mhurhangee/ep-ind-claims huggingface dataset:
A building automation system with at least one door communication system having at least one door station, wherein the building automation system comprises: - at least one functional component performing a technical visitor interaction function, - a data processing and control device comprising at least one electronic component accommodated in the door communication system, wherein the data processing and control device and the functional component are in a data exchange relating to the visitor interaction function, - a temperature detection device for medium or direct detection of an actual temperature of the at least one electronic component, wherein the door communication system has a memory device in which at least one temperature threshold value is stored, wherein a reduction in the functional scope and/or functional quality of the technical visitor interaction function is triggered when the measured actual temperature exceeds the temperature threshold. - at least one functional component performing a technical visitor interaction function, - a data processing and control device comprising at least one electronic component accommodated in the door communication system, wherein the data processing and control device and the functional component are in a data exchange relating to the visitor interaction function, - a temperature detection device for medium or direct detection of an actual temperature of the at least one electronic component, wherein the door communication system has a memory device in which at least one temperature threshold value is stored, wherein a reduction in the functional scope and/or functional quality of the technical visitor interaction function is triggered when the measured actual temperature exceeds the temperature threshold.
A computer-implemented method, comprising: presenting, by a computing system, visual content on a display device that is covered with a transparent material that defines a depression (110, 210) in a planar surface of the transparent material; detecting, by the computing system, that user input has contacted or is about to contact the transparent material at a location of the depression in the planar surface of the transparent material; vibrating, by the computing system in response to the computing system detecting that the user input has contacted or is about to contact the transparent material at the location of the depression, the transparent material at the location of the depression using one or more transducers, wherein the computing system vibrating the transparent material at the location of the depression causes an effect in which the depression in the transparent material is perceived by a user providing the user input to have substantially no depth with respect to the planar surface of the transparent material, in distinction to the depression providing a perceivable depth when user input contacts the depression in the transparent material and the computing system does not vibrate the transparent material at the location of the depression; and ceasing, by the computing system, the vibrating of the transparent material at the location of the depression in response to the computing system determining that criteria for ceasing the vibrating has been satisfied. presenting, by a computing system, visual content on a display device that is covered with a transparent material that defines a depression (110, 210) in a planar surface of the transparent material; detecting, by the computing system, that user input has contacted or is about to contact the transparent material at a location of the depression in the planar surface of the transparent material; vibrating, by the computing system in response to the computing system detecting that the user input has contacted or is about to contact the transparent material at the location of the depression, the transparent material at the location of the depression using one or more transducers, wherein the computing system vibrating the transparent material at the location of the depression causes an effect in which the depression in the transparent material is perceived by a user providing the user input to have substantially no depth with respect to the planar surface of the transparent material, in distinction to the depression providing a perceivable depth when user input contacts the depression in the transparent material and the computing system does not vibrate the transparent material at the location of the depression; and ceasing, by the computing system, the vibrating of the transparent material at the location of the depression in response to the computing system determining that criteria for ceasing the vibrating has been satisfied.
A dishwasher comprising a washing process chamber to place various kitchenware and cooking equipment to be washed and a spraying system spraying water to effect washing, said dishwasher further comprising a dishwasher rack in the form of a wireframe structure a dishwasher rack unit is removably placeable on the dishwasher rack, said dishwasher rack unit having a main frame, at least one base section and at least one receiving section and the dishwasher rack unit is placeable on the dishwasher rack so as to fit on a multitude of tines of the dishwasher rack, being disposed in rows from front to back on the bottom thereof and the base section is placeable on the dishwasher rack to be receiving bowl sections of glasses while the receiving section of the dishwasher rack unit is configured to receive stems of glasses and the base and receiving sections (6, 7) are connected to the main frame of the dishwasher rack unit at opposing ends of the main frame and said receiving section comprises a plurality of openings supporting stems of glasses in an at least partially enclosing manner and said openings are arranged such that while a first set of openings are aligned along a first direction, at least a second set of openings are aligned along a second direction other than the first direction characterized in that the openings are arranged such that three neighboring openings are configured to form a C-shape opening to receive larger stems, while the middle opening faces the open side of the C-shape, the other two openings face each other.
A method for wireless communications, comprising: receiving (410; 1405) a first downlink control information scheduling a first downlink transmission; receiving (415; 1410) a second downlink control information scheduling a second downlink transmission, wherein the second downlink transmission is scheduled to start after the first downlink transmission; determining (420; 1415) that a first feedback message responsive to the first downlink transmission is scheduled to start no earlier than a second feedback message responsive to the second downlink transmission, the first feedback message being associated with a first cell and the second feedback message being associated with a second cell; determining (425; 1420), based at least in part on the first feedback message being scheduled to start no earlier than the second feedback message, that the second cell has a second priority that is greater than a first priority of the first cell; and transmitting (430; 1425) the second feedback message based at least in part on determining that the second cell has the second priority, wherein the second feedback message is prioritized over the first feedback message based at least in part on the second priority. receiving (410; 1405) a first downlink control information scheduling a first downlink transmission; receiving (415; 1410) a second downlink control information scheduling a second downlink transmission, wherein the second downlink transmission is scheduled to start after the first downlink transmission; determining (420; 1415) that a first feedback message responsive to the first downlink transmission is scheduled to start no earlier than a second feedback message responsive to the second downlink transmission, the first feedback message being associated with a first cell and the second feedback message being associated with a second cell; determining (425; 1420), based at least in part on the first feedback message being scheduled to start no earlier than the second feedback message, that the second cell has a second priority that is greater than a first priority of the first cell; and transmitting (430; 1425) the second feedback message based at least in part on determining that the second cell has the second priority, wherein the second feedback message is prioritized over the first feedback message based at least in part on the second priority.
A system for improving vision of a subject, comprising: a pulsed laser system configured to apply a plurality of laser pulses to an intraocular lens implanted in an eye of a subject and to change the refractive index of at least one selected area of the IOL by refractive index writing, wherein the IOL has an optical profile induced by refractive index writing; a control system coupled to the pulsed laser system and configured to control the pulsed laser system to apply the plurality of laser pulses according to calculated pattern, and characterised in that the control system is further configured to perform functions that comprise: determining the direction of a plurality of rays associated with a vergence of a wavefront; determining the ray direction and ray height of a plurality of rays entering a first location of the optical profile; determining the refractive index of the optical profile at the first location; based on the determined ray direction, ray height, and refractive index at the first location, and by refractive index writing using the pulsed laser system, specifying the volume and shape of each voxel to match the wavefront through the direction of propagation. a pulsed laser system configured to apply a plurality of laser pulses to an intraocular lens implanted in an eye of a subject and to change the refractive index of at least one selected area of the IOL by refractive index writing, wherein the IOL has an optical profile induced by refractive index writing; a control system coupled to the pulsed laser system and configured to control the pulsed laser system to apply the plurality of laser pulses according to calculated pattern, and characterised in that the control system is further configured to perform functions that comprise: determining the direction of a plurality of rays associated with a vergence of a wavefront; determining the ray direction and ray height of a plurality of rays entering a first location of the optical profile; determining the refractive index of the optical profile at the first location; based on the determined ray direction, ray height, and refractive index at the first location, and by refractive index writing using the pulsed laser system, specifying the volume and shape of each voxel to match the wavefront through the direction of propagation. determining the direction of a plurality of rays associated with a vergence of a wavefront; determining the ray direction and ray height of a plurality of rays entering a first location of the optical profile; determining the refractive index of the optical profile at the first location; based on the determined ray direction, ray height, and refractive index at the first location, and by refractive index writing using the pulsed laser system, specifying the volume and shape of each voxel to match the wavefront through the direction of propagation.
A lighting system, the system comprising: at least one luminaire arranged for illuminating a thoroughfare; at least one sensor (11,12,13) arranged for detecting that a fallen object may be at least partially blocking said thoroughfare; a traffic flow monitor (11,12,13) arranged for monitoring traffic flow along said thoroughfare; and a controller system (6,20) arranged for determining that a fallen object is at least partially blocking said thoroughfare in accordance with the at least one sensor (11,12,13) detecting a fallen object at least partially blocking said thoroughfare and for controlling light output by the luminaire; r the controller system being arranged for determining that traffic is flowing through said thoroughfare on the basis of the signal received from the traffic flow monitor; the controller system (6,20) being arranged to control the light output by the luminaire to be of a first pattern in accordance with a determination that a fallen object is at least partially blocking said thoroughfare and the controller system (6,20) is further arranged to control the light output by the luminaire to be of a second pattern after the first pattern being in use, the second pattern being different from the first pattern, in accordance with the determination that traffic is flowing along said thoroughfare. at least one luminaire arranged for illuminating a thoroughfare; at least one sensor (11,12,13) arranged for detecting that a fallen object may be at least partially blocking said thoroughfare; a traffic flow monitor (11,12,13) arranged for monitoring traffic flow along said thoroughfare; and a controller system (6,20) arranged for determining that a fallen object is at least partially blocking said thoroughfare in accordance with the at least one sensor (11,12,13) detecting a fallen object at least partially blocking said thoroughfare and for controlling light output by the luminaire; r the controller system being arranged for determining that traffic is flowing through said thoroughfare on the basis of the signal received from the traffic flow monitor; the controller system (6,20) being arranged to control the light output by the luminaire to be of a first pattern in accordance with a determination that a fallen object is at least partially blocking said thoroughfare and the controller system (6,20) is further arranged to control the light output by the luminaire to be of a second pattern after the first pattern being in use, the second pattern being different from the first pattern, in accordance with the determination that traffic is flowing along said thoroughfare.
A journal bearing for a shaft comprising: a joint-less, continuous cylindrical body comprising an inner surface defining a bore to receive the shaft, and an outer surface, wherein a cross-section perpendicular to a bore axis of the joint-less, continuous cylindrical body comprises four angular sectors (232, 234, 236, 238) comprising a load bearing sector, two heat dissipation sectors (234, 236), and a lubricant reservoir sector, each extending along a length of the joint-less, continuous cylindrical body, wherein the load bearing sector is located along a radial direction of force of the shaft, the lubricant reservoir sector is located opposite to the load bearing sector, and the two heat dissipation sectors (234, 236) neighbor the load bearing sector and the lubricant reservoir sector in both sides, wherein the load bearing sector and the lubricant reservoir sector comprise at least one of a different microstructure, or a different composition than each of neighboring heat dissipation sectors (234, 236), and wherein an angular span of the load bearing sector is in a range from 15° to 40°, a combined angular span of the two heat dissipation sectors (234, 236) is in a range from 25° to 180°, and an angular span of the lubricant reservoir sector is greater than 90°. a joint-less, continuous cylindrical body comprising an inner surface defining a bore to receive the shaft, and an outer surface, wherein a cross-section perpendicular to a bore axis of the joint-less, continuous cylindrical body comprises four angular sectors (232, 234, 236, 238) comprising a load bearing sector, two heat dissipation sectors (234, 236), and a lubricant reservoir sector, each extending along a length of the joint-less, continuous cylindrical body, wherein the load bearing sector is located along a radial direction of force of the shaft, the lubricant reservoir sector is located opposite to the load bearing sector, and the two heat dissipation sectors (234, 236) neighbor the load bearing sector and the lubricant reservoir sector in both sides, wherein the load bearing sector and the lubricant reservoir sector comprise at least one of a different microstructure, or a different composition than each of neighboring heat dissipation sectors (234, 236), and wherein an angular span of the load bearing sector is in a range from 15° to 40°, a combined angular span of the two heat dissipation sectors (234, 236) is in a range from 25° to 180°, and an angular span of the lubricant reservoir sector is greater than 90°.
An engine measurement device for measuring engine performance by bench testing that is performed by an automobile combustion engine and a load connected to said engine, said engine measurement device characterized in said engine measurement device comprising: an engine control unit for controlling a fuel injection timing of said engine; a detector for measuring time series data that include at least a speed of said engine and an axial torque (T d) detected between said engine and a load in a transient state, in a state in which said engine is combustion-driven by the control of said engine control unit; a torque computation unit for computing an engine torque (T e) that is the actual drive force of said engine on the basis of the time series data of said engine speed and axial torque (T d); and a model computation unit for modeling said engine torque (T e) as a function of said engine speed, said fuel injection timing, and other engine parameters; wherein a fuel torque (T f) generated by the combustion driving of said engine, and a mechanical loss torque (T m) that is the difference between said engine torque and said fuel torque are calculated from said model, wherein the fuel torque (T f) is considered to be dependent on the fuel injection timing and the mechanical loss torque (T m) is considered to be dependent on the engine speed. an engine control unit for controlling a fuel injection timing of said engine; a detector for measuring time series data that include at least a speed of said engine and an axial torque (T d) detected between said engine and a load in a transient state, in a state in which said engine is combustion-driven by the control of said engine control unit; a torque computation unit for computing an engine torque (T e) that is the actual drive force of said engine on the basis of the time series data of said engine speed and axial torque (T d); and a model computation unit for modeling said engine torque (T e) as a function of said engine speed, said fuel injection timing, and other engine parameters; wherein a fuel torque (T f) generated by the combustion driving of said engine, and a mechanical loss torque (T m) that is the difference between said engine torque and said fuel torque are calculated from said model, wherein the fuel torque (T f) is considered to be dependent on the fuel injection timing and the mechanical loss torque (T m) is considered to be dependent on the engine speed.
System for the loading/unloading of sheets, some whereof also being of metal, serving a cutting centre, of the type comprising a pair of rails (1, 2), supported at a preset height above a feeding tray of the cutting centre, whereon at least one Cartesian robotized hand is movably mounted, which is capable of moving along horizontal axes X and Y as well as along a vertical axis Z, which are mutually orthogonal, characterised in that it comprises at least two bridge cranes (3, 4) sliding on said rails (1, 2) each supporting at least one pair of robotized hands, and in that said robotized hands have an electro-magnetic pick-up head which may be coupled with a suction-cup device.
A method for interworking between radio access technologies in a communication network, said method being performed by a core network serving node apparatus in a first core network, said method comprising: receiving a connectivity request from a user equipment via a wireless access network utilizing a first radio access technology, RAT, the first RAT providing connectivity to one or more data networks via the first core network based on at least one or more Data Network Session, DNS, connections, each including one or more data flows; processing the connectivity request; and providing the user equipment with an indication of whether the first core network supports an inter-RAT handover, upon successfully establishing connectivity including a DNS connection to the user equipment, wherein the inter-RAT handover is between the first RAT and a second RAT, the second RAT providing connectivity to the one or more data networks via a second core network based on one or more Packet Data Network, PDN, connections, wherein DNS connections and PDN connections are different in that they use different communication standards. receiving a connectivity request from a user equipment via a wireless access network utilizing a first radio access technology, RAT, the first RAT providing connectivity to one or more data networks via the first core network based on at least one or more Data Network Session, DNS, connections, each including one or more data flows; processing the connectivity request; and providing the user equipment with an indication of whether the first core network supports an inter-RAT handover, upon successfully establishing connectivity including a DNS connection to the user equipment, wherein the inter-RAT handover is between the first RAT and a second RAT, the second RAT providing connectivity to the one or more data networks via a second core network based on one or more Packet Data Network, PDN, connections, wherein DNS connections and PDN connections are different in that they use different communication standards.
System for limiting power from a power source for use in transport systems, which limiting system comprises said power source and more power supply appliances as AC/DC transformer or inverter or a frequency converter fitted between the power source and a load to be supplied, respectively, wherein the power source is adapted to generate a status signal on the basis of its own status determination means, which status signal refers to the loading state of the power source, and wherein a data transfer channel is arranged between the power source and the power supply appliance for transferring the status signal from the power source to the power supply appliance, respectively, and wherein each power supply appliance comprises an input for the status signal of the power source, characterised in that the power supply appliance is fitted to limit its input power gradually on the basis of the status signal of the aforementioned power source.
A draining valve for draining the condensate of a condensation boiler, the valve extending along an axis and comprising a body valve; a condensate feeding inlet and a condensate draining outlet on opposite sides of the body valve along the axis; a floating shutter housed inside the body valve and comprising a first face facing the feeding inlet and a second face facing the draining outlet; the floating shutter being selectively movable relative to the body valve along the axis between: - a first raised position in which the floating shutter is raised by the floating force generated by the condensate against the second face and opens a main draining channel; and - a second lowered position in which the floating shutter is lowered in abutment against the draining outlet for closing the main draining channel; characterised in that the floating shutter is also configured for selectively opening a secondary draining channel when in the second lowered position a force higher than a predetermined value acts on the first face. - a first raised position in which the floating shutter is raised by the floating force generated by the condensate against the second face and opens a main draining channel; and - a second lowered position in which the floating shutter is lowered in abutment against the draining outlet for closing the main draining channel;