mhurhangee/ep-ind-claims huggingface dataset:
A printing plate comprising: a body of magnetizable composite material (30, 104), having a plurality of regions (108, 109) along a surface thereof; wherein a first region along the surface of the body of magnetizable composite material (30, 104) is magnetized such that the first region provides a first magnetic field having a predetermined direction and a second region along the surface of the body of magnetizable composite material (30, 104), surrounding the first region, is either unmagnetized or magnetized differently from the first region, so as to provide a contrast in magnetic field there from characterized in that the first region is magnetized using a shaped magnetizing die (30a, 30b, 105, 106) having an outwardly facing surface in a form of an image, logo or indicia such that the first region has the form of the image, logo or indicia. a body of magnetizable composite material (30, 104), having a plurality of regions (108, 109) along a surface thereof; wherein a first region along the surface of the body of magnetizable composite material (30, 104) is magnetized such that the first region provides a first magnetic field having a predetermined direction and a second region along the surface of the body of magnetizable composite material (30, 104), surrounding the first region, is either unmagnetized or magnetized differently from the first region, so as to provide a contrast in magnetic field there from characterized in that the first region is magnetized using a shaped magnetizing die (30a, 30b, 105, 106) having an outwardly facing surface in a form of an image, logo or indicia such that the first region has the form of the image, logo or indicia.
The method of creating a traffic message channel resource in a navigation device and selecting a traffic message channel from the traffic message channel resource, said navigation device being capable of establishing its current location when travelling along a planned route, comprising the steps of: receiving information relating to at least two traffic message channels from at least one traffic message channel provider; determining the signal strength of the at least two traffic message channels at multiple locations of the navigation device; storing information representing the signal strength of the at least two traffic message channels in a memory associated with the navigation device; compiling a traffic message channel resource from the information received from the at least two traffic message channels and by correlating the information stored in the memory; and selecting a traffic message channel based on the traffic message channel resource and a location associated with the navigation device, wherein the location associated with the navigation device comprises the current location and the expected locations along the planned route, such that traffic message channel changes along the planned route are minimized. receiving information relating to at least two traffic message channels from at least one traffic message channel provider; determining the signal strength of the at least two traffic message channels at multiple locations of the navigation device; storing information representing the signal strength of the at least two traffic message channels in a memory associated with the navigation device; compiling a traffic message channel resource from the information received from the at least two traffic message channels and by correlating the information stored in the memory; and selecting a traffic message channel based on the traffic message channel resource and a location associated with the navigation device, wherein the location associated with the navigation device comprises the current location and the expected locations along the planned route, such that traffic message channel changes along the planned route are minimized.
A method for controlling a power of an electromagnetic cooking device comprising: controlling a power supply to deliver a power level to an amplifier; monitoring an output power of at least one RF feed delivered to an enclosed cavity (20, 222); comparing the output power to a maximum power; determining a power difference of the output power compared to a target power; comparing the power difference to a plurality of difference thresholds; and based on the comparison, adjusting the power level by a plurality of power adjustment magnitudes. controlling a power supply to deliver a power level to an amplifier; monitoring an output power of at least one RF feed delivered to an enclosed cavity (20, 222); comparing the output power to a maximum power; determining a power difference of the output power compared to a target power; comparing the power difference to a plurality of difference thresholds; and based on the comparison, adjusting the power level by a plurality of power adjustment magnitudes.
A measuring system for measuring the propagation of a spacing area C between a first portion and a second portion of at least one substrate, the system comprising: - an emitting module for emitting at least two spatially distinct incident beams Fi each illuminating a region of the substrate, said emitting module being arranged so that each of the at least two incident beams Fi is able to pass through the first portion, the spacing area C and meet the second portion, so as to generate each at least a first emergent beam Fe originating from the interface between the first portion and the spacing area C, and at least a second emergent beam Fe originating from the interface between the spacing area C and the second portion, - a detecting module for detecting a light intensity arranged to detect the values of the resulting light intensity at a given point of the interference between the first and second emergent beams Fe, generated by each of the at least two incident beams Fi; - a calculator arranged to determine at least one parameter representative of the conditions of the propagation of the spacing area C from the temporal variations of the light intensity detected by the detecting module. - an emitting module for emitting at least two spatially distinct incident beams Fi each illuminating a region of the substrate, said emitting module being arranged so that each of the at least two incident beams Fi is able to pass through the first portion, the spacing area C and meet the second portion, so as to generate each at least a first emergent beam Fe originating from the interface between the first portion and the spacing area C, and at least a second emergent beam Fe originating from the interface between the spacing area C and the second portion, - a detecting module for detecting a light intensity arranged to detect the values of the resulting light intensity at a given point of the interference between the first and second emergent beams Fe, generated by each of the at least two incident beams Fi; - a calculator arranged to determine at least one parameter representative of the conditions of the propagation of the spacing area C from the temporal variations of the light intensity detected by the detecting module.
A method for determining the wheel load for a wheel of an axle, the method comprising: determining the wheel load for a wheel of a first axle ("first axle wheel") based on the tyre pressure of the first axle wheel and the wheel geometry of the first axle wheel, wherein the wheel geometry of the first axle wheel is determined based on the wheel geometry of a wheel of a second axle, and the wheel speed ratio between the first and second axles; characterised in that the method further comprises the step of providing a characteristic profile for the first axle wheel, the characteristic profile defining the relationship between a wheel load and a wheel geometry for different tyre pressure values, and wherein the step of determining the wheel load for the first axle wheel comprises calculating the wheel load based on the tyre pressure and the wheel geometry of the first axle wheel using the characteristic profile for the first axle wheel. determining the wheel load for a wheel of a first axle ("first axle wheel") based on the tyre pressure of the first axle wheel and the wheel geometry of the first axle wheel, wherein the wheel geometry of the first axle wheel is determined based on the wheel geometry of a wheel of a second axle, and the wheel speed ratio between the first and second axles; characterised in that the method further comprises the step of providing a characteristic profile for the first axle wheel, the characteristic profile defining the relationship between a wheel load and a wheel geometry for different tyre pressure values, and wherein the step of determining the wheel load for the first axle wheel comprises calculating the wheel load based on the tyre pressure and the wheel geometry of the first axle wheel using the characteristic profile for the first axle wheel.
A vacuum pump comprising a first shaft; a first piston connected thereto; a second shaft; a second piston connected thereto; a drive (54, 56) which sets at least one shaft into rotation; and at least one bearing (22, 24, 26, 28) for rotatably supporting a shaft, wherein a release structure is provided between the piston and the shaft and is configured such that a rotation of the piston and the shaft relative to one another is permitted on the occurrence of abnormal forces which are characteristic of a contact of the pistons with one another or with a housing of the pump, characterized in that the release structure comprises a clamping ring and a sleeve-like prolongation.
A method, performed by a terminal, for detecting a state of a networking channel between a smart device and an Internet of Things, IoT, server, wherein the IoT server is a server to which a user can log in, using the terminal, for connecting to the smart device, the method comprising: selecting the smart device, by sending a control instruction from the terminal to the IoT server to realize control of any one smart device and recording the any one smart device as the selected smart device if the control instruction is not accomplished; selecting (204, 314) a control protocol employed by the selected smart device; accessing, using the control protocol, the IoT server via the networking channel employed by the selected smart device, such that the terminal simulates an interaction between the selected smart device and the IoT server; and collecting (204, 318) the state of the networking channel during accessing, and presenting the collected state on a screen of the terminal. selecting the smart device, by sending a control instruction from the terminal to the IoT server to realize control of any one smart device and recording the any one smart device as the selected smart device if the control instruction is not accomplished; selecting (204, 314) a control protocol employed by the selected smart device; accessing, using the control protocol, the IoT server via the networking channel employed by the selected smart device, such that the terminal simulates an interaction between the selected smart device and the IoT server; and collecting (204, 318) the state of the networking channel during accessing, and presenting the collected state on a screen of the terminal.
A fluid ejection device comprising: a printhead die and a fluid feed slot formed in the printhead die; a first chamber and a second chamber; a first printhead-integrated fluid level sensor, PILS, to sense a fluid level of a first chamber in fluid communication with the fluid feed slot, the first PILS to detect an empty fluid level of the first chamber when the fluid ejection device is at a first fluid level state; and a second PILS to sense a fluid level of a second chamber in fluid communication with the fluid feed slot, the second PILS to detect an empty fluid level of the second chamber when the fluid ejection device is at a second fluid level state, different than the first fluid level state; characterized in that the first PILS includes a first sense capacitor plate having a first plate length, and wherein the second PILS includes a second sense capacitor plate having a second plate length different than the first plate length. a printhead die and a fluid feed slot formed in the printhead die; a first chamber and a second chamber; a first printhead-integrated fluid level sensor, PILS, to sense a fluid level of a first chamber in fluid communication with the fluid feed slot, the first PILS to detect an empty fluid level of the first chamber when the fluid ejection device is at a first fluid level state; and a second PILS to sense a fluid level of a second chamber in fluid communication with the fluid feed slot, the second PILS to detect an empty fluid level of the second chamber when the fluid ejection device is at a second fluid level state, different than the first fluid level state; characterized in that the first PILS includes a first sense capacitor plate having a first plate length, and wherein the second PILS includes a second sense capacitor plate having a second plate length different than the first plate length.
A communication method of a base station supporting Hybrid Automatic Repeat reQuest, HARQ, in a communication system utilizing cross-carrier scheduling, the communication method comprising the steps of: scheduling, at a first cell, a second cell; receiving data, transmitted by a terminal, at a subframe of the second cell; determining a subframe, in the first cell, for transmitting a HARQ acknowledgement corresponding to the data, and a subframe, in the first cell, carrying scheduling information of the second cell; determining whether the subframe for transmitting the HARQ acknowledgement and the subframe carrying the scheduling information of the second cell are the same; and if the subframe for transmitting the HARQ acknowledgement and the subframe carrying the scheduling information are not the same, matching the subframe for transmitting the HARQ acknowledgement and the subframe carrying the scheduling information of the second cell to each other. scheduling, at a first cell, a second cell; receiving data, transmitted by a terminal, at a subframe of the second cell; determining a subframe, in the first cell, for transmitting a HARQ acknowledgement corresponding to the data, and a subframe, in the first cell, carrying scheduling information of the second cell; determining whether the subframe for transmitting the HARQ acknowledgement and the subframe carrying the scheduling information of the second cell are the same; and if the subframe for transmitting the HARQ acknowledgement and the subframe carrying the scheduling information are not the same, matching the subframe for transmitting the HARQ acknowledgement and the subframe carrying the scheduling information of the second cell to each other.
A propulsion system for a marine vessel, comprising: a controllable pitch propeller; a propeller shaft connected to the controllable pitch propeller; an electric motor including a motor shaft drivably connected to the propeller shaft via at least a first coupling; a thrust bearing provided separately from the electric motor, the thrust bearing including a support portion and a hollow shaft portion rotatably supported by the support portion, the hollow shaft portion being coupled to the motor shaft via a second coupling; and a fluid distribution unit fluidly connected to the hollow shaft portion and configured to provide a flow of hydraulic fluid to the controllable pitch propeller via the hollow shaft portion, the motor shaft and the propeller shaft, wherein the propeller shaft and the hollow shaft portion are coupled to the motor shaft on opposite ends of the same via the first coupling and the second coupling, respectively, wherein the fluid distribution unit includes a housing portion detachably attached to the support portion of the thrust bearing, and a rotatable portion connected to the hollow shaft portion of the thrust bearing. a controllable pitch propeller; a propeller shaft connected to the controllable pitch propeller; an electric motor including a motor shaft drivably connected to the propeller shaft via at least a first coupling; a thrust bearing provided separately from the electric motor, the thrust bearing including a support portion and a hollow shaft portion rotatably supported by the support portion, the hollow shaft portion being coupled to the motor shaft via a second coupling; and a fluid distribution unit fluidly connected to the hollow shaft portion and configured to provide a flow of hydraulic fluid to the controllable pitch propeller via the hollow shaft portion, the motor shaft and the propeller shaft, wherein the propeller shaft and the hollow shaft portion are coupled to the motor shaft on opposite ends of the same via the first coupling and the second coupling, respectively, wherein the fluid distribution unit includes a housing portion detachably attached to the support portion of the thrust bearing, and a rotatable portion connected to the hollow shaft portion of the thrust bearing.
A method comprising: passing an optically active fluid containing bacterial endospores across a porous hydrophobic collection material having an average pore size greater than an average size of the bacterial endospores and collecting bacterial endospores on the porous hydrophobic collection material via hydrophobic attraction; removing residual optically active fluid from the collected bacterial endospores by flushing the collected bacterial endospores with an optically inert flushing fluid; releasing dipicolinic acid from the collected bacterial endospores; adding a lanthanide source to the dipicolinic acid released from the collected bacterial endospores to form a lanthanide-dipicolinic acid complex; and determining a concentration of the bacterial endospores in the optically active fluid based on an optical response of the lanthanide-dipicolinic acid complex; wherein the porous hydrophobic collection material comprises at least one of polyethylene, polypropylene, polyvinylchloride, polyamide, polystyrene, polytetrafluoroethylene and stainless steel. passing an optically active fluid containing bacterial endospores across a porous hydrophobic collection material having an average pore size greater than an average size of the bacterial endospores and collecting bacterial endospores on the porous hydrophobic collection material via hydrophobic attraction; removing residual optically active fluid from the collected bacterial endospores by flushing the collected bacterial endospores with an optically inert flushing fluid; releasing dipicolinic acid from the collected bacterial endospores; adding a lanthanide source to the dipicolinic acid released from the collected bacterial endospores to form a lanthanide-dipicolinic acid complex; and determining a concentration of the bacterial endospores in the optically active fluid based on an optical response of the lanthanide-dipicolinic acid complex; wherein the porous hydrophobic collection material comprises at least one of polyethylene, polypropylene, polyvinylchloride, polyamide, polystyrene, polytetrafluoroethylene and stainless steel.
Assembly of a plug connector and a circuit board (200; 500; 801), wherein the plug connector (100; 400; 800) is arranged on an edge of the circuit board (200; 500; 801), having contact elements (110, 120; 410, 420, 430; 805) arranged in, below and above the circuit board plane, wherein at least the contact elements (110, 120; 410, 420, 430; 805) arranged below and above the circuit board are bent on their side facing the circuit board (200; 500; 801) in such a way that they lead from both sides of the circuit board (200; 500; 801) into openings in the circuit board (200; 500; 801) adapted to the contact elements (110, 120; 410, 420, 430; 805) and are able to be soldered there, characterised in that a housing of the plug connector receiving the contact elements (110, 120; 410, 420, 430; 805) has diagonally running surfaces (441, 442) for guiding and supporting diagonally running contact elements.
An apparatus comprising: a substrate having a first face and an opposing second face; at least one antenna (136, 138) disposed on the first face of the substrate; a balun disposed on the second face of the substrate; a first microstrip (336, 338) disposed on the first face and coupled to the at least one antenna; a second microstrip disposed on the first face and coupled to a feed line; and a coplanar strip disposed on the second face, wherein the coplanar strip is electrically coupled by a direct physical conduction path to the second microstrip and electromagnetically coupled by inductive or capacitive coupling through a dielectric to the first microstrip. a substrate having a first face and an opposing second face; at least one antenna (136, 138) disposed on the first face of the substrate; a balun disposed on the second face of the substrate; a first microstrip (336, 338) disposed on the first face and coupled to the at least one antenna; a second microstrip disposed on the first face and coupled to a feed line; and a coplanar strip disposed on the second face, wherein the coplanar strip is electrically coupled by a direct physical conduction path to the second microstrip and electromagnetically coupled by inductive or capacitive coupling through a dielectric to the first microstrip.
A writing device comprising: an electromagnetic, EM, tracking module (120, 121, 620, 720, 820, 967) to measure a magnitude and/or phase of a generated EM field and to generate, using measured magnitude and/or phase field values, EM pose data indicative of a relative pose between an EM transmitter and an EM receiver (107, 430); a processor to process the EM pose data for identification of a pose of the writing device (102, 602, 702, 802, 902) based on the relative pose; a sensor to generate a first sensor pose of the writing device based on sensor data; characterized in that the processor is configured to identify the pose of the writing device based on a weighted combination of the relative pose and the first sensor pose. an electromagnetic, EM, tracking module (120, 121, 620, 720, 820, 967) to measure a magnitude and/or phase of a generated EM field and to generate, using measured magnitude and/or phase field values, EM pose data indicative of a relative pose between an EM transmitter and an EM receiver (107, 430); a processor to process the EM pose data for identification of a pose of the writing device (102, 602, 702, 802, 902) based on the relative pose; a sensor to generate a first sensor pose of the writing device based on sensor data; characterized in that the processor is configured to identify the pose of the writing device based on a weighted combination of the relative pose and the first sensor pose.