mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic actuator of the type producing a force due to the current that remains substantially constant over the entirety of its useful travel Y, consisting of at least one stator structure, at least one electrical supply coil, and a moving member, said stator structure having, on the one hand, a central pole running perpendicular to the direction of said travel Y and having a width Y Ci in the direction of the travel and terminating at its end in a width Y C2 that is greater than or equal to the travel Y of the moving member, Y C2 being greater than Y ci, and on the other hand, two lateral poles (5a, 5b) having widths Y L1, in the direction of the travel and terminating at their end in a width Y L2 greater than Y L1, the lateral poles (5a, 5b) and the central pole being separated by a distance Y G, the moving member that is able to move relative to the stator structure comprising an armature supporting at least two permanent magnets (6, 7) each having a width Y A, the moving member and the stator structure delimiting an air gap E, the coil having a width Y B, characterized in that the width Y L2 of the lateral poles is equal to (2Y L1 +2Y B +Y C1 -2Y G -Y C2)/2 and less than the width Y C2 of the central pole and in that said permanent magnets (6, 7) are directly adjacent, with no air gap or head gap between the front surfaces of two consecutive magnets, the width Y B of the coil is equal to the width Y A of the magnets (6, 7) in the direction of the travel Y.
A focusing system for at least one of a video camera and a motion picture camera, comprising: a) a distance measuring device, comprising: i) an emitter configured to emit a beam of radiation, ii) a detector array configured to detect reflections of the beam of radiation, and iii) logic configured to determine distance information for one or more subjects in each of a plurality of detection zones in a field of view of the camera from the reflections; b) a graphics overlay unit configured to receive video information from the camera and the distance information from the distance measuring device, the graphics overlay unit comprising a video overlay and processing unit configured to generate graphics indicating a field of detection and position for each of the plurality of detection zones and a direction and a magnitude of a change in a present focus setting for each detection zone that will bring the one or more subjects that are out of the depth of field of the camera into focus, wherein the array of detection zones to be generated by the graphics overlay unit corresponds to the detector array, and the depth of field of the camera is calculated using an f-stop, a focal length and a focus distance of the lens of the camera; and c) a monitor configured to display video from the camera and the graphics overlaid on the displayed video. a) a distance measuring device, comprising: i) an emitter configured to emit a beam of radiation, ii) a detector array configured to detect reflections of the beam of radiation, and iii) logic configured to determine distance information for one or more subjects in each of a plurality of detection zones in a field of view of the camera from the reflections; i) an emitter configured to emit a beam of radiation, ii) a detector array configured to detect reflections of the beam of radiation, and iii) logic configured to determine distance information for one or more subjects in each of a plurality of detection zones in a field of view of the camera from the reflections; b) a graphics overlay unit configured to receive video information from the camera and the distance information from the distance measuring device, the graphics overlay unit comprising a video overlay and processing unit configured to generate graphics indicating a field of detection and position for each of the plurality of detection zones and a direction and a magnitude of a change in a present focus setting for each detection zone that will bring the one or more subjects that are out of the depth of field of the camera into focus, wherein the array of detection zones to be generated by the graphics overlay unit corresponds to the detector array, and the depth of field of the camera is calculated using an f-stop, a focal length and a focus distance of the lens of the camera; and c) a monitor configured to display video from the camera and the graphics overlaid on the displayed video.
A motor vehicle power steering system comprising a steering handle having at least one handle sensor, an electronically controlled steering actuator having an electric motor for providing an actuating torque, a mechanical power transmission for transmitting the actuating torque to steered wheels, and a position sensor for detecting a wheel position (dX) of the steered wheels, wherein there is further provided a monitoring device which is configured to relate the wheel position (dX) detected by the position sensor to at least one input parameter (β, Rp, T) of the mechanical power transmission given by the electric motor in order to monitor the functioning of the mechanical power transmission, characterized in that the motor vehicle power steering system is designed in the form of a steer-by-wire steering system, the handle sensor is configured for detecting a handle position (α) of the steering handle and the electric motor is configured for providing the actuating torque in dependence on the detected handle position (α), wherein the detection of the wheel position (dX) of the steered wheels takes place directly at the wheels or indirectly by arranging the position sensor on a rack of the steering system.
A wireless apparatus (110, 110a, 110b, 911, 912) for a wireless base station configured to communicate with a wireless terminal, the wireless apparatus (110, 110a, 110b, 911, 912) comprising: a processor configured to perform first signal processing, the first signal processing including wireless signal processing among signal processing of the wireless base station; an interface configured to perform signal transfer to and from a wireless control apparatus (120, 921), the wireless control apparatus being configured to perform second signal processing different from the first signal processing; and a first transmitter configured to notify the wireless control apparatus (120, 921) of first information relating to the first signal processing, characterised in that the wireless apparatus (110, 110a, 110b, 911, 912) is configured to perform processing that notifies the wireless terminal of configuration information relating to the first signal processing and/or the second signal processing, the configuration information relating to a split point of the signal processing of the wireless base station. a processor configured to perform first signal processing, the first signal processing including wireless signal processing among signal processing of the wireless base station; an interface configured to perform signal transfer to and from a wireless control apparatus (120, 921), the wireless control apparatus being configured to perform second signal processing different from the first signal processing; and a first transmitter configured to notify the wireless control apparatus (120, 921) of first information relating to the first signal processing, characterised in that the wireless apparatus (110, 110a, 110b, 911, 912) is configured to perform processing that notifies the wireless terminal of configuration information relating to the first signal processing and/or the second signal processing, the configuration information relating to a split point of the signal processing of the wireless base station.
A method comprising: entering, by a computing device, an activity alignment on state from a first activity alignment off state in response to receiving a demand traffic flow; masking, by the computing device, one or more traffic flows that are received during at least a part of the activity alignment on state; in response to entering the activity alignment on state and masking the one or more traffic flows, activating a hysteresis timer; in response to entering the activity alignment on state, requesting, by the computing device, a plurality of components (20a-e) to transmit opportunistic traffics to the computing device; and entering, by the computing device in response to the hysteresis timer completing a first time period, a second activity alignment off state from the activity alignment on state, after being in the activity alignment on state for at least a first time period. entering, by a computing device, an activity alignment on state from a first activity alignment off state in response to receiving a demand traffic flow; masking, by the computing device, one or more traffic flows that are received during at least a part of the activity alignment on state; in response to entering the activity alignment on state and masking the one or more traffic flows, activating a hysteresis timer; in response to entering the activity alignment on state, requesting, by the computing device, a plurality of components (20a-e) to transmit opportunistic traffics to the computing device; and entering, by the computing device in response to the hysteresis timer completing a first time period, a second activity alignment off state from the activity alignment on state, after being in the activity alignment on state for at least a first time period.
An electromagnetic waveguide comprising: a first waveguide section; a second waveguide section; a first flange mounted on an end of the first waveguide section; a second flange mounted on an end of the second waveguide section, wherein the first flange is connected to the second flange; and an EMI shielding gasket mounted between the first flange and the second flange, wherein the EMI shielding gasket includes a self-supporting body of non-woven carbon nanotubes adapted to incorporate one or more apertures. a first waveguide section; a second waveguide section; a first flange mounted on an end of the first waveguide section; a second flange mounted on an end of the second waveguide section, wherein the first flange is connected to the second flange; and an EMI shielding gasket mounted between the first flange and the second flange, wherein the EMI shielding gasket includes a self-supporting body of non-woven carbon nanotubes adapted to incorporate one or more apertures.
A single phase microemulsion comprising water, an oil component and a surfactant blend, wherein the surfactant blend comprises: (i) an extended chain anionic surfactant of the formula R- x -(O-CH2-CH2) y -O-SO 3 -A and (ii) an extended chain intermediate surfactant of the formula R- x -(O-CH2-CH2) y -OH wherein R is a linear or branched, saturated or unsaturated, substituted or unsubstituted, aliphatic or aromatic hydrocarbon radical having from 6 to 36 carbon atoms; L is a linking group comprising a block of polypropylene oxide, or a block of polyethylene oxide, or a mixture thereof; A is selected from hydrogen, a monovalent metal cation, a divalent metal cation, ammonium cation and an organic group substituted ammonium cation; x is the average degree of alkoxylation of the linking group L ranging from 2 to 20; y is the average degree of ethoxylation ranging from 0 to 5; and wherein the surfactant blend includes a weight % ratio of the extended chain intermediate surfactant of formula to the extended chain anionic surfactant of formula of greater than 1.1:1. wherein R is a linear or branched, saturated or unsaturated, substituted or unsubstituted, aliphatic or aromatic hydrocarbon radical having from 6 to 36 carbon atoms; L is a linking group comprising a block of polypropylene oxide, or a block of polyethylene oxide, or a mixture thereof; A is selected from hydrogen, a monovalent metal cation, a divalent metal cation, ammonium cation and an organic group substituted ammonium cation; x is the average degree of alkoxylation of the linking group L ranging from 2 to 20; y is the average degree of ethoxylation ranging from 0 to 5; and wherein the surfactant blend includes a weight % ratio of the extended chain intermediate surfactant of formula to the extended chain anionic surfactant of formula of greater than 1.1:1.
Method for coding at least one image (IC j) cut up into blocks, comprising, for a current block (B u) to be coded, the steps of: - prediction of the current block with the aid of at least one predictor block (BP opt), - determination of a residual data block representative of the difference between the predictor block and the current block, - selection, according to a predetermined coding performance criterion, of a pair of mathematical operations comprising a permutation operation (OP m*) and a transformation operation (OT n*) from among respectively a plurality of permutation operations (OP 0, OP 1,..., OP m,..., OP K-1), with 0≤m≤K-1 and 0≤m*≤K-1, and a plurality of transformation operations (OT 0, OT 1,..., OT n,..., OT L-1), with 0≤n≤L-1 and 0≤n*≤L-1, - application of the permutation operation (OP m*) of said selected pair to the data of the determined residual block, - application of the transformation operation (OT n*) of said selected pair to the permuted data, - coding of the data arising from said applied transformation operation. - prediction of the current block with the aid of at least one predictor block (BP opt), - determination of a residual data block representative of the difference between the predictor block and the current block, - selection, according to a predetermined coding performance criterion, of a pair of mathematical operations comprising a permutation operation (OP m*) and a transformation operation (OT n*) from among respectively a plurality of permutation operations (OP 0, OP 1,..., OP m,..., OP K-1), with 0≤m≤K-1 and 0≤m*≤K-1, and a plurality of transformation operations (OT 0, OT 1,..., OT n,..., OT L-1), with 0≤n≤L-1 and 0≤n*≤L-1, - application of the permutation operation (OP m*) of said selected pair to the data of the determined residual block, - application of the transformation operation (OT n*) of said selected pair to the permuted data, - coding of the data arising from said applied transformation operation.
A flux-cored welding wire for welding 400 series of stainless steels, comprising: a shell enclosed to form a tubular cavity therein that contains flux, wherein the stainless steel that is used to make the shell is any stainless steel in 400 series of stainless steels and contains 10%∼18% of Cr by weight, wherein the flux contains 9%∼68% of Cr, 1%∼10% of Mn and 2%∼15% of Si by weight and the balance is Fe. a shell enclosed to form a tubular cavity therein that contains flux, wherein the stainless steel that is used to make the shell is any stainless steel in 400 series of stainless steels and contains 10%∼18% of Cr by weight, wherein the flux contains 9%∼68% of Cr, 1%∼10% of Mn and 2%∼15% of Si by weight and the balance is Fe.
A method for detecting an antimicrobial surface coating on a substrate, comprising the steps of: providing a substrate having a surface with an antimicrobial coating thereon; applying an anionic agent to said surface of the substrate; allowing the anionic agent to bond to the antimicrobial coating present on the substrate surface; removing unbonded anionic agent from the surface of the substrate; subjecting the surface of the substrate to a predetermined process to effect a change in the bonded anionic agent; observing the change in the bonded anionic agent; and verifying, based on the observed change in the bonded anionic agent, the presence of antimicrobial surface coating on the substrate; characterized in that the anionic agent is applied to a predetermined portion of the surface of the substrate using an applicator device configured to apply the anionic agent to the predetermined portion according to a predetermined pattern provided by the applicator device. providing a substrate having a surface with an antimicrobial coating thereon; applying an anionic agent to said surface of the substrate; allowing the anionic agent to bond to the antimicrobial coating present on the substrate surface; removing unbonded anionic agent from the surface of the substrate; subjecting the surface of the substrate to a predetermined process to effect a change in the bonded anionic agent; observing the change in the bonded anionic agent; and verifying, based on the observed change in the bonded anionic agent, the presence of antimicrobial surface coating on the substrate; characterized in that the anionic agent is applied to a predetermined portion of the surface of the substrate using an applicator device configured to apply the anionic agent to the predetermined portion according to a predetermined pattern provided by the applicator device.
A write-once disc having at least one recording layer, for used in a recording/reproducing apparatus, the disc comprising: a plurality of temporary disc management areas (TDMAs) in which a temporary disc management structure (TDMS) comprising a temporary defect list (TDFL) and a temporary disc defect structure (TDDS) is recorded; and at least one access information area in which access information indicating among the plurality of temporary disc management areas a TDMA in which a latest temporary disc management structure (TDMS) is recorded, is recorded, wherein the temporary defect list (TDFL) comprises location information of defective blocks, wherein the temporary disc defect structure (TDDS) comprises: information indicating a location in which the temporary defect list (TDFL) is recorded, information on a location and a size of the temporary disc management area (TDMA), and information on a size of a spare area, and characterized in that the access information comprises a temporary disc defect structure identical to the temporary disc defect structure recorded in the temporary disc management area and the temporary disc defect structure comprises an information field indicating a location of the TDMA in which a final TDDS is recorded. a plurality of temporary disc management areas (TDMAs) in which a temporary disc management structure (TDMS) comprising a temporary defect list (TDFL) and a temporary disc defect structure (TDDS) is recorded; and at least one access information area in which access information indicating among the plurality of temporary disc management areas a TDMA in which a latest temporary disc management structure (TDMS) is recorded, is recorded, wherein the temporary defect list (TDFL) comprises location information of defective blocks, wherein the temporary disc defect structure (TDDS) comprises: information indicating a location in which the temporary defect list (TDFL) is recorded, information on a location and a size of the temporary disc management area (TDMA), and information on a size of a spare area, and information indicating a location in which the temporary defect list (TDFL) is recorded, information on a location and a size of the temporary disc management area (TDMA), and information on a size of a spare area, and characterized in that the access information comprises a temporary disc defect structure identical to the temporary disc defect structure recorded in the temporary disc management area and the temporary disc defect structure comprises an information field indicating a location of the TDMA in which a final TDDS is recorded.
A tread for a tire, the tread comprising a rubber composition that is based upon a cross-linkable rubber composition, the cross-linkable rubber composition comprising, per hundred parts by weight of rubber (phr): 100 phr of rubber selected from between 50 phr and 85 phr of a functionalized styrene-butadiene rubber and between 15 phr and 50 phr of a polybutadiene rubber, wherein the functionalized SBR includes a functional group attached as an active moiety and wherein the butadiene portion of the SBR has as trans -1,4 content of between 30 wt. % and 70 wt. %; a plasticizing system comprising a plasticizing resin having a glass transition temperature (Tg) of at least 25 °C and between 5 phr and 50 phr of a plasticizing liquid, wherein the plasticizing system is added in an effective amount in a ratio of the liquid plasticizer to the resin plasticizer of between 0.1 and 0.7 to provide the rubber composition with a glass transition temperature of between -25 °C and -15 °C and with a dynamic modulus G* at 60 °C of between 0.8 MPa and 1.3 MPa; between 60 phr and 125 phr of a silica filler; and a sulfur curing system. 100 phr of rubber selected from between 50 phr and 85 phr of a functionalized styrene-butadiene rubber and between 15 phr and 50 phr of a polybutadiene rubber, wherein the functionalized SBR includes a functional group attached as an active moiety and wherein the butadiene portion of the SBR has as trans -1,4 content of between 30 wt. % and 70 wt. %; a plasticizing system comprising a plasticizing resin having a glass transition temperature (Tg) of at least 25 °C and between 5 phr and 50 phr of a plasticizing liquid, wherein the plasticizing system is added in an effective amount in a ratio of the liquid plasticizer to the resin plasticizer of between 0.1 and 0.7 to provide the rubber composition with a glass transition temperature of between -25 °C and -15 °C and with a dynamic modulus G* at 60 °C of between 0.8 MPa and 1.3 MPa; between 60 phr and 125 phr of a silica filler; and a sulfur curing system.