mhurhangee/ep-ind-claims huggingface dataset:
An article comprising: a substrate having opposing first and second surfaces; and a conductor micropattern disposed on the first surface of the substrate, the conductor micropattern comprising a plurality of traces defining a plurality of cells, wherein the conductor micropattern has an open area fraction greater than 80% and a uniform distribution of trace orientation; and wherein each of the traces is non-linear and has a trace width from 0.5 to 10 micrometer. a substrate having opposing first and second surfaces; and a conductor micropattern disposed on the first surface of the substrate, the conductor micropattern comprising a plurality of traces defining a plurality of cells, wherein the conductor micropattern has an open area fraction greater than 80% and a uniform distribution of trace orientation; and wherein each of the traces is non-linear and has a trace width from 0.5 to 10 micrometer.
A moldable resin for use in a molding process to form a molded part at least partially therefrom, the moldable resin comprising: a base resin; a plurality of shape memory alloy particles interspersed in said base resin; and wherein said SMA particles are suspended in said base resin and wherein said SMA particles comprise a mixture of SMA particles in their austenitic phase and SMA particles in their martensitic phase. a base resin; a plurality of shape memory alloy particles interspersed in said base resin; and wherein said SMA particles are suspended in said base resin and wherein said SMA particles comprise a mixture of SMA particles in their austenitic phase and SMA particles in their martensitic phase.
A workpiece, comprising a surface made of a metal or of a metal alloy, or a metal oxide layer or metal alloy oxide layer on the surface of the metal or on the metal alloy, characterized in that the surface has a chemically modified structure that can be produced by scanning once or several times by a pulsed laser beam the entire surface of the metal or the metal alloy, or the metal oxide layer or the metal alloy oxide layer on the metal or on the metal alloy, which surface or layer is accessible to laser radiation and on which the structures are to be generated, wherein the scanning is performed in such a way that adjacent flecks of light of the laser beam adjoin each other without an interspace in between or overlap, wherein the following conditions are satisfied 0,07 ≤ ε ≤ 2300 with ε = P P 2 ⋅ P m ⋅ f ⋅ α ⋅ t ⋅ κ d 2 ⋅ ν ⋅ T V ⋅ c P ⋅ λ ⋅ 10 3 wherein: P p: Pulse peak power of the exiting laser radiation [kW] P m: Average power of the exiting laser radiation t: Pulse length of the laser pulses [ns], wherein t is approximately 0,1 ns to approximately 2000 ns, f: Repetition rate of the laser pulses [kHz] v: Scanning speed on the workpiece surface [mm/s] d: Diameter of the laser beam on the workpiece [μm] α: Absorption of the laser radiation of the irradiated material [%] under standard conditions λ: Wavelength of the laser radiation [nm], wherein λ = approximately 100 nm to approximately 11000 nm T v: Boiling point of the material under standard pressure c p: Specific heat capacity [J/kg·K] under standard conditions κ: Specific thermal conductivity [W/m·K] under standard conditions, in such a manner that on surface open-pored, ragged and/or fractal-like Nanostructures, namely open-pored hill and valley structures, open-pored undercut structures and cauliflower-licke or nodule-like structures are generated, the dimensions of which are less than 1 μm, wherein the length of the valleys of the hill and valley structures is more than 1 μm, wherein at least approximately 80 % of the elevations have a size in the range of 10 nm to 200 nm, wherein at least approximately 80 % of the spaces between have a width < 1 μm, wherein an atmosphere, in which the method is carried out, is a gas or gas mixture that reacts with the surface of the metal or of the metal alloy, or the metal oxide layer or the metal alloy oxide layer on the metal or on the metal alloy. P p: Pulse peak power of the exiting laser radiation [kW] P m: Average power of the exiting laser radiation t: Pulse length of the laser pulses [ns], wherein t is approximately 0,1 ns to approximately 2000 ns, f: Repetition rate of the laser pulses [kHz] v: Scanning speed on the workpiece surface [mm/s] d: Diameter of the laser beam on the workpiece [μm] α: Absorption of the laser radiation of the irradiated material [%] under standard conditions λ: Wavelength of the laser radiation [nm], wherein λ = approximately 100 nm to approximately 11000 nm T v: Boiling point of the material under standard pressure c p: Specific heat capacity [J/kg·K] under standard conditions κ: Specific thermal conductivity [W/m·K] under standard conditions,
Method for predicting pressure oscillations in a vehicle tyre, wherein the vehicle tyre is rotatably mounted on a test bench rim via a wheel bearing, wherein the interior of the vehicle tyre is pressurized by means of a fluid, wherein a wheel load is applied to the vehicle tyre, wherein the vehicle tyre is accelerated to a final speed according to a predefinable speed ramp, wherein the fluid experiences an oscillation excitation in accordance with a tyre speed, and wherein the fluid reacts to the oscillation excitation with a pressure oscillation, wherein a force acting on the wheel bearing from the vehicle tyre on account of the pressure oscillation is continuously captured, and a data set describing the force against the tyre speed and against a frequency is generated by subjecting a time signal of the speed ramp to a Fourier transform, wherein the time signal is a change in the captured tyre force over time while running through the speed ramp, and a reference data set is generated in a similar manner using a vehicle rim instead of the test bench rim.
A gas turbine airfoil comprising: a root section; a separate extension section attached to the root section; wherein the extension section includes the airfoil tip; an aerodynamic surface, the airfoil characterised in that the aerodynamic surface extends to both the root section and the extension section; and a joint is disposed between the root section and the extension section, the joint including a mechanical interlock; wherein the mechanical interlock comprises a protrusion disposed upon one of the root section and the extension section; the mechanical interlock further comprises a recess disposed within the other of the root section and the extension section. a root section; a separate extension section attached to the root section;
A method performed by a radio network node, the method comprising: determining a time division duplex, TDD, configuration, wherein the TDD configuration comprises one or more subframes preconfigured as downlink subframes, one or more subframes preconfigured as uplink subframes, and one or more flexible subframes each preconfigured to be dynamically allocated either as an uplink subframe or as a downlink subframe; determining for each flexible subframe, an allocation priority or allocation probability of using the flexible subframe as an uplink subframe or as a downlink subframe; and allocating the one or more flexible subframes or one or more resource blocks in the flexible subframes, which are assigned allocation priority or allocation probability above a pre-defined threshold, to at least one user equipment, UE, experiencing interference above a predefined interference threshold or experiencing signal quality below a predefined signal quality threshold. determining a time division duplex, TDD, configuration, wherein the TDD configuration comprises one or more subframes preconfigured as downlink subframes, one or more subframes preconfigured as uplink subframes, and one or more flexible subframes each preconfigured to be dynamically allocated either as an uplink subframe or as a downlink subframe; determining for each flexible subframe, an allocation priority or allocation probability of using the flexible subframe as an uplink subframe or as a downlink subframe; and allocating the one or more flexible subframes or one or more resource blocks in the flexible subframes, which are assigned allocation priority or allocation probability above a pre-defined threshold, to at least one user equipment, UE, experiencing interference above a predefined interference threshold or experiencing signal quality below a predefined signal quality threshold.
Hearing device comprising: - a single-piece thermoformed hull with an open first end and a second end provided with at least one opening; - an electronics module comprising a microphone in communication with a sound inlet, a battery, and a loudspeaker in communication with a sound outlet; wherein the electronics module is disposed in the hull with the sound outlet in communication with the opening, wherein the entire electronics module with the exception of at least part of the sound inlet and at least part of the sound outlet is encapsulated into the hull by an adhesive, and wherein the battery is hardwired to the electronics module. - a single-piece thermoformed hull with an open first end and a second end provided with at least one opening; - an electronics module comprising a microphone in communication with a sound inlet, a battery, and a loudspeaker in communication with a sound outlet;
A safety razor comprising: a handle and a cartridge selectively detachable from the handle, the cartridge comprising at least one blade with a sharp cutting edge and an expected shaving utility; a connecting structure coupled to the handle and configured to attach or detach the cartridge from the handle in response to an action performed by a user; a detector within the razor, said detector comprising an actuator coupled to the connecting structure, the safety razor being characterized in that the detector further comprises a sensor configured to generate a signal, wherein the actuator is configured to apply an action on the sensor during the action performed by a user and the sensor is configured to generate the signal in response to the action. a handle and a cartridge selectively detachable from the handle, the cartridge comprising at least one blade with a sharp cutting edge and an expected shaving utility; a connecting structure coupled to the handle and configured to attach or detach the cartridge from the handle in response to an action performed by a user; a detector within the razor, said detector comprising an actuator coupled to the connecting structure, the safety razor being characterized in that the detector further comprises a sensor configured to generate a signal, wherein the actuator is configured to apply an action on the sensor during the action performed by a user and the sensor is configured to generate the signal in response to the action.
Method for revamping a multi-bed ammonia converter, wherein said converter comprises: a plurality of adiabatic catalytic beds including a first catalytic bed and one or more further catalytic bed(s) (4, 5), said catalytic beds being arranged in series so that the effluent of a bed is further reacted in the subsequent bed; at least a first inter-bed heat exchanger arranged between said first catalytic bed and a second catalytic bed to cool the effluent of said first bed before admission into said second bed, and optionally further inter-bed heat exchanger(s) arranged between consecutive beds; the method being characterized in that said first catalytic bed is converted into an isothermal catalytic bed. a plurality of adiabatic catalytic beds including a first catalytic bed and one or more further catalytic bed(s) (4, 5), said catalytic beds being arranged in series so that the effluent of a bed is further reacted in the subsequent bed; at least a first inter-bed heat exchanger arranged between said first catalytic bed and a second catalytic bed to cool the effluent of said first bed before admission into said second bed, and optionally further inter-bed heat exchanger(s) arranged between consecutive beds; the method being characterized in that said first catalytic bed is converted into an isothermal catalytic bed.
A swivel stop comprising: a plate (104; 204;320;1042;1048); a rotating member (102;202;312;1022;1028) located above the plate (104;204;320;1042;1048) and configured to rotate with respect to the plate (104;204;320;1042;1048); characterised by a first boss (108;208;316;1088) and a second boss (106;206;318;1068) coupled to the rotating member (102;202;312;1022;1028), wherein the plate (104;204;320;1042;1048) has a first interference surface (110;330;1102;1108) and a second interference surface (112;332;1122;1128), and at least one of the first boss (108;208;316;1088) contacting the first interference surface (110;330;1102;1108) or the second boss (106;206;318;1068) contacting the second interference surface (112;332;1122;1128) limits the rotation of the rotating member with respect to the plate (104;204;320;1042;1048); and a rail (116;218;322;324;1162;1168) coupled to the plate (104;204;320;1042;1048), wherein the plate (104;204;320;1042;1048) is configured to translate along the rail (116;218;322;324;1162;1168) in a direction perpendicular to an axis of rotation (B-B') of the rotating member (102; 202; 312; 1022; 1028). a plate (104; 204;320;1042;1048); a rotating member (102;202;312;1022;1028) located above the plate (104;204;320;1042;1048) and configured to rotate with respect to the plate (104;204;320;1042;1048); characterised by a first boss (108;208;316;1088) and a second boss (106;206;318;1068) coupled to the rotating member (102;202;312;1022;1028), wherein the plate (104;204;320;1042;1048) has a first interference surface (110;330;1102;1108) and a second interference surface (112;332;1122;1128), and at least one of the first boss (108;208;316;1088) contacting the first interference surface (110;330;1102;1108) or the second boss (106;206;318;1068) contacting the second interference surface (112;332;1122;1128) limits the rotation of the rotating member with respect to the plate (104;204;320;1042;1048); and a rail (116;218;322;324;1162;1168) coupled to the plate (104;204;320;1042;1048), wherein the plate (104;204;320;1042;1048) is configured to translate along the rail (116;218;322;324;1162;1168) in a direction perpendicular to an axis of rotation (B-B') of the rotating member (102; 202; 312; 1022; 1028).
A method for vehicle navigation using a vehicle's offset from a common reference axis, the vehicle transporting therewith a navigation system operatively connected to at least one object sensor, said method comprising the steps of: accessing, by the navigation system, a digital map database containing stored absolute geographic location and relative spatial location for a plurality of objects, said objects including a longitudinally extending roadway, one or more markers disposed adjacent to the roadway, and a reference axis spatially associated with and extending generally parallel to the roadway, said digital map database further including, for each of said one or more markers, an object offset stored therein, said object offset comprising the perpendicular distance measurement between said reference axis and said marker; obtaining, by the navigation system, the relative bearing and range of the vehicle to a marker sensed using the at least one object sensor; matching, by the navigation system, the sensed marker with a marker stored in the digital map database; and calculating, by the navigation system, an instantaneous vehicle offset using the stored object offset and the sensed relative bearing and range, the instantaneous vehicle offset being the perpendicular distance measurement between the reference axis and the vehicle. accessing, by the navigation system, a digital map database containing stored absolute geographic location and relative spatial location for a plurality of objects, said objects including a longitudinally extending roadway, one or more markers disposed adjacent to the roadway, and a reference axis spatially associated with and extending generally parallel to the roadway, said digital map database further including, for each of said one or more markers, an object offset stored therein, said object offset comprising the perpendicular distance measurement between said reference axis and said marker; obtaining, by the navigation system, the relative bearing and range of the vehicle to a marker sensed using the at least one object sensor; matching, by the navigation system, the sensed marker with a marker stored in the digital map database; and calculating, by the navigation system, an instantaneous vehicle offset using the stored object offset and the sensed relative bearing and range, the instantaneous vehicle offset being the perpendicular distance measurement between the reference axis and the vehicle.
A method of controlling an axle assembly of a vehicle comprising: determining when a spinout condition is present; and operating a lubrication pump to distribute lubricant in the axle assembly when the spinout condition is present; characterized in that the lubrication pump is not driven by rotation of an input shaft of the axle assembly and in that a spinout condition is present when a difference between a rotational speed of an output shaft of the axle assembly and a rotational speed of an input shaft of the axle assembly exceeds a threshold rotational speed value. determining when a spinout condition is present; and operating a lubrication pump to distribute lubricant in the axle assembly when the spinout condition is present; characterized in that the lubrication pump is not driven by rotation of an input shaft of the axle assembly and in that a spinout condition is present when a difference between a rotational speed of an output shaft of the axle assembly and a rotational speed of an input shaft of the axle assembly exceeds a threshold rotational speed value.
Blade for stirring food for an appliance for cooking food comprising a cooking vessel, said stirring blade comprising an axle of axis (X-X) shaped to be rotated relative to said cooking vessel about said axis (X'X'), via said cooking appliance, in a predetermined rotation direction, axle to which a stirring arm is connected in a connection zone, said stirring arm having a curved profile and extending to a free end which extends behind the zone for connecting to said axle, when said rotation direction is considered, and comprising a solid wall having a front face and a rear face delimited by a lower edge and an upper edge, the straight section of said arm being such that said front face has a concave shape, at least in the region of the blade closest to said axle, the concavity of said shape being oriented in the same direction as said rotation direction, characterised by the fact that: - the lower edge of said arm extends in one single and same plane; - the upper edge of said arm has a slope descending from said axle in the direction of its free end; - the top part of the zone for connecting said arm to said axle extends in a direction, substantially radial relative to this axle. - the lower edge of said arm extends in one single and same plane; - the upper edge of said arm has a slope descending from said axle in the direction of its free end; - the top part of the zone for connecting said arm to said axle extends in a direction, substantially radial relative to this axle.
A method for providing continuity in chat communications between a user device and a chatbot capable framework in a network, the method comprising: - the user device establishing a session with the chatbot capable framework over a first chat platform associated with a first chat application, and starts a dialogue with the chatbot capable framework; - the framework storing a state of the session in a database, wherein the session state includes identification information identifying the ongoing dialogue; - the user device initiating a transfer of the dialogue to a second chat platform associated with a second chat application; - the framework retrieving, from the database, the previously stored identification information, and providing the user device with the identification information over the first chat platform; and - the user device initiating a new session with the chatbot capable framework over the second chat platform associated with the second chat application, and inputs the identification information for continuing the dialogue where it stopped at the first chat platform. - the user device establishing a session with the chatbot capable framework over a first chat platform associated with a first chat application, and starts a dialogue with the chatbot capable framework; - the framework storing a state of the session in a database, wherein the session state includes identification information identifying the ongoing dialogue; - the user device initiating a transfer of the dialogue to a second chat platform associated with a second chat application; - the framework retrieving, from the database, the previously stored identification information, and providing the user device with the identification information over the first chat platform; and - the user device initiating a new session with the chatbot capable framework over the second chat platform associated with the second chat application, and inputs the identification information for continuing the dialogue where it stopped at the first chat platform.
A structure for housing a battery, comprising: a casing (2, 8); a sealing rubber which covers an inner surface of the casing (2, 8); an electronic substrate fitted inside the sealing rubber; and an inner plate for preventing a dropping off of the electronic substrate and housing the battery, the inner plate comprising a first plate and a second plate, wherein the inner plate comprises a thin-walled parting line portion as a border between the first plate and the second plate, wherein the inner plate is arranged to be bendable into a dogleg shape at the parting line portion; characterised in that the inner plate further comprises: one or more rectangular holes (6e, 6f); arms (6g, 6h) provided on one edge portion of the rectangular holes (6e, 6f) that extends in the direction parallel to the border, of which proximal portions are swingably attached thereto; and engagement portions (6q, 6r) on the opposite edge of the rectangular holes (6e, 6f), which can be engaged with leading ends (6n, 6p) of the arms (6g, 6h) when the first plate is approximately flush with the second plate. a casing (2, 8); a sealing rubber which covers an inner surface of the casing (2, 8); an electronic substrate fitted inside the sealing rubber; and an inner plate for preventing a dropping off of the electronic substrate and housing the battery, the inner plate comprising a first plate and a second plate, wherein the inner plate comprises a thin-walled parting line portion as a border between the first plate and the second plate, wherein the inner plate is arranged to be bendable into a dogleg shape at the parting line portion; characterised in that the inner plate further comprises: one or more rectangular holes (6e, 6f); arms (6g, 6h) provided on one edge portion of the rectangular holes (6e, 6f) that extends in the direction parallel to the border, of which proximal portions are swingably attached thereto; and engagement portions (6q, 6r) on the opposite edge of the rectangular holes (6e, 6f), which can be engaged with leading ends (6n, 6p) of the arms (6g, 6h) when the first plate is approximately flush with the second plate.