mhurhangee/ep-ind-claims huggingface dataset:
Timepiece component comprising a one-piece part (15, 35, 45, 55, 65, 75) welded on a member provided with a substantially horizontal surface and a substantially vertical surface, characterized in that the part (15, 35, 45, 55, 65, 75) includes elastic means (30, 40, 50, 60, 70) of attachment to said substantially vertical surface and in that the part further includes securing means (36, 46, 56, 66, 76) arranged to be welded on said substantially horizontal surface enabling the attachment of the elastic means (30, 40, 50, 60, 70) to be decoupled from the securing means (36, 46, 56, 66, 76) to ensure the welding of the timepiece component.
A downbeat identification comprising: identifying beat time instants (t i) in an audio signal; determining a chord change likelihood from the audio signal at or between the beat time instants (t i); determining a first accent-based downbeat likelihood from the audio signal at or between the beat time instants (t i); determining a second, different, accent-based downbeat likelihood from the audio signal at or between the beat time instants (t i); normalizing (6.7, 6.4, 6.10) the determined chord change likelihood and the first and second accent-based downbeat likelihoods;and identifying downbeats (6.12) by generating, for each of a set of the beat time instances, a score representing or including the summation of the determined chord change likelihood, the first accent-based downbeat likelihood and the second accent-based downbeat likelihood, and to identify a downbeat from the highest resulting likelihood over the set of the beat time instances. identifying beat time instants (t i) in an audio signal; determining a chord change likelihood from the audio signal at or between the beat time instants (t i); determining a first accent-based downbeat likelihood from the audio signal at or between the beat time instants (t i); determining a second, different, accent-based downbeat likelihood from the audio signal at or between the beat time instants (t i); normalizing (6.7, 6.4, 6.10) the determined chord change likelihood and the first and second accent-based downbeat likelihoods;and identifying downbeats (6.12) by generating, for each of a set of the beat time instances, a score representing or including the summation of the determined chord change likelihood, the first accent-based downbeat likelihood and the second accent-based downbeat likelihood, and to identify a downbeat from the highest resulting likelihood over the set of the beat time instances.
A correcting device comprising: a timing signal reception unit which is configure to receive a timing signal that defines an operation timing of a drive unit of an injection molding machine controlled by a molding machine controller from the molding machine controller of the injection molding machine via a predetermined network; a timing setting unit which is configured to set a detection timing at which a detection value is detected by a detector in the injection molding machine based on the timing signal received by the timing signal reception unit; a detection value acquisition unit which is configured to acquire the detection value detected by the detector at the detection timing set by the timing setting unit; and a correction value calculation unit which is configured to calculate a correction value of a set value of molding conditions of the injection molding machine based on a comparison between the detection value of the detector acquired by the detection value acquisition unit and a target value such that a deviation between the detection value and the target value becomes small. a timing signal reception unit which is configure to receive a timing signal that defines an operation timing of a drive unit of an injection molding machine controlled by a molding machine controller from the molding machine controller of the injection molding machine via a predetermined network; a timing setting unit which is configured to set a detection timing at which a detection value is detected by a detector in the injection molding machine based on the timing signal received by the timing signal reception unit; a detection value acquisition unit which is configured to acquire the detection value detected by the detector at the detection timing set by the timing setting unit; and a correction value calculation unit which is configured to calculate a correction value of a set value of molding conditions of the injection molding machine based on a comparison between the detection value of the detector acquired by the detection value acquisition unit and a target value such that a deviation between the detection value and the target value becomes small.
An apparatus for attaching or detaching a sensor capsule to and from a running seismic cable on a vessel, comprising a trolley with at least one room (26, 27) for the sensor capsule, the trolley is moveable back and forth on a support structure in a longitudinal direction essentially corresponding to the longitudinal direction (24, 25) of the seismic cable during deployment and retrieval; wherein the apparatus is characterized by: a latching mechanism for latching the trolley temporarily to a node casing forming part of the seismic cable; and at least one inserting/withdrawing mechanism (8, 11) for inserting and withdrawing the sensor capsule into or out of the node casing while the trolley is latched to the node casing. a latching mechanism for latching the trolley temporarily to a node casing forming part of the seismic cable; and at least one inserting/withdrawing mechanism (8, 11) for inserting and withdrawing the sensor capsule into or out of the node casing while the trolley is latched to the node casing.
Heat recovery system for recovering heat from a hot fluid flowing in at least one tube, in particular from hot air drawn from a high-temperature compression stage of an aircraft engine, the system comprising at least one evaporator device arranged in use around said at least one tube and, for each evaporator device, a respective conduit connected at its opposite ends to the evaporator device so as to form with the latter a closed circuit containing a two-phase fluid, wherein each evaporator device comprises a casing, having an inner wall which in use is in contact with the respective tube and an outer wall enclosing a cavity with the inner wall, and a separating member arranged inside the casing so as to divide radially the cavity into an inner cavity, extending between the inner wall and the separating member, and an outer cavity, extending between the separating member and the outer wall, the separating member being made of porous material so as to allow the fluid to flow radially by capillarity through the separating member in the direction from the outer cavity to the inner cavity, and wherein each conduit is in fluid communication at its opposite ends with the inner cavity and the outer cavity, respectively, of the respective evaporator device so as to allow fluid in vapour phase to flow out of the evaporator device and fluid in liquid phase to flow back into the evaporator device, respectively.
Device for the gravimetric metering of bulk materials, comprising at least one metering screw (1.2) comprising a drive, and an agitator (1.3) comprising a separate drive (2.5), the device consisting of a product-processing equipment part and a weighing and drive part, both parts being separable from one another, the weighing and drive part comprising a drive system (2.5, 2.5.1) and a weighing system which comprises a load cell (2.4) and a stationary housing or frame part or a stationary substructure, characterized in that the agitator (1.3) is arranged above the metering screw (1.2), in that the drive system (2.5, 2.5.1) and the product-processing equipment part are supported on the load cell (2.4) relative to the stationary housing or frame part or the stationary substructure, and in that a locking device (2.3) for the load cell (2.4) is provided, the drive system (2.5, 2.5.1) being supported on the load cell (2.4) in the open locking state of the locking device (2.3) and the drive system (2.5, 2.5.1) being supported on the stationary housing or frame part or the stationary substructure in the closed locking state of the locking device (2.3) and in particular being statically connected to the stationary housing or frame part or the stationary substructure. the device consisting of a product-processing equipment part and a weighing and drive part, both parts being separable from one another, the weighing and drive part comprising a drive system (2.5, 2.5.1) and a weighing system which comprises a load cell (2.4) and a stationary housing or frame part or a stationary substructure, characterized in that the agitator (1.3) is arranged above the metering screw (1.2), in that the drive system (2.5, 2.5.1) and the product-processing equipment part are supported on the load cell (2.4) relative to the stationary housing or frame part or the stationary substructure, and in that a locking device (2.3) for the load cell (2.4) is provided, the drive system (2.5, 2.5.1) being supported on the load cell (2.4) in the open locking state of the locking device (2.3) and the drive system (2.5, 2.5.1) being supported on the stationary housing or frame part or the stationary substructure in the closed locking state of the locking device (2.3) and in particular being statically connected to the stationary housing or frame part or the stationary substructure.
Active aerodynamic system for vehicles, characterised in that it comprises: - a moulded plastic structure comprising an upper part and a lower part, the structure being arranged to receive movable elements (31; 41), - at least a first set of movable elements and a second set of movable elements each comprising at least one movable element (31; 41), - an actuator off-centre with respect to the structure and able to set in motion at least one of the movable elements of the first series of movable elements, - a force transmission member connected to the first series of movable elements and to the second series of movable elements, said force transmission member being capable of transmitting forces from one series of movable elements (3; 4) to the other, the force transmission member materializing a plane P, and in that the force transmission member is connected to the upper part and to the lower part of the structure by pivot linkages allowing only translational displacements of the force transmission member in a plane parallel to the plane P, and in that the force transmission member is capable of distributing the forces within the system, the force transmission member being connected to the upper part and to the lower part of the structure by roads forming pivot linkages between the force transmission member and the structure. - a moulded plastic structure comprising an upper part and a lower part, the structure being arranged to receive movable elements (31; 41), - at least a first set of movable elements and a second set of movable elements each comprising at least one movable element (31; 41), - an actuator off-centre with respect to the structure and able to set in motion at least one of the movable elements of the first series of movable elements, - a force transmission member connected to the first series of movable elements and to the second series of movable elements, said force transmission member being capable of transmitting forces from one series of movable elements (3; 4) to the other, the force transmission member materializing a plane P,
Condenser/heat exchanger for connection to an exhaust air outlet of a washing device for cleaning washing goods, comprising ▪ a housing with an inlet and an outlet for the exhaust air from the exhaust air outlet of the washing device, ▪ at least one pipe element with an inlet and an outlet for domestic water to be heated, ▪ at least one stirring element with a drive and at least one blade element, wherein the blade element is provided to move the exhaust air from the washing device in the housing, ▪ wherein the conduit member is spirally arranged around at least a part of the stirring member and the housing encloses the stirring member and the conduit member, ▪ wherein the inlet and the outlet are formed by openings in the housing, which open out inside the spirally designed conduit element, and the stirring element, in particular the blade element, is designed in such a way that the exhaust air entering through the inlet can be displaced through the conduit element or past the conduit element towards the enclosing housing when the stirring element is actuated, and ▪ wherein a control is provided which regulates the operation of the stirring element, wherein at least one temperature inlet sensor is provided which determines the temperature of the exhaust air entering at the inlet and wherein at least one conduction temperature sensor is provided which determines the temperature in the interior of the conduction element and the signals of these temperature sensors are fed to the control and the control determines the regulation of the stirring element from these signals. ▪ a housing with an inlet and an outlet for the exhaust air from the exhaust air outlet of the washing device, ▪ at least one pipe element with an inlet and an outlet for domestic water to be heated, ▪ at least one stirring element with a drive and at least one blade element, wherein the blade element is provided to move the exhaust air from the washing device in the housing, ▪ wherein the conduit member is spirally arranged around at least a part of the stirring member and the housing encloses the stirring member and the conduit member, ▪ wherein the inlet and the outlet are formed by openings in the housing, which open out inside the spirally designed conduit element, and the stirring element, in particular the blade element, is designed in such a way that the exhaust air entering through the inlet can be displaced through the conduit element or past the conduit element towards the enclosing housing when the stirring element is actuated, and ▪ wherein a control is provided which regulates the operation of the stirring element, wherein at least one temperature inlet sensor is provided which determines the temperature of the exhaust air entering at the inlet and wherein at least one conduction temperature sensor is provided which determines the temperature in the interior of the conduction element and the signals of these temperature sensors are fed to the control and the control determines the regulation of the stirring element from these signals.
A battery charging control device having a battery that is adapted to be charged by a timer charge reservation time, a power load that is connected to a charging power system of the battery and is adapted to be operated by a power supplied through the charging power system, and a controller that is adapted to control a charge power (P chg) supplied to the battery, the power load is a battery-warming-up heater, and when present time is in the timer charge reservation time, the controller is adapted to control the charge power (P chg) so that the battery charge state becomes a full battery charge state (SOC full), and when present time is not in the timer charge reservation time and warming-up of the battery by the battery-warming-up heater is carried out, the device is characterized in that the controller is adapted to control the charge power (P chg) so that the battery charge state is kept at a battery hold capacity (SOC hold) that is smaller than the full battery charge state (SOC full).
An optoelectronic device (45; 100; 150; 180) comprising: light-emitting diodes comprising semiconductor elements, each semiconductor element comprising a microwire or a nanowire, characterized in that it further comprises current-limiting components (50; 168), each component being series-connected with one of the semiconductor elements and having a resistance which increases along with the current intensity. light-emitting diodes comprising semiconductor elements, each semiconductor element comprising a microwire or a nanowire, characterized in that it further comprises current-limiting components (50; 168), each component being series-connected with one of the semiconductor elements and having a resistance which increases along with the current intensity.
A method of call control including, in a first communications network (12, 16), detecting a call directed to a destination in the first network; redirecting the call to a destination in a second network (16, 12); characterised by obtaining from a client (222, 242) on a terminal (22, 24) associated with the destination in the second communications network a value for the time delay before a call to the destination in the second communications network is redirected in the second network on no answer to a first alternative destination; setting a delay period to a value less than the value of the time delay obtained from the client; and when a subsequent call redirected to the destination in the second communications network is not answered in the second communications network within the delay period, redirecting in the first network the call to a second alternative destination associated with the first communications network.
A drive rod lock in particular for a double-wing door with a locking device, with a latch which can be moved out of a lock case and a catch resiliently pre-tensioned out of the lock case and retractable by means of a catch retraction lever and a drive rod connecting slide of the locking device displaceable transversely to the movement of the latch, with a guide curve arranged in the drive rod connecting slide and with a guide element of the latch coupled with the guide curve, with a drive device of the locking device having a drive arc, wherein the drive arc is guided displaceably around a receptacle for a locking cylinder in a circular arc and is arranged for its engagement in the movement area of a driver of the locking cylinder, with a drive element coupled with the catch retraction lever and drivable by a drive device, characterized in that the drive element lies with a stop in a sandwich-like manner over a stop of the drive arc and penetrates into the movement area of the driver of the locking cylinder, so that when the driver is driven the drive element and the drive arc can be driven.
A method of monitoring tire pressure of an aircraft, the method comprising: exciting a primary coil of a transformer with a driving waveform comprising an alternating current, wherein the primary coil is mounted to a non-rotating structure of the aircraft; coupling, by the transformer, the alternating current to a secondary coil in response to the exciting, wherein the secondary coil is mounted to a wheel of the aircraft, wherein a distance between the primary coil and the secondary coil varies in response to at least one of mechanical load, mechanical shifting, and mechanical vibrations relative to one or both of the non-rotating structure and the wheel; monitoring, by an effectivity monitor physically and electrically coupled to the secondary coil, an efficiency of a coupling between the primary coil and the secondary coil; communicating, by the effectivity monitor, data representative of a magnitude of at least one of the alternating current and the load to a controller; directing, by the controller, a power supply to change a frequency of the driving waveform in response to the data; and maximizing, by the controller, at least one of the alternating current coupled to the secondary coil and the load on the primary coil in response to the directing. exciting a primary coil of a transformer with a driving waveform comprising an alternating current, wherein the primary coil is mounted to a non-rotating structure of the aircraft; coupling, by the transformer, the alternating current to a secondary coil in response to the exciting, wherein the secondary coil is mounted to a wheel of the aircraft, wherein a distance between the primary coil and the secondary coil varies in response to at least one of mechanical load, mechanical shifting, and mechanical vibrations relative to one or both of the non-rotating structure and the wheel; monitoring, by an effectivity monitor physically and electrically coupled to the secondary coil, an efficiency of a coupling between the primary coil and the secondary coil; communicating, by the effectivity monitor, data representative of a magnitude of at least one of the alternating current and the load to a controller; directing, by the controller, a power supply to change a frequency of the driving waveform in response to the data; and maximizing, by the controller, at least one of the alternating current coupled to the secondary coil and the load on the primary coil in response to the directing.
A computer implemented method for determining wind data for a wind farm (310, 500, 600), comprising receiving raw wind data from a remote sensing device (320, 510, 610, 620, 630); determining one or more wind turbines (100, T1-T12) to which the raw wind data is relevant; determining customized wind data for each of the one or more wind turbines (100, T1-T12); and transferring the customized wind data respectively to each of the one or more wind turbines (100, T1-T12); whereby the method further comprises retrieving one or more parameters from the wind turbines (100, T1-T2) of the wind farm (310, 500, 600); in that the step of determining one or more wind turbines (100, T1-T12) to which the raw wind data is relevant comprises determining one or more wind turbines (100, T1-T12) in the wind farm (310, 500, 600) that may be affected by the measurements from the remote sensing device (320, 510, 610, 620, 630), and is based on the one or more parameters retrieved from the wind turbines (100, T1-T12), the raw wind data and positions of turbines (100, T1-T12) in the wind farm (310, 500, 600); and in that the step of determining customized wind data comprises determining a wind speed and/or a wind direction for each of the wind turbines (100, T1-T12) to which the raw wind data is relevant, based on the position of each wind turbine (100, T1-T12).
A glove comprising a glove body configured to cover a hand of a wearer, wherein the glove body comprises a resin layer forming an outer surface of the glove characterized by a vapor perspiration suppressing layer as an innermost layer laminated on one surface of the resin layer to form an inner surface of the glove, the innermost layer is formed over the entire area of one surface of the resin layer, the innermost layer comprises a matrix resin and cellulose particles, at least some of the cellulose particles are at least partially exposed from the inner surface, the innermost layer includes 7 mass parts or more and 45 mass parts or less of the cellulose particles based on 100 mass parts of the matrix resin, and is formed as a non-foamed layer, and the cellulose particles have an average particle size of 10 μm or more and 45 μm or less. the glove body comprises a resin layer forming an outer surface of the glove characterized by a vapor perspiration suppressing layer as an innermost layer laminated on one surface of the resin layer to form an inner surface of the glove, the innermost layer is formed over the entire area of one surface of the resin layer, the innermost layer comprises a matrix resin and cellulose particles, at least some of the cellulose particles are at least partially exposed from the inner surface, the innermost layer includes 7 mass parts or more and 45 mass parts or less of the cellulose particles based on 100 mass parts of the matrix resin, and is formed as a non-foamed layer, and the cellulose particles have an average particle size of 10 μm or more and 45 μm or less.