mhurhangee/patent-ind-claim-en huggingface dataset:
A cable , comprising: a sheath ; and a coating film covering a circumference of the sheath, the coating film adhering to the sheath, wherein a static friction coefficient of a surface of the coating film is 0.5 or less, characterized in that an adhesion strength between the sheath and the coating film is 0.30 MPa or more, and in that a parent material of the coating film is silicone rubber and is produced by curing an addition reaction type coating agent. a sheath ; and a coating film covering a circumference of the sheath, the coating film adhering to the sheath, wherein a static friction coefficient of a surface of the coating film is 0.5 or less, an adhesion strength between the sheath and the coating film is 0.30 MPa or more, and in that a parent material of the coating film is silicone rubber and is produced by curing an addition reaction type coating agent.
A clutch device for transmitting a force produced by a drive unit to an output unit , which is configured to be movable in a linear movement direction (DR, C, CN, CS), with a frictional force produced between a contact surface and a contacted surface or disconnecting transmission of the force to the output unit , the clutch device comprising an inhibiting portion which is configured to form a space (SI) between the contact surface and the contacted surface when the contact surface and the contacted surface contact with each other to form a contact portion therebetween and which is configured to press a residue remaining on the contacted surface or the contact surface into the space (SI) when the contact surface and the contacted surface contact with each other to inhibit the residue from accumulating on the contact surface , wherein the contact surface and the contacted surface are oblique to the linear movement direction (DR, C, CN, CS) of the output unit , wherein the inhibiting portion includes a plurality of grooves (70, 71, 72; 81; 82) formed in at least one of the contact surface and the contacted surface configured to contact with the contact surface , characterized in that the clutch device includes a clutch nut that includes a truncated cone portion and a tubular portion connected to a smaller diameter side of the truncated cone portion , and wherein the plurality of grooves (70, 71, 72; 81; 82) includes grooves (71; 81) formed on the clutch nut and each extending from the truncated cone portion , which is included in the contact portion , to a middle portion of the tubular portion , which is an outside of the contact portion . the clutch device comprising an inhibiting portion which is configured to form a space (SI) between the contact surface and the contacted surface when the contact surface and the contacted surface contact with each other to form a contact portion therebetween and which is configured to press a residue remaining on the contacted surface or the contact surface into the space (SI) when the contact surface and the contacted surface contact with each other to inhibit the residue from accumulating on the contact surface , wherein the contact surface and the contacted surface are oblique to the linear movement direction (DR, C, CN, CS) of the output unit , wherein the inhibiting portion includes a plurality of grooves (70, 71, 72; 81; 82) formed in at least one of the contact surface and the contacted surface configured to contact with the contact surface , characterized in that the clutch device includes a clutch nut that includes a truncated cone portion and a tubular portion connected to a smaller diameter side of the truncated cone portion , and wherein the plurality of grooves (70, 71, 72; 81; 82) includes grooves (71; 81) formed on the clutch nut and each extending from the truncated cone portion , which is included in the contact portion , to a middle portion of the tubular portion , which is an outside of the contact portion .
A method to control an ultrasonic flowmeter (UF), wherein the ultrasonic flowmeter comprises: - a pipe segment (PS) to receive a flow therethrough; - a first pair of transducers (T1u, T1d) defining a first ultrasonic path (P1) in the pipe segment to be subjected to the flow; - a second pair of transducers (T2u, T2d) defining a second ultrasonic path (P2) in the pipe segment to be subjected to the flow, wherein the second ultrasonic path is different from the first ultrasonic path, and wherein the method comprises the following steps: a) driving a transducer of the first pair of transducers to transmit a first code; b) receiving a first ultrasonic signal at the other transducer of the first pair of transducers, c) simultaneously driving a transducer of the second pair of transducers to transmit a second code, wherein the first code and the second code are non-correlated to each other, d) receiving a second ultrasonic signal at the other transducer of the second pair of transducers; e) correlating the transmitted first code with the first ultrasonic signal; and f) correlating the transmitted second code with the second ultrasonic signal. - a pipe segment (PS) to receive a flow therethrough; - a first pair of transducers (T1u, T1d) defining a first ultrasonic path (P1) in the pipe segment to be subjected to the flow; - a second pair of transducers (T2u, T2d) defining a second ultrasonic path (P2) in the pipe segment to be subjected to the flow, wherein the second ultrasonic path is different from the first ultrasonic path, a) driving a transducer of the first pair of transducers to transmit a first code; b) receiving a first ultrasonic signal at the other transducer of the first pair of transducers, c) simultaneously driving a transducer of the second pair of transducers to transmit a second code, wherein the first code and the second code are non-correlated to each other, d) receiving a second ultrasonic signal at the other transducer of the second pair of transducers; e) correlating the transmitted first code with the first ultrasonic signal; and f) correlating the transmitted second code with the second ultrasonic signal.
A method for wireless communication operable at a user equipment, UE, comprising: in a first slot, transmitting a first code block group, CBG, feedback corresponding to a first set of code block groups, CBGs, received from a base station, BS; in a second slot after the first slot, receiving downlink control information, DCI, and a first cyclic redundancy check, CRC, the first CRC generated based on the DCI and further scrambled by a first concatenation of the first CBG feedback and a previous CBG feedback corresponding to a set of CBGs transmitted by the BS in a slot prior to the first slot as decoded by the BS; generating a second CRC based on the DCI and further scrambled by a second concatenation of CBG feedbacks including the first CBG feedback and a previous CBG feedback corresponding to a set of CBGs transmitted by the BS in a slot prior to the first slot; and determining that the BS correctly decoded the first CBG feedback based on a comparison of the first CRC and the second CRC. in a first slot, transmitting a first code block group, CBG, feedback corresponding to a first set of code block groups, CBGs, received from a base station, BS; in a second slot after the first slot, receiving downlink control information, DCI, and a first cyclic redundancy check, CRC, the first CRC generated based on the DCI and further scrambled by a first concatenation of the first CBG feedback and a previous CBG feedback corresponding to a set of CBGs transmitted by the BS in a slot prior to the first slot as decoded by the BS; generating a second CRC based on the DCI and further scrambled by a second concatenation of CBG feedbacks including the first CBG feedback and a previous CBG feedback corresponding to a set of CBGs transmitted by the BS in a slot prior to the first slot; and determining that the BS correctly decoded the first CBG feedback based on a comparison of the first CRC and the second CRC.
A compound of formula wherein R 1 is hydrogen or (C 1 -C 6 )hydrocarbyl; R 2 is hydrogen or (C 1 -C 6 )hydrocarbyl; R 3 is heterocyclyl chosen from quinoline, isoquinoline, thiazole, pyridine, pyrimidine, thiophene, furan, oxazole, benzimidazole, benzothiazole, benzoxazole, and triazole; said heterocyclyl being unsubstituted or substituted with one to three substituents chosen independently from (C 1 -C 10 )hydrocarbyl, halogen, (C 1 -C 6 )haloalkyl, (C 1 -C 6 )acyl, hydroxy(C 1 -C 6 )loweralkyl, benzenesulfonyl, hydroxy, halo(C 1 -C 6 )alkoxy, (C 1 -C 6 )oxaalkyl, carboxy, (C 1 -C 6 )alkoxycarbonyl, carboxamido, cyano, acetoxy, nitro, amino, (C 1 -C 6 )alkylamino, di(C 1 -C 6 )alkylamino, (C 1 -C 6 )alkylthio, (C 1 -C 6 )alkylsulfonylamino, (C 1 -C 6 )alkylsulfinyl, (C 1 -C 6 )alkylsulfonyl, heterocyclyl, and (C 1 -C 10 )hydrocarbyloxy; and R 10 and R 11 are chosen independently from hydrogen and fluoro. R 1 is hydrogen or (C 1 -C 6 )hydrocarbyl; R 2 is hydrogen or (C 1 -C 6 )hydrocarbyl; R 3 is heterocyclyl chosen from quinoline, isoquinoline, thiazole, pyridine, pyrimidine, thiophene, furan, oxazole, benzimidazole, benzothiazole, benzoxazole, and triazole; said heterocyclyl being unsubstituted or substituted with one to three substituents chosen independently from (C 1 -C 10 )hydrocarbyl, halogen, (C 1 -C 6 )haloalkyl, (C 1 -C 6 )acyl, hydroxy(C 1 -C 6 )loweralkyl, benzenesulfonyl, hydroxy, halo(C 1 -C 6 )alkoxy, (C 1 -C 6 )oxaalkyl, carboxy, (C 1 -C 6 )alkoxycarbonyl, carboxamido, cyano, acetoxy, nitro, amino, (C 1 -C 6 )alkylamino, di(C 1 -C 6 )alkylamino, (C 1 -C 6 )alkylthio, (C 1 -C 6 )alkylsulfonylamino, (C 1 -C 6 )alkylsulfinyl, (C 1 -C 6 )alkylsulfonyl, heterocyclyl, and (C 1 -C 10 )hydrocarbyloxy; and R 10 and R 11 are chosen independently from hydrogen and fluoro.
A method, in a user equipment of a carrier aggregation transmission-based radio communication network, of controlling uplink transmission of the user equipment over a plurality of secondary cells in a group of secondary cells, the user equipment being configured with a group of primary cells and at least one group of secondary cells, the group of secondary cells belonging to the at least one group of secondary cells, and the group of primary cells and the at least one group of secondary cells each being configured with a time alignment timer, wherein the method comprises the step of: A. terminating (S33) the uplink transmission over at least one activated secondary cell in the group of secondary cells when the time alignment timer of the group of primary cells expires, characterized in that the step A comprises the step of: - de-configuring the configuration of sounding reference signal transmission of the at least one activated secondary cell in the group of secondary cells when the time alignment timer of the primary cell group expires. A. terminating (S33) the uplink transmission over at least one activated secondary cell in the group of secondary cells when the time alignment timer of the group of primary cells expires, characterized in that the step A comprises the step of: - de-configuring the configuration of sounding reference signal transmission of the at least one activated secondary cell in the group of secondary cells when the time alignment timer of the primary cell group expires. - de-configuring the configuration of sounding reference signal transmission of the at least one activated secondary cell in the group of secondary cells when the time alignment timer of the primary cell group expires.
A propeller control system for controlling a blade pitch angle, the propeller control system comprising: a propeller blade extending from a blade base , the propeller blade being configured to rotate around a longitudinal axis to generate thrust for the propeller blade and rotate around a pitch change axis to adjust the blade pitch angle of the propeller blade, wherein the pitch change axis extends through a center point of the blade base; a trunnion pin operably connected to the blade base at a location offset from the center point of the blade base; a yoke plate operably connected to the trunnion pin; an actuator configured to move the yoke plate linearly along the longitudinal axis of the propeller blade to rotate the trunnion pin and the propeller blade around the pitch change axis; and a transfer tube operably connected to the yoke plate, the transfer tube being free to rotate around the longitudinal axis as the actuator moves the yoke plate linearly along the longitudinal axis; characterised in that the yoke plate is configured to rotate the transfer tube . a propeller blade extending from a blade base , the propeller blade being configured to rotate around a longitudinal axis to generate thrust for the propeller blade and rotate around a pitch change axis to adjust the blade pitch angle of the propeller blade, wherein the pitch change axis extends through a center point of the blade base; a trunnion pin operably connected to the blade base at a location offset from the center point of the blade base; a yoke plate operably connected to the trunnion pin; an actuator configured to move the yoke plate linearly along the longitudinal axis of the propeller blade to rotate the trunnion pin and the propeller blade around the pitch change axis; and a transfer tube operably connected to the yoke plate, the transfer tube being free to rotate around the longitudinal axis as the actuator moves the yoke plate linearly along the longitudinal axis; characterised in that the yoke plate is configured to rotate the transfer tube .
Latch for a motor vehicle, comprising a locking mechanism consisting of a catch and at least one pawl , a closing device and an electric drive and a torque converter, wherein a variable torque in the closing device can be set by means of the torque converter, wherein the closing can be achieved at least in some regions by means of a frictional connection (K), and comprising a sensor for detecting a position of the locking mechanism and a controller (S) for the closing device , wherein at least one means for detecting a position of a component that can be moved by means of the closing device is provided, and the detection means cooperates with the controller, wherein, by means of the means for detecting a position, a gap dimension during the closing of the moved component can be monitored, in which, up to a gap dimension of 6 mm, preferably 5 mm, and even more preferably 4 mm, the closing process can be interrupted by means of the controller.
A stacked inductance apparatus , comprising: a first layer including a first layer wire element extending around a center axis ; a second layer including a second layer wire element comprising first and second wire sections disposed in parallel extending around the center axis , wherein the first wire section is configured to form a primary turn winding together with the first layer wire element ; and a third layer including a third layer wire element extending around the center axis , the third layer wire element configured to form a secondary turn winding together with the second wire section of the second layer wire element , wherein the secondary turn winding is partially overlapping in a direction parallel to the center axis with the primary turn winding via the second wire section of the second layer wire element . a first layer including a first layer wire element extending around a center axis ; a second layer including a second layer wire element comprising first and second wire sections disposed in parallel extending around the center axis , wherein the first wire section is configured to form a primary turn winding together with the first layer wire element ; and a third layer including a third layer wire element extending around the center axis , the third layer wire element configured to form a secondary turn winding together with the second wire section of the second layer wire element , wherein the secondary turn winding is partially overlapping in a direction parallel to the center axis with the primary turn winding via the second wire section of the second layer wire element .
A holding structure , comprising: an electric device (A1) that includes a casing , and a magnet unit disposed in the casing , the magnet unit including a magnet and a yoke , the yoke being magnetically coupled with the magnet to form a magnetic path from the magnet to a surface of the casing ; a holding member (B1, B2) that includes a connection unit displaying magnetism and is configured to hold the electric device (A1) with the yoke magnetically coupled with the connection unit ; and an elastic member that is provided as part of the casing and configured to be in contact with the connection unit , wherein the electric device (A1) is provided with a recess in the surface of the casing , the magnet unit is disposed in the casing with the magnet unit facing the recess , the yoke forms a magnetic path from the magnet to the recess , the elastic member is provided around a periphery of an inner surface of the recess , and the connection unit is formed with a convex surface and in contact with the elastic member with the connection unit facing the elastic member, wherein the elastic member has a plurality of ribs formed radially around the periphery of the inner surface of the recess , wherein the connection unit is in contact with the ribs . an electric device (A1) that includes a casing , and a magnet unit disposed in the casing , the magnet unit including a magnet and a yoke , the yoke being magnetically coupled with the magnet to form a magnetic path from the magnet to a surface of the casing ; a holding member (B1, B2) that includes a connection unit displaying magnetism and is configured to hold the electric device (A1) with the yoke magnetically coupled with the connection unit ; and an elastic member that is provided as part of the casing and configured to be in contact with the connection unit , the electric device (A1) is provided with a recess in the surface of the casing , the magnet unit is disposed in the casing with the magnet unit facing the recess , the yoke forms a magnetic path from the magnet to the recess , the elastic member is provided around a periphery of an inner surface of the recess , and the connection unit is formed with a convex surface and in contact with the elastic member with the connection unit facing the elastic member,
A multi-phase electric motor comprising a rotor and a stator , wherein the rotor comprises a number of magnets directed towards the stator , and wherein the stator includes a plurality of phase windings arranged around a circumferential surface of said stator and directed towards said magnets, said phase windings being connected to control units adapted to selectively apply a current to said phase windings to induce an electromagnetic force which acts upon the magnets of the rotor to effect a rotation of the rotor, wherein the motor comprises at least two control units , each control unit being configured to control the supply of current to three phase windings such that a different phase current is supplied to each of the three phase windings with a phase shift between said different phase currents being 120°, wherein no two control units utilise the same current phase, wherein the phase windings are driven by one of m different current phases, where m is a multiple of 3 and at least equal to 6, and wherein the phase shift between current phases is 360°/m, and the arrangement of phase windings around the circumferential surface of the stator is such that each phase winding is driven by a current that is shifted in phase by 180°+180°/m relative to the current in an adjacent phase winding, where m is the total number of phase currents.
A dry granulation method of producing granules comprising: - mixing a first powder comprising at least one active ingredient and a second powder comprising at least one carrier to form a powder mixture; - feeding the powder mixture to a twin-screw extruder without a solvent or liquid binder; - kneading the powder mixture in a heated screw barrel of the twin-screw extruder, wherein all temperatures along a length of the screw barrel are below a melting point of the at least one active ingredient and below a melting point or a glass transition temperature of the at least one carrier to form a kneaded powder mixture; and - extruding the kneaded powder mixture to form the granules. - mixing a first powder comprising at least one active ingredient and a second powder comprising at least one carrier to form a powder mixture; - feeding the powder mixture to a twin-screw extruder without a solvent or liquid binder; - kneading the powder mixture in a heated screw barrel of the twin-screw extruder, wherein all temperatures along a length of the screw barrel are below a melting point of the at least one active ingredient and below a melting point or a glass transition temperature of the at least one carrier to form a kneaded powder mixture; and - extruding the kneaded powder mixture to form the granules.
A selfie device, comprising a telescopic stick and a clamping device for holding and clamping a camera device, the clamping device comprising a carrier and a stretchable clamping mechanism arranged above the carrier ; the clamping device is pivotally or rotatably connected to the top end of the telescopic stick , characterized in that the clamping device is integrally connected to the top end of the telescopic stick and in that a notch is arranged on the carrier , the clamping mechanism is provided with a bending portion corresponding to the location of the notch , and the telescopic stick can be accommodated in the notch and the bending portion after folding.
A mobile surgical control console , comprising: a base housing ; a lower frame assembly coupled to the base housing, the lower frame assembly including a proximal end , a distal end and an opening defined therethrough and which extends through the proximal end thereof; a plurality of wheels attached to the lower frame assembly; a plurality of vertical supports attached to the base housing, each vertical support having an inferior end and a superior end; a monitor attached to the superior end of each vertical support; and an upper frame assembly including: an upper frame including a proximal end , a distal end and an opening defined therethrough, the upper frame supported on each vertical support of the plurality of vertical supports; a mobile section supported by the upper frame , characterised in that the mobile section is positioned within the proximal end of the upper frame , wherein the mobile section is configured to be detached from the upper frame . a base housing ; a lower frame assembly coupled to the base housing, the lower frame assembly including a proximal end , a distal end and an opening defined therethrough and which extends through the proximal end thereof; a plurality of wheels attached to the lower frame assembly; a plurality of vertical supports attached to the base housing, each vertical support having an inferior end and a superior end; a monitor attached to the superior end of each vertical support; and an upper frame assembly including: an upper frame including a proximal end , a distal end and an opening defined therethrough, the upper frame supported on each vertical support of the plurality of vertical supports; a mobile section supported by the upper frame , characterised in that the mobile section is positioned within the proximal end of the upper frame , wherein the mobile section is configured to be detached from the upper frame . an upper frame including a proximal end , a distal end and an opening defined therethrough, the upper frame supported on each vertical support of the plurality of vertical supports; a mobile section supported by the upper frame , characterised in that the mobile section is positioned within the proximal end of the upper frame , wherein the mobile section is configured to be detached from the upper frame .