mhurhangee/patent-ind-claim-en huggingface dataset:
A digital desk comprising: an upper plate ; a lower plate having a table shape; a transparent display unit provided between a counselor and a customer; a touch panel unit configured to receive an input of touch information from the customer; a sensor unit configured to detect at least one of positions of the counselor and the customer; and a control unit configured to control an image displayed on the transparent display unit based on information on presence or absence of the counselor, wherein the transparent display unit is disposed in the upper plate, and the touch panel unit is disposed on the lower plate , and wherein the control unit is configured to receive the position of the customer and control an operation of the touch panel unit so that information for input is displayed in an area corresponding to the position of the customer. an upper plate ; a lower plate having a table shape; a transparent display unit provided between a counselor and a customer; a touch panel unit configured to receive an input of touch information from the customer; a sensor unit configured to detect at least one of positions of the counselor and the customer; and a control unit configured to control an image displayed on the transparent display unit based on information on presence or absence of the counselor, wherein the transparent display unit is disposed in the upper plate, and the touch panel unit is disposed on the lower plate , and wherein the control unit is configured to receive the position of the customer and control an operation of the touch panel unit so that information for input is displayed in an area corresponding to the position of the customer.
A filter diaphragm for a horizontal plate and frame -type filter, such as a tower press, comprising: - a sheet like body having a flexible structure, and, - at least on a filter plate -facing side thereof, a continuous seal bead , - on a plate frame -facing side thereof, opposite to the filter plate -facing side , an attachment bead for attaching the diaphragm to a correspondingly shaped groove formed on a plate frame, wherein the seal bead delimits a planar central portion of the diaphragm on a lateral inside thereof, a lateral outside of the diaphragm being defined on a side of the seal bead opposite to the lateral inside. wherein the seal bead comprises an inner seal lip on a lateral inside of the seal bead and an outer seal lip surrounding the inner seal lip on a lateral outside of the seal bead , characterized in that the outer seal lip is elevated from the inner seal lip in a vertical direction perpendicular to a general plane defined by the diaphragm . - a sheet like body having a flexible structure, and, - at least on a filter plate -facing side thereof, a continuous seal bead , - on a plate frame -facing side thereof, opposite to the filter plate -facing side , an attachment bead for attaching the diaphragm to a correspondingly shaped groove formed on a plate frame, wherein the seal bead delimits a planar central portion of the diaphragm on a lateral inside thereof, a lateral outside of the diaphragm being defined on a side of the seal bead opposite to the lateral inside. wherein the seal bead comprises an inner seal lip on a lateral inside of the seal bead and an outer seal lip surrounding the inner seal lip on a lateral outside of the seal bead , characterized in that the outer seal lip is elevated from the inner seal lip in a vertical direction perpendicular to a general plane defined by the diaphragm .
Threaded connecting piece for being welded into the exhaust-gas line of an internal combustion engine and for receiving an exhaust-gas sensor , having a passage bore which has, in an axial direction, an end facing towards the exhaust gas and an end facing away from the exhaust gas, characterized in that , in the passage bore , provision is made of an encircling, radially inwardly directed lug for abutment of the exhaust-gas sensor , which lug is spaced apart from the end facing towards the exhaust gas and is spaced apart from the end facing away from the exhaust gas.
A stud installation machine for installing studs in a tyre of an High Pressure Grinding Roller, HPGR, which machine includes: (i) a support arrangement configured to support a tyre and a shaft on which the tyre is mounted for angular displacement about a longitudinal axis of rotation; (ii) a stud insertion arrangement , at least part of which is displaceable relative to a tyre supported on the support arrangement , and which is configured to insert studs into holes in the tyre ; and (iii) further comprising an adhesive dispensing arrangement , at least part of which is displaceable relative to a tyre supported on the support arrangement , and which is configured to dispense adhesive into holes in the tyre before studs are inserted into the holes . (i) a support arrangement configured to support a tyre and a shaft on which the tyre is mounted for angular displacement about a longitudinal axis of rotation; (ii) a stud insertion arrangement , at least part of which is displaceable relative to a tyre supported on the support arrangement , and which is configured to insert studs into holes in the tyre ; and (iii) further comprising an adhesive dispensing arrangement , at least part of which is displaceable relative to a tyre supported on the support arrangement , and which is configured to dispense adhesive into holes in the tyre before studs are inserted into the holes .
A decorative panel, comprising a carrier plate , a decorative layer arranged on the carrier plate , a wear protection layer arranged above the decorative layer , and optionally corresponding locking means on at least two side edges of the panel, characterised in that the carrier plate comprises a multi-laminar layer structure with a plurality N of layer sequences of the A-B-A type, wherein layer A comprises a first thermoplastic plastic and layer B a second thermoplastic plastic different from the thermoplastic plastic of layer A and wherein N lies between ≥3 and ≤250.
An open-architecture interference screw for creating an interference fit between a bone tunnel and tissue, the screw comprising: a threaded body having a proximal end and a distal end , and a thread extending around the threaded body between the proximal end and distal end; a supporting spline extending along a cannulation through the threaded body between the proximal end and distal end , the supporting spline engageable with a delivery device; and, at least one opening defined by an outer surface between the thread , the at least one opening being further defined by a ratio of open surface area to closed surface area , characterised in that the screw has a diameter of 11-12mm, a length of 30-35mm, and wherein the ratio is about one unit of open surface area to about three units of closed surface area, so that when torsionally loaded, the screw does not exhibit plastic deformation when inserted into an undersized bone tunnel. a threaded body having a proximal end and a distal end , and a thread extending around the threaded body between the proximal end and distal end; a supporting spline extending along a cannulation through the threaded body between the proximal end and distal end , the supporting spline engageable with a delivery device; and, at least one opening defined by an outer surface between the thread , the at least one opening being further defined by a ratio of open surface area to closed surface area , characterised in that the screw has a diameter of 11-12mm, a length of 30-35mm, and wherein the ratio is about one unit of open surface area to about three units of closed surface area, so that when torsionally loaded, the screw does not exhibit plastic deformation when inserted into an undersized bone tunnel.
A method for assessing risk for well completion, comprising: obtaining, using an input interface , a Below Rotary Table hours and a plurality of well-field parameters for one or more planned runs; determining, using at least one processor , one or more non-productive time values indicative of non-productive time that correspond to the one or more planned runs based upon the well-field parameters; developing, using at least one processor , a non-productive time distribution and a Below Rotary Table distribution via one or more Monte Carlo trials based on the Below Rotary Table hours and the one or more non-productive time values; and outputting, using a graphic display , a risk transfer model results based on a total BRT hours from the Below Rotary Table and the non-productive time distribution produced from the one or more Monte Carlo trials. obtaining, using an input interface , a Below Rotary Table hours and a plurality of well-field parameters for one or more planned runs; determining, using at least one processor , one or more non-productive time values indicative of non-productive time that correspond to the one or more planned runs based upon the well-field parameters; developing, using at least one processor , a non-productive time distribution and a Below Rotary Table distribution via one or more Monte Carlo trials based on the Below Rotary Table hours and the one or more non-productive time values; and outputting, using a graphic display , a risk transfer model results based on a total BRT hours from the Below Rotary Table and the non-productive time distribution produced from the one or more Monte Carlo trials.
A rolled steel bar or rolled wire rod for a cold-forged component that has a chemical composition consisting of, in mass%: C: 0.24% to 0.36%; Si: less than 0.40%; Mn: 0.20% to 0.45%; S: less than 0.020%; P: less than 0.020%; Cr: 0.70% to 1.45%; Al: 0.005% to 0.060%; Ti: greater than 0.020% to 0.060%; B: 0.0003% to 0.0040%; N: 0.0020% to 0.0080%; Cu: 0% to 0.50%; Ni: 0% to 0.30%; Mo: 0% to 0.050%; V: 0% to 0.050%; Zr: 0% to 0.050%; Ca: 0% to 0.0050%; and Mg: 0% to 0.0050%, with a remainder of Fe and impurities, wherein Y1 and Y2 represented by the following Formulas <1> and <2>, satisfy a relationship represented by the following Formula <3>, a tensile strength is 750 MPa or less, an internal structure is a ferrite-pearlite structure, a ferrite fraction is 40% to 80% in the internal structure, and the rolled bar or wire rod has a diameter D of 6 to 35 mm, wherein the ferrite-pearlite structure means a structure that is a mixed structure in which ferrite and pearlite occupy 95% or greater of the structure in terms of an area fraction, and wherein in the measurement of the ferrite fraction, a ferrite phase between lamella cementites included in the pearlite is not included as the ferrite; Y 1 = Mn × Cr Y 2 = 0.134 × D / 25.4 − 0.50 × √ C / 0.50 × √ C and Y 1 > Y 2 wherein [C], [Mn], and [Cr] in the formulas represent respective amounts of elements in mass%, and D represents a diameter of the rolled steel bar or rolled wire rod in the unit of mm. C: 0.24% to 0.36%; Si: less than 0.40%; Mn: 0.20% to 0.45%; S: less than 0.020%; P: less than 0.020%; Cr: 0.70% to 1.45%; Al: 0.005% to 0.060%; Ti: greater than 0.020% to 0.060%; B: 0.0003% to 0.0040%; N: 0.0020% to 0.0080%; Cu: 0% to 0.50%; Ni: 0% to 0.30%; Mo: 0% to 0.050%; V: 0% to 0.050%; Zr: 0% to 0.050%; Ca: 0% to 0.0050%; and Mg: 0% to 0.0050%, with a remainder of Fe and impurities, wherein Y1 and Y2 represented by the following Formulas <1> and <2>, satisfy a relationship represented by the following Formula <3>, a tensile strength is 750 MPa or less, an internal structure is a ferrite-pearlite structure, a ferrite fraction is 40% to 80% in the internal structure, and the rolled bar or wire rod has a diameter D of 6 to 35 mm, wherein the ferrite-pearlite structure means a structure that is a mixed structure in which ferrite and pearlite occupy 95% or greater of the structure in terms of an area fraction, and wherein in the measurement of the ferrite fraction, a ferrite phase between lamella cementites included in the pearlite is not included as the ferrite; Y 1 = Mn × Cr Y 2 = 0.134 × D / 25.4 − 0.50 × √ C / 0.50 × √ C and Y 1 > Y 2 wherein [C], [Mn], and [Cr] in the formulas represent respective amounts of elements in mass%, and D represents a diameter of the rolled steel bar or rolled wire rod in the unit of mm.
A telecommunications device (102; 204, 208) comprising: - a first transceiver configured to communicate over a broadband link; - a second transceiver configured to communicate over a radio link (126; 222a, 222b); and - a state monitor, including one or more processes that: - monitor a state of the telecommunications device (102; 204, 208) and - in response to the state of the telecommunications device being a power outage state that is disrupting communications by the first transceiver, transmit, using the second transceiver, data specifying the state of the telecommunications device over the radio link (126; 222a, 222b). - a first transceiver configured to communicate over a broadband link; - a second transceiver configured to communicate over a radio link (126; 222a, 222b); and - a state monitor, including one or more processes that: - monitor a state of the telecommunications device (102; 204, 208) and - in response to the state of the telecommunications device being a power outage state that is disrupting communications by the first transceiver, transmit, using the second transceiver, data specifying the state of the telecommunications device over the radio link (126; 222a, 222b). - monitor a state of the telecommunications device (102; 204, 208) and - in response to the state of the telecommunications device being a power outage state that is disrupting communications by the first transceiver, transmit, using the second transceiver, data specifying the state of the telecommunications device over the radio link (126; 222a, 222b).
A method comprising, pulse width modulating a first pressure valve to provide a duty cycle of pressure to a starter air valve actuator to actuate a starter air valve (SAV) to motor an engine at a predetermined motoring speed, characterised in selecting a second pressure valve to provide the duty cycle of pressure to the SAV actuator to actuate the starter air valve (SAV) to motor the engine at a predetermined motoring speed.
A turbomachinery comprising: a radial flow impeller (W) including at least one blade (B); and a casing (C) for housing the impeller (W) rotatably, wherein a size of a gap (G) between a tip of the blade (B) and an inner surface of the casing (C) during a stop of the impeller (W) is formed non-uniformly over a circumferential direction of the impeller (W), during the stop of the impeller being a case in which a temperature of each part of the turbomachinery is equal to a temperature around the turbomachinery, characterized in that , during the stop of the impeller (W), a center axis (AXc) of the casing (C), which is parallel to a rotational axis (AXw) of the impeller (W) during operation of the turbomachinery , is not parallel to the rotational axis (AXw) of the impeller (W), during the operation of the turbomachinery being a case in which a temperature of each part of the turbomachinery is equal to a temperature reached when the turbomachinery operates normally. a radial flow impeller (W) including at least one blade (B); and a casing (C) for housing the impeller (W) rotatably, wherein a size of a gap (G) between a tip of the blade (B) and an inner surface of the casing (C) during a stop of the impeller (W) is formed non-uniformly over a circumferential direction of the impeller (W), during the stop of the impeller being a case in which a temperature of each part of the turbomachinery is equal to a temperature around the turbomachinery, characterized in that , during the stop of the impeller (W), a center axis (AXc) of the casing (C), which is parallel to a rotational axis (AXw) of the impeller (W) during operation of the turbomachinery , is not parallel to the rotational axis (AXw) of the impeller (W), during the operation of the turbomachinery being a case in which a temperature of each part of the turbomachinery is equal to a temperature reached when the turbomachinery operates normally.
A method comprising: receiving information indicative of a volume setting corresponding to each listening zone of a plurality of listening zones associated with a multi-zone audio system ; generating , by one or more processing devices, a zone-specific adjustment signal for each of the plurality of listening zones, wherein the zone-specific adjustment signal for a given listening zone accounts for a cross-zone effect associated with a volume setting corresponding to another listening zone, and wherein the zone-specific adjustment signal is configured to adjust an output of corresponding zone-specific circuitry ; generating , by the one or more processing devices, an additional adjustment signal configured to adjust an output of a cross-zone equalization filter , wherein the output of the cross-zone equalization filter is configured to generate a target acoustic distribution across multiple listening zones; and generating an output of an acoustic transducer of the multi-zone audio system based on the zone-specific adjustment signals and the additional adjustment signal. receiving information indicative of a volume setting corresponding to each listening zone of a plurality of listening zones associated with a multi-zone audio system ; generating , by one or more processing devices, a zone-specific adjustment signal for each of the plurality of listening zones, wherein the zone-specific adjustment signal for a given listening zone accounts for a cross-zone effect associated with a volume setting corresponding to another listening zone, and wherein the zone-specific adjustment signal is configured to adjust an output of corresponding zone-specific circuitry ; wherein the zone-specific adjustment signal for a given listening zone accounts for a cross-zone effect associated with a volume setting corresponding to another listening zone, and wherein the zone-specific adjustment signal is configured to adjust an output of corresponding zone-specific circuitry ; generating , by the one or more processing devices, an additional adjustment signal configured to adjust an output of a cross-zone equalization filter , wherein the output of the cross-zone equalization filter is configured to generate a target acoustic distribution across multiple listening zones; and generating an output of an acoustic transducer of the multi-zone audio system based on the zone-specific adjustment signals and the additional adjustment signal.
A linear actuator comprising: a slider (3; 285) provided in a body casing (2; 282) with linearly extending therein, the anteroposterior direction of the slider being the axial direction of the slider; at least one magnet (6; 286) fixed to the slider along the axial direction of the slider; and at least one coil (4; 284) supported by the body casing so as to surround the slider to which said at least one magnet is fixed; the slider (3; 285) shifting relative to the body casing (2; 282) in the axial direction due to interaction between said at least one coil (4; 284) to which electric current is applied and said at least one magnet (6; 286); the linear actuator (1; 208) further comprising a plurality of elastic members (7; 287), each supporting one end or the other end of the slider (3; 285) in the axial direction; the elastic members elastically deforming due to a shift of the slider (3; 285) in the axial direction; and the elastic member being composed of a plurality of flat springs (7; 287), the plurality of flat springs being disposed on the right and left sides of the slider, the plurality of flat springs comprising at least one front flat spring that supports the front end portion of the slider in the axial direction, the front end portion being the end portion for connecting the driven members, and at least one rear flat spring that supports the rear end portion of the slider in the axial direction, characterized by the sum of the stiffness of said at least one front flat spring being greater than the sum of the stiffness of said at least one rear flat spring . a slider (3; 285) provided in a body casing (2; 282) with linearly extending therein, the anteroposterior direction of the slider being the axial direction of the slider; at least one magnet (6; 286) fixed to the slider along the axial direction of the slider; and at least one coil (4; 284) supported by the body casing so as to surround the slider to which said at least one magnet is fixed; the slider (3; 285) shifting relative to the body casing (2; 282) in the axial direction due to interaction between said at least one coil (4; 284) to which electric current is applied and said at least one magnet (6; 286); the linear actuator (1; 208) further comprising a plurality of elastic members (7; 287), each supporting one end or the other end of the slider (3; 285) in the axial direction; the elastic members elastically deforming due to a shift of the slider (3; 285) in the axial direction; and the elastic member being composed of a plurality of flat springs (7; 287), the plurality of flat springs being disposed on the right and left sides of the slider, the plurality of flat springs comprising at least one front flat spring that supports the front end portion of the slider in the axial direction, the front end portion being the end portion for connecting the driven members, and at least one rear flat spring that supports the rear end portion of the slider in the axial direction, characterized by the sum of the stiffness of said at least one front flat spring being greater than the sum of the stiffness of said at least one rear flat spring .