mhurhangee/ep-ind-claims huggingface dataset:
A lumber drying system comprising: an elongated enclosure having first and second opposite ends connected by side walls and an upper wall, a pair of charge entry portals (112a, 112b) at the first end, and a pair of charge exit portals (114a, 114b) at the second end, the elongated enclosure defining a first chamber and a second chamber and a longitudinal axis that extends through the ends and the chambers (110, 120); at least a first and a second guide member that extend through the chambers (110, 120) from the charge entry portals (112a, 112b) to the charge exit portals (114a, 114b), wherein the first and second guide members define substantially parallel first and second flow paths (122, 126), respectively, on opposite sides of the longitudinal axis; a heater operatively coupled with the second chamber; and one or more transport devices operable to advance a first and a second lumber charge along the first and second flow paths, respectively, in a first direction, on respective movable supports, wherein the chambers (110, 120) include one or more fans positioned to circulate air across the flow paths (122, 126), and at least one of the chambers (110, 120) includes a heating member that is selectively controllable to maintain a desired temperature within said chamber or a desired temperature differential between the chambers (110, 120). an elongated enclosure having first and second opposite ends connected by side walls and an upper wall, a pair of charge entry portals (112a, 112b) at the first end, and a pair of charge exit portals (114a, 114b) at the second end, the elongated enclosure defining a first chamber and a second chamber and a longitudinal axis that extends through the ends and the chambers (110, 120); at least a first and a second guide member that extend through the chambers (110, 120) from the charge entry portals (112a, 112b) to the charge exit portals (114a, 114b), wherein the first and second guide members define substantially parallel first and second flow paths (122, 126), respectively, on opposite sides of the longitudinal axis; a heater operatively coupled with the second chamber; and one or more transport devices operable to advance a first and a second lumber charge along the first and second flow paths, respectively, in a first direction, on respective movable supports, wherein the chambers (110, 120) include one or more fans positioned to circulate air across the flow paths (122, 126), and at least one of the chambers (110, 120) includes a heating member that is selectively controllable to maintain a desired temperature within said chamber or a desired temperature differential between the chambers (110, 120).
A system for enhancing inertial sensing within a vehicle, the system comprising: a processor unit; an inertial measurement unit in communication with the processor unit to generate measured signals for rotational rate and translational acceleration of the vehicle; a remote sensing system in communication with the processor unit to calculate estimated signals for rotational rate and translational acceleration of the vehicle; a crash sensing system; and a stability control system; wherein the processor unit is configured to: i) calculate gain errors or offset errors of the inertial measurement unit by comparing said estimated signals to said measured signals; and ii) generate compensated translational and rotational motion signals by applying gain or offset corrections to the measured signals, said gain or offset corrections being based on said calculated gain or offset errors; wherein both said crash sensing system and said stability control system are configured to receive said compensated signals. a processor unit; an inertial measurement unit in communication with the processor unit to generate measured signals for rotational rate and translational acceleration of the vehicle; a remote sensing system in communication with the processor unit to calculate estimated signals for rotational rate and translational acceleration of the vehicle; a crash sensing system; and a stability control system; wherein the processor unit is configured to: i) calculate gain errors or offset errors of the inertial measurement unit by comparing said estimated signals to said measured signals; and ii) generate compensated translational and rotational motion signals by applying gain or offset corrections to the measured signals, said gain or offset corrections being based on said calculated gain or offset errors; wherein both said crash sensing system and said stability control system are configured to receive said compensated signals.
An apparatus, comprising: a processor arranged to operate in a plurality of thermal modes including at least a first thermal mode having a first thermal limit and a second thermal mode having a second thermal limit different than the first thermal limit; and thermal management logic operative to select a thermal mode based on one or more operating parameters, wherein the first thermal limit comprises a first maximum temperature, Tjmax limit for the processor and the second thermal limit comprises a second Tjmax limit different than the first Tjmax limit, and wherein the thermal management logic is operative to dynamically change from the first thermal mode to the second thermal mode during operation of the processor. a processor arranged to operate in a plurality of thermal modes including at least a first thermal mode having a first thermal limit and a second thermal mode having a second thermal limit different than the first thermal limit; and thermal management logic operative to select a thermal mode based on one or more operating parameters, wherein the first thermal limit comprises a first maximum temperature, Tjmax limit for the processor and the second thermal limit comprises a second Tjmax limit different than the first Tjmax limit, and wherein the thermal management logic is operative to dynamically change from the first thermal mode to the second thermal mode during operation of the processor.
A method for generating prediction based graphical user interface, GUI, screens to improve GUI screen response times, the method comprising the steps: receiving at an endpoint, a view request for a GUI screen, the GUI screen comprising an integrated user interface constructed from of a plurality of connector packages; validating at a predictor, a validity of a GUI transition model, the GUI transition model corresponding to each of the plurality of connector packages, wherein validating the GUI transition model comprises checking a last modified security scope date; building at a behavior model builder, a new GUI transition model, the new GUI transition model comprising a plurality of transition probabilities for each possible transition from the GUI screen, the plurality of transition probabilities depending at least in part on resource attributes available to each of the plurality of connector packages; selecting at the behavior model builder, a likely transition from the plurality of transition probabilities, the likely transition being a transition to a new GUI screen that is most likely to be requested; creating at a navigation module, a navigation tree based at least in part on the likely transition; and returning a response to the endpoint, the response comprising the navigation tree, and further comprising a navigation response for the new GUI screen. receiving at an endpoint, a view request for a GUI screen, the GUI screen comprising an integrated user interface constructed from of a plurality of connector packages; validating at a predictor, a validity of a GUI transition model, the GUI transition model corresponding to each of the plurality of connector packages, wherein validating the GUI transition model comprises checking a last modified security scope date; building at a behavior model builder, a new GUI transition model, the new GUI transition model comprising a plurality of transition probabilities for each possible transition from the GUI screen, the plurality of transition probabilities depending at least in part on resource attributes available to each of the plurality of connector packages; selecting at the behavior model builder, a likely transition from the plurality of transition probabilities, the likely transition being a transition to a new GUI screen that is most likely to be requested; creating at a navigation module, a navigation tree based at least in part on the likely transition; and returning a response to the endpoint, the response comprising the navigation tree, and further comprising a navigation response for the new GUI screen.
A device for transmitting energy comprising: - a wall separating two media; - at least one conducting element passing through said wall, said conducting element comprising an energy conducting material extending in a longitudinal direction (d Long), said conducting element being fixed to said wall and comprising a hole passing through said wall and extending in a direction that is substantially parallel to said longitudinal direction (d Long) on either side of the surfaces of said wall, over respective lengths that are greater than or equal to the largest dimension of a section (Sc) of said conducting element that is considered on said wall, characterised in that the maximum ratio between the surface of said section (Sc) of said conducting element with said hole and the surface of the section (St) of said conducting element without said hole on said wall is greater than or equal to a threshold between 0.85 and 0.95. - a wall separating two media; - at least one conducting element passing through said wall, said conducting element comprising an energy conducting material extending in a longitudinal direction (d Long), said conducting element being fixed to said wall and comprising a hole passing through said wall and extending in a direction that is substantially parallel to said longitudinal direction (d Long) on either side of the surfaces of said wall, over respective lengths that are greater than or equal to the largest dimension of a section (Sc) of said conducting element that is considered on said wall, characterised in that the maximum ratio between the surface of said section (Sc) of said conducting element with said hole and the surface of the section (St) of said conducting element without said hole on said wall is greater than or equal to a threshold between 0.85 and 0.95.
A method for routing callers to agents in a call-center routing environment, the method comprising the acts of: comparing caller data for each caller of a set of callers on hold to agent data for each agent of a set of available agents and past-agent caller output data via a pattern matching algorithm to determine two or more output variables for multiple agent-caller pairs; determining a Z-score for each of the two or more output variables for each of the agent-caller pairs; determining a linear combination of the two or more Z-scores for each of the agent-caller pairs; and routing a caller of the set of callers on hold to an agent of the set of available agents based on the highest linear combination of Z-scores to maximize the linear combination of Z-scores based on the available caller-agent pairs. comparing caller data for each caller of a set of callers on hold to agent data for each agent of a set of available agents and past-agent caller output data via a pattern matching algorithm to determine two or more output variables for multiple agent-caller pairs; determining a Z-score for each of the two or more output variables for each of the agent-caller pairs; determining a linear combination of the two or more Z-scores for each of the agent-caller pairs; and routing a caller of the set of callers on hold to an agent of the set of available agents based on the highest linear combination of Z-scores to maximize the linear combination of Z-scores based on the available caller-agent pairs.
A MEMS loudspeaker for generating sound waves within the audible wavelength spectrum with a circuit board, a membrane that can be deflected along a z-axis relative to the circuit board, at least one piezoelectric actuator to deflect the membrane, an electronic control unit fully embedded in the circuit board for controlling the actuators and at least one position sensor, with which the control unit can be provided with a sensor signal dependent on the membrane deflection, wherein the control unit is executed to control the actuator in a regulated way based on the sensor signal characterized in that the actuator and the position sensor, are connected to the membrane 2 via a stroke structure of the MEMS loudspeaker movable in the z-axis and that the actuator is executed as cantilever arm and that the position sensor is at least partially integrated into the cantilever arm. with a circuit board, a membrane that can be deflected along a z-axis relative to the circuit board, at least one piezoelectric actuator to deflect the membrane, an electronic control unit fully embedded in the circuit board for controlling the actuators and at least one position sensor, with which the control unit can be provided with a sensor signal dependent on the membrane deflection, wherein the control unit is executed to control the actuator in a regulated way based on the sensor signal characterized in that the actuator and the position sensor, are connected to the membrane 2 via a stroke structure of the MEMS loudspeaker movable in the z-axis and that the actuator is executed as cantilever arm and that the position sensor is at least partially integrated into the cantilever arm.
An endoscope apparatus comprising: a rigid scope portion having an imaging window at a front end thereof; a camera unit portion which is mounted to a root end of said rigid scope portion and has an image pickup portion which can obtain an image through said imaging window; characterised in that the endoscope apparatus further comprises a vibration generating device which is mounted to said camera unit portion and is configured to provide vibration to said rigid scope portion through said camera unit portion to defog said imaging window. a rigid scope portion having an imaging window at a front end thereof; a camera unit portion which is mounted to a root end of said rigid scope portion and has an image pickup portion which can obtain an image through said imaging window; characterised in that the endoscope apparatus further comprises a vibration generating device which is mounted to said camera unit portion and is configured to provide vibration to said rigid scope portion through said camera unit portion to defog said imaging window.
A non-transitory storage medium storing instructions readable and executable by a computer to perform an image reconstruction method comprising: performing iterative reconstruction of imaging data to generate a sequence of update images terminating at a reconstructed image, wherein the imaging data comprises one of positron emission tomography imaging data, single photon emission computed tomography (SPECT) imaging data, and transmission computed tomography imaging data; and during the iterative reconstruction and before the iterative reconstruction terminates at the reconstructed image, adjusting at least one of an update image produced by the iterative reconstruction and a parameter of the iterative reconstruction using an adjustment process (30, 36, 38, 40) separate from the iterative reconstruction; wherein the iterative reconstruction includes an edge-preserving regularization prior comprising a relative difference prior having an edge preservation threshold γ, which relative difference prior is proportional to: f i − f j 2 f i + f j + γ f i − f j where f i and f j are image pixels or voxels; and wherein the adjustment process comprises linearly decreasing the edge preservation threshold γ with increasing number of iterations of the iterative reconstruction. performing iterative reconstruction of imaging data to generate a sequence of update images terminating at a reconstructed image, wherein the imaging data comprises one of positron emission tomography imaging data, single photon emission computed tomography (SPECT) imaging data, and transmission computed tomography imaging data; and during the iterative reconstruction and before the iterative reconstruction terminates at the reconstructed image, adjusting at least one of an update image produced by the iterative reconstruction and a parameter of the iterative reconstruction using an adjustment process (30, 36, 38, 40) separate from the iterative reconstruction; wherein the iterative reconstruction includes an edge-preserving regularization prior comprising a relative difference prior having an edge preservation threshold γ, which relative difference prior is proportional to: f i − f j 2 f i + f j + γ f i − f j where f i and f j are image pixels or voxels; and wherein the adjustment process comprises linearly decreasing the edge preservation threshold γ with increasing number of iterations of the iterative reconstruction. where f i and f j are image pixels or voxels; and wherein the adjustment process comprises linearly decreasing the edge preservation threshold γ with increasing number of iterations of the iterative reconstruction.
A clock signal generating circuit configured to generate a clock signal, the clock signal generating circuit comprising: a clock signal generator configured to generate a reference clock signal; and a plurality of dividers (102 to 104) to which the reference clock signal is to be input, wherein a division ratio (M1') of at least one of the plurality of dividers (102 to 104) varies based on division ratio data (DATA M1') that defines the division ratio (M1') of the at least one of the plurality of dividers (102 to 104), and wherein the division ratio data (DATA M1') represents a value that fluctuates around reference division ratio data (DATA M1) with respect to time; wherein: the division ratio data (DATA M1') is formed of the reference division ratio data (DATA M1) and frequency modulation data (FMDATA1) that varies with respect to time; an average value of the frequency modulation data (FMDATA1) with respect to time is zero; the at least one of the plurality of dividers (102 to 104) comprises an adder and a variable divider; and the adder is configured to add the frequency modulation data (FMDATA1) being digital data having a sign of addition or subtraction and the reference division ratio data (DATA M1) being digital data, and to output the division ratio data (DATA M1') as a result of the addition to the variable divider to output the clock signal. a clock signal generator configured to generate a reference clock signal; and a plurality of dividers (102 to 104) to which the reference clock signal is to be input, wherein a division ratio (M1') of at least one of the plurality of dividers (102 to 104) varies based on division ratio data (DATA M1') that defines the division ratio (M1') of the at least one of the plurality of dividers (102 to 104), and wherein the division ratio data (DATA M1') represents a value that fluctuates around reference division ratio data (DATA M1) with respect to time; wherein: the division ratio data (DATA M1') is formed of the reference division ratio data (DATA M1) and frequency modulation data (FMDATA1) that varies with respect to time; an average value of the frequency modulation data (FMDATA1) with respect to time is zero; the at least one of the plurality of dividers (102 to 104) comprises an adder and a variable divider; and the adder is configured to add the frequency modulation data (FMDATA1) being digital data having a sign of addition or subtraction and the reference division ratio data (DATA M1) being digital data, and to output the division ratio data (DATA M1') as a result of the addition to the variable divider to output the clock signal.
Method of monitoring the operating state of a turbomachine pressure relief valve, the turbomachine comprising a oil circuit, at least one oil pressure sensor in the oil circuit, a oil temperature sensor in the oil circuit, said pressure relief valve being configured to limit the maximum oil pressures in the oil circuit and to open if the temperature of the oil is below a threshold oil temperature, and the method comprising the following steps: - determining an indicator for opening or closing the excess pressure valve on the basis of the temporal evolution of the oil pressure; - determining an operating state of the valve as a function of an oil temperature measured by the oil sensor, an oil threshold temperature and of the determined opening or closing indicator of the pressure relief valve. - determining an indicator for opening or closing the excess pressure valve on the basis of the temporal evolution of the oil pressure; - determining an operating state of the valve as a function of an oil temperature measured by the oil sensor, an oil threshold temperature and of the determined opening or closing indicator of the pressure relief valve.
Coupling unit that is mountable on the rear end of a vehicle body and comprises a carrier unit which, for its part, is mountable on the vehicle body hidden by a bumper unit and which comprises a coupling arm held by the carrier unit for coupling a trailer or a rear load carrier, wherein at least one force detecting region is provided on sections of the coupling unit that are mechanically loaded by the coupled trailer or the coupled rear load carrier in which a sensor associated with this force detecting region detects the mechanical load acting on this force detecting region by means of the magneto-elastic effect, wherein the at least one force detecting region is provided on the coupling arm, wherein the coupling arm comprises a carrying structure which is connected by a first end region to the carrier unit and carries a coupling element at a second end region, wherein the carrying structure comprises a bracing structure which connects the first end region to the second end region and supports the second end region relative to the first end region which, in the working position of the coupling arm, extends in a geometrical central planar surface which itself extends in parallel with a central axis of the coupling element and which comprises longitudinal struts (64, 66) that each run from one end region to the other end region and between which there extends at least one connecting element (82, 84, 86, 88, 212) that runs transversely relative to the longitudinal struts (64, 66) and wherein at least one free space (92, 94, 96, 98, 112, 114, 116) extending transversely relative to the geometrical central planar surface lies between the longitudinal struts (64, 66).
A method for producing a milk product, said method comprising: a) providing a milk substrate; b) treating the milk substrate with an enzyme having N-linked glycosidase activity; and c) optionally fermenting the milk substrate with a microorganism, such as a lactic acid bacterium. a) providing a milk substrate; b) treating the milk substrate with an enzyme having N-linked glycosidase activity; and c) optionally fermenting the milk substrate with a microorganism, such as a lactic acid bacterium.
A device for production of water with reduced heavy water molecule content, including a distillation column operating under vacuum, an evaporator and a condenser, characterized in that the device is provided with a heat pump, the distillation column consists of two coaxial tubes of diameter D1 and D2 (D1> D2) and a layer of the dumped packing placed in the annular gap between them, at that (D1-D2)/2 <300mm, and the liquid distributor at the top of the column has at least 800 irrigation points per square meter of the cross-sectional area of the packing part of the column.