to performing communication according to the second mode if the number of times retransmission of the data has been performed reaches a predetermined upper limit value; initialize the counter in response to the switching; and retransmit the data according to the second mode upon initialization of the counter. communicate with an access point according to a plurality of communication modes including at least a first mode being a centralized communication mode in which uplink multiuser multiplex transmission is performed such that the communication device transmits information at a timing controlled by the access point, and a second mode being an autonomous distributed communication mode in which media is randomly accessed using a collision avoidance mechanism; transmit data according to the first mode of the plurality of modes and retransmit the data if reception does not succeed; maintain a counter that indicates a number of times retransmission of the data has been performed according to the first mode; switch from performing communication according to the first mode to performing communication according to the second mode if the number of times retransmission of the data has been performed reaches a predetermined upper limit value; initialize the counter in response to the switching; and retransmit the data according to the second mode upon initialization of the counter.
A purified, or non-naturally occurring, activating killer cell immunoglobulin-like receptor chimeric antigen receptor (actKIR-CAR) comprising: (i) an extra-cellular antigen binding domain derived from an antibody molecule or which comprises a non-antibody scaffold that has the ability to bind to target antigen on a cell; (ii) an actKIR transmembrane domain that can interact with the transmembrane domain of DAP12; and (iii) a cytoplasmic domain. (i) an extra-cellular antigen binding domain derived from an antibody molecule or which comprises a non-antibody scaffold that has the ability to bind to target antigen on a cell; (ii) an actKIR transmembrane domain that can interact with the transmembrane domain of DAP12; and (iii) a cytoplasmic domain.
Apparatus for sensing in-sole force in footwear comprising: a lower layer, an upper layer, a plurality of force sensors arranged in zones, a flexible electronic circuit that connects said force sensors, and a power and handling unit connected to the electronic circuit, said power and handling unit receiving raw signals from said sensors wherein the lower layer is integral or in contact with the sole of the footwear and the upper layer is in contact with the foot, characterized in that said force sensors comprise at least two different types of force sensor, type A and type B, wherein type A and type B force sensors differ in the following ways: type A has a higher range of force than type B, type A has a greater accuracy than type B, or type A has a faster response rate than type B.
A method of wireless communication at a user equipment, UE, comprising: receiving at least one signal over a plurality of beams from a base station in a beam refinement procedure during a hierarchical beamforming process; and transmitting an indication to the base station , the indication comprising a beam switching capability of the UE , characterized in that the indication indicates: a time for the UE to complete a beam scan of the plurality of beams from the base station ; or a power consumption, and wherein an absence of a power consumption indication, indicates a nominal power consumption that is configured by the base station , wherein the beam switching capability comprises a beam switching rate for the UE. receiving at least one signal over a plurality of beams from a base station in a beam refinement procedure during a hierarchical beamforming process; and transmitting an indication to the base station , the indication comprising a beam switching capability of the UE , characterized in that the indication indicates: a time for the UE to complete a beam scan of the plurality of beams from the base station ; or a power consumption, and wherein an absence of a power consumption indication, indicates a nominal power consumption that is configured by the base station , wherein the beam switching capability comprises a beam switching rate for the UE. a time for the UE to complete a beam scan of the plurality of beams from the base station ; or a power consumption, and wherein an absence of a power consumption indication, indicates a nominal power consumption that is configured by the base station , wherein the beam switching capability comprises a beam switching rate for the UE.
A tray to support fiber optic equipment, said tray comprising: a tray body having a first side edge portion , a second side edge portion , a front side edge portion, a rear side edge portion and a middle portion, wherein said middle portion of said tray body has at least one set of cutout features ; wherein said first side edge portion is configured to be secured to a first rail ; wherein said second side edge portion is configured to be secured to a second rail ; and wherein said at least one set of cutout features is configured to engage with a mounting feature of a third rail such that the third rail may be removably secured to the tray body, wherein said at least one set of cutout features includes at least a first set of cutout features in the middle portion of said tray body, a second set of cutout features disposed between the first side edge portion and the first set of cutout features, and a third set of cutout features disposed between the second side edge portion and the first set of cutout features, wherein when the third rail engages the first set of cutout features the tray body is enabled to support two fiber optic modules of a first size, and wherein when the third rail engages the second set of cutout features and a fourth rail engages the third set of cutout features the tray body is enabled to support three fiber optic modules of a second size. a tray body having a first side edge portion , a second side edge portion , a front side edge portion, a rear side edge portion and a middle portion, wherein said middle portion of said tray body has at least one set of cutout features ; wherein said first side edge portion is configured to be secured to a first rail ; wherein said second side edge portion is configured to be secured to a second rail ; and wherein said at least one set of cutout features is configured to engage with a mounting feature of a third rail such that the third rail may be removably secured to the tray body, wherein said at least one set of cutout features includes at least a first set of cutout features in the middle portion of said tray body, a second set of cutout features disposed between the first side edge portion and the first set of cutout features, and a third set of cutout features disposed between the second side edge portion and the first set of cutout features, wherein when the third rail engages the first set of cutout features the tray body is enabled to support two fiber optic modules of a first size, and wherein when the third rail engages the second set of cutout features and a fourth rail engages the third set of cutout features the tray body is enabled to support three fiber optic modules of a second size.
A topical pharmaceutical composition comprising a hydrophobic composition in admixture with a hydrophilic composition, wherein the hydrophobic composition comprises a nitric oxide-releasing compound having a diazeniumdiolate functional group, and wherein the hydrophilic composition is a hydrogel having a pH in a range of 4 to 6 and the hydrogel comprises a buffer.
A gas turbine engine compressor unit having a row of blades which rotate about an axis, and a liner extending about the axis; the liner having an abradable body with a radially inner surface over which an blade tip passes in use; a plurality of abradable depth indicators extending into the body from the surface; the depth indicators being arranged in two or more groups each group being circumferentially spaced on the surface from another group; and each group having a plurality of axially spaced depth indicators aligned to respectively correspond with a leading edge, a trailing edge and a mid-chord of the blade tip; characterised in that each group has a first subgroup of depth indicators that are circumferentially offset from each depth indicator in the first subgroup and one depth indicator is axially aligned to correspond with the leading edge, a second depth indicator is axially aligned to correspond with a trailing edge and third depth indicator is axially aligned to correspond with a mid-chord of the aerofoil tip; each group further having a second subgroup of depth indicators circumferentially offset from the first subgroup, the depth indicators in the second subgroup being circumferentially aligned with each other.
A high-efficiency profiling line, comprising: a feeder device followed by a joining device , predisposed to perform the end welding between the initial end of a new strip to be processed and the final end or tail end of a strip being processed; an accumulation section , arranged downstream of the joining device and predisposed to accumulate a predetermined length of strip and to feed the strip at an adjustable speed; a forming assembly , arranged downstream of the feeder device , and comprising a plurality of forming assemblies structured to fold the strip (N) longitudinally into a pipe (P); a cutting device , arranged between the accumulation section and the forming assembly , equipped with a mobile cutting head structured to translate in synchrony with the strip (N) along an operative stroke, and to cut the strip (N) as it advances at a predetermined speed; a welding device , arranged downstream of the forming assembly and predisposed to perform a longitudinal weld of the edges of the strip (N); a shearing device , arranged downstream of the welding device and predisposed to cut the pipe (P) into sections of predetermined length; characterised in that it comprises one or more extracting devices , arranged upstream of and/or on board and/or downstream of the shearing device , each of which comprises at least one motorised roller adapted to be placed in contact with the pipe (P) to push the pipe (P) forwards. a welding device , arranged downstream of the forming assembly and predisposed to perform a longitudinal weld of the edges of the strip (N); a shearing device , arranged downstream of the welding device and predisposed to cut the pipe (P) into sections of predetermined length; characterised in that it comprises one or more extracting devices , arranged upstream of and/or on board and/or downstream of the shearing device , each of which comprises at least one motorised roller adapted to be placed in contact with the pipe (P) to push the pipe (P) forwards.
A gimbal , comprising: an electric motor ; and a rotation bracket connected to the electric motor and driven by the electric motor to rotate, wherein the electric motor includes: a first body ; a second body ; a magnetic ring disposed in the first body ; a position sensing assembly disposed in the second body ; and a mechanical limit mechanism disposed between the first body and the second body to define a limiting position of the first body when rotating relative to the second body , wherein: a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal. an electric motor ; and a rotation bracket connected to the electric motor and driven by the electric motor to rotate, wherein the electric motor includes: a first body ; a second body ; a magnetic ring disposed in the first body ; a position sensing assembly disposed in the second body ; and a mechanical limit mechanism disposed between the first body and the second body to define a limiting position of the first body when rotating relative to the second body , wherein: a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal. a first body ; a second body ; a magnetic ring disposed in the first body ; a position sensing assembly disposed in the second body ; and a mechanical limit mechanism disposed between the first body and the second body to define a limiting position of the first body when rotating relative to the second body , wherein: a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal. a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal.
Securing element for axially securing a shaft or a component on a shaft , comprising two sector elements in the form of semicircular disks, each having a semicircular outer edge as well as an inner, straight disk edge forming a substantially semicircular notch, and which can be joined to each other to form an essentially closed ring form with a central through opening for the shaft , wherein the sector elements each have latching structures or snap-fit structures, by means of which they can be connected to each other, in particular can be connected in a loss-proof manner; the latching structures comprise a groove-like indentation with a first snap-fit hook formed in a first one of the sector elements and a spring arm with a second snap-fit hook arranged on a second one of the sector elements and engaging in the indentation in the first sector element ; the latching structures of each sector element are each arranged at its inner, straight disk edge; the sector elements are divided along a dividing plane in which the longitudinal axis of the shaft lies when arranged as intended on the shaft , wherein the joining direction for joining the sector elements is perpendicular to the dividing plane ; characterized in that the latching structures of each sector element are each arranged at a radial distance from its semicircular outer edge and from its semicircular notch. wherein the sector elements each have latching structures or snap-fit structures, by means of which they can be connected to each other, in particular can be connected in a loss-proof manner; the latching structures comprise a groove-like indentation with a first snap-fit hook formed in a first one of the sector elements and a spring arm with a second snap-fit hook arranged on a second one of the sector elements and engaging in the indentation in the first sector element ; the latching structures of each sector element are each arranged at its inner, straight disk edge; the sector elements are divided along a dividing plane in which the longitudinal axis of the shaft lies when arranged as intended on the shaft , wherein the joining direction for joining the sector elements is perpendicular to the dividing plane ; characterized in that the latching structures of each sector element are each arranged at a radial distance from its semicircular outer edge and from its semicircular notch.
A trolley for a cable crane installation which comprises in each case at least one stationary suspension cable , a traction cable or a cable circuit, and at least one hoisting cable , the trolley being movable along the at least one suspension cable , a remotely controllable clamping mechanism being provided which, on the one hand, permits the trolley to be moved along the at least one suspension cable in both directions when the traction cable or the cable circuit is clamped by the clamping mechanism and the traction cable or the cable circuit is driven, and, on the other hand, when the carriage is clamped to the at least one suspension cable by means of the clamping mechanism , a vertical movement of the at least one hoisting cable takes place when the traction cable or the cable circuit is driven, wherein at least one first hoisting cable drum , comprising a first hoisting cable , and a second hoisting cable drum , comprising a second hoisting cable , are provided, the hoisting cable drums having a common drive by means of a traction cable drum which is rotatably mounted in the carriage, is in force-transmitting connection with the traction cable and is coupled to the hoisting cable drums for simultaneous rotation thereof, characterized in that the first hoisting cable drum is inseparably connected, via a first gear arrangement and at least during operation, to the traction cable drum , and the second hoisting cable drum is connected to the traction cable drum via a second gear arrangement comprising a controllable clutch , wherein the second gear arrangement is configured such that the rotation of the second hoisting cable drum can be blocked.
A system for diverting emboli within a patient, comprising a detection device (A, E) configured to detect a presence of emboli in a first blood vessel of a patient; a compression member (27, 27-V, 46, 46-V) configured to be aligned with a second blood vessel of the patient when a collar supporting the compression member (10, 27, 27-V, 46, 46-V) is positioned at least partially around a portion of the patient; and a controller (B, C, D, 49, 58) configured to actuate the compression member (10, 27, 27-V, 46, 46-V), when the presence of emboli is detected, from an unactuated state to an actuated state in which at least a portion of the compression member (27, 27-V, 46, 46-V) (i) is closer to the second blood vessel than while in the unactuated state and (ii) compresses and limits blood flow through the second blood vessel , wherein the detection device (A, E) is configured to detect a threshold amount of emboli in the first blood vessel , wherein the controller (B, C, D, 49, 58) is configured to actuate the compression member (10, 27, 27-V, 46, 46-V) when the detected emboli exceed the threshold amount.