mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack comprising: a first battery module and a second battery module that are arranged adjacent to each other so as to define an open space portion, each of the battery modules having a case for housing at least one single cell (10A-10D), wherein a wall portion of each case comprises: a vent including a cut-out in the wall portion through which an inside and an outside of the case communicate with each other during normal operation of the battery module , and a wall region where the vent is not provided, characterized in that the vent provided on the case of the first battery module is open toward the open space portion, and faces the wall region provided on the case of the second battery module , which is adjacent to the first battery module , such that the vent provided on the case of the first battery module does not face a vent provided on the case of the second battery module . a first battery module and a second battery module that are arranged adjacent to each other so as to define an open space portion, each of the battery modules having a case for housing at least one single cell (10A-10D), wherein a wall portion of each case comprises: a vent including a cut-out in the wall portion through which an inside and an outside of the case communicate with each other during normal operation of the battery module , and a wall region where the vent is not provided, a vent including a cut-out in the wall portion through which an inside and an outside of the case communicate with each other during normal operation of the battery module , and a wall region where the vent is not provided, characterized in that the vent provided on the case of the first battery module is open toward the open space portion, and faces the wall region provided on the case of the second battery module , which is adjacent to the first battery module , such that the vent provided on the case of the first battery module does not face a vent provided on the case of the second battery module .
A method of an edge enabler server, EES, the method comprising: receiving , from an edge enabler client, EEC, in a user equipment, UE, a first message including an identifier of an application client, AC, in the UE, an identifier of the EEC, and an identifier of a required edge application server, EAS; and triggering an EAS management system to instantiate an EAS serving the AC. receiving , from an edge enabler client, EEC, in a user equipment, UE, a first message including an identifier of an application client, AC, in the UE, an identifier of the EEC, and an identifier of a required edge application server, EAS; and triggering an EAS management system to instantiate an EAS serving the AC.
A vehicle system comprising: a mirror having flexibility and provided in a subject vehicle; an output unit configured to output a control instruction signal instructing to control the mirror in a case where approach of a following vehicle with respect to the subject vehicle is detected; and a curvature variable device configured to change a radius of curvature of the mirror in a case where the control instruction signal is output, characterized in that , in a case where the control instruction signal is output, the curvature variable device changes the radius of curvature of the mirror to a predetermined value and adjusts a speed at which the radius of curvature of the mirror is changed to the predetermined value in accordance with a relative speed of the following vehicle with respect to the subject vehicle. a mirror having flexibility and provided in a subject vehicle; an output unit configured to output a control instruction signal instructing to control the mirror in a case where approach of a following vehicle with respect to the subject vehicle is detected; and a curvature variable device configured to change a radius of curvature of the mirror in a case where the control instruction signal is output, characterized in that , in a case where the control instruction signal is output, the curvature variable device changes the radius of curvature of the mirror to a predetermined value and adjusts a speed at which the radius of curvature of the mirror is changed to the predetermined value in accordance with a relative speed of the following vehicle with respect to the subject vehicle.
Temperature device comprising a temperature sensor which is connected to at least one cable , wherein the cable has an outer sheath , a dielectric material and at least one conductor , wherein the at least one conductor is arranged in the outer sheath in such a way that the conductor is spatially separated from the outer sheath by way of the dielectric material , wherein the at least one conductor has at least one exposed conductor section , wherein the temperature sensor comprises at least one connection wire , wherein the connection wire is connected to at least one exposed conductor section of the conductor of the cable , wherein the temperature sensor is arranged in a protective sleeve , wherein the protective sleeve is at least filled in sections with a protective material , characterised in that the exposed conductor section comprises a curved expansion compensation section which, at least in parts has an impression that optimises the spring effect and the stiffness of the expansion compensation section .
A data transmission method, comprising: receiving , by user equipment, UE, first synchronization source configuration information on a first carrier, wherein the first synchronization source configuration information is used for determining a first synchronization source; determining , by the UE, the first synchronization source based on the first synchronization source configuration information, wherein the first synchronization source is used for providing a synchronization clock required for transmitting data on a second carrier for the UE, and a frequency of the first carrier is different from a frequency of the second carrier; determining , by the UE, that a synchronization with the first synchronization source fails; determining , by the UE, a second synchronization source and a transmission resource, the transmission resource is associated with the second synchronization source; and transmitting , by the UE, the data in a direct communication manner on the transmission resource of the second carrier and based on the second synchronization source. receiving , by user equipment, UE, first synchronization source configuration information on a first carrier, wherein the first synchronization source configuration information is used for determining a first synchronization source; determining , by the UE, the first synchronization source based on the first synchronization source configuration information, wherein the first synchronization source is used for providing a synchronization clock required for transmitting data on a second carrier for the UE, and a frequency of the first carrier is different from a frequency of the second carrier; determining , by the UE, that a synchronization with the first synchronization source fails; determining , by the UE, a second synchronization source and a transmission resource, the transmission resource is associated with the second synchronization source; and transmitting , by the UE, the data in a direct communication manner on the transmission resource of the second carrier and based on the second synchronization source.
A dental furnace, in particular also for pre-drying dental restoration parts, - comprising at least one electric heating element which extends adjacent to a heating chamber and is driven by a heating controller , - said heating controller regulating the temperature in the heating chamber and, for this purpose, comprising an output connection for the at least one heating element and an input connection for detecting the temperature of the heating element , - being electrically connected to a temperature detection device , the temperature detection device comprising the heating element , characterized in that - the temperature detection device comprises a compensation device with which nonlinearities, i.e. deviations from the proportionality of the increase in resistance to the increase in temperature can be compensated for, and - the heating controller controls its output connection based on the detected resistance of at least part of at least one heating element and based on the compensation device . - comprising at least one electric heating element which extends adjacent to a heating chamber and is driven by a heating controller , - said heating controller regulating the temperature in the heating chamber and, for this purpose, comprising an output connection for the at least one heating element and an input connection for detecting the temperature of the heating element , - being electrically connected to a temperature detection device , the temperature detection device comprising the heating element , characterized in that - the temperature detection device comprises a compensation device with which nonlinearities, i.e. deviations from the proportionality of the increase in resistance to the increase in temperature can be compensated for, and - the heating controller controls its output connection based on the detected resistance of at least part of at least one heating element and based on the compensation device .
A method for brazing Rene 80 as a superalloy substrate comprising: applying a braze material to a superalloy substrate, the braze material comprising only elemental constituents that are present in the superalloy substrate further comprising a composition having a melting temperature range of no more than 50 °C and inclusive of or below a solution heat treating temperature of the superalloy substrate; and performing a solution heat treatment of the superalloy substrate effective to the braze material and to fuse and homogenize a braze joint, characterized in that the braze material is free of boron and silicon and has a composition of Cr 15-25%; Ti 15-25%; balance Ni, wherein the braze material composition is selected to have a liquidus temperature of about 1,215 °C and a melting temperature range of no more than 10 °C, wherein the melting temperature range means the difference between the liquidus temperature and the solidus temperature.
An isotropic scaffold complex as an injectable formulation comprising a polymeric fiber or fragments thereof having a mean diameter of from 100nm to 8000nm covalently linked to a hydrogel material, wherein the polymeric fiber or fragments thereof comprise a polycaprolactone, and the hydrogel material comprises hyaluronic acid, wherein the hydrogel material is capable of forming a functional network and wherein the ratio of polymeric fiber to hydrogel material is from 1:10 to 10:1 on a component-mass basis, or from 1 to 50mg/mL on a concentration basis, wherein the scaffold complex comprises a plurality of pores present on or within a surface of the scaffold complex, wherein the pores are present at a concentration of at least about 50 pores per cm2 of the surface, and wherein at least 80% of the pores have an average pore diameter on the surface of at least about 5 μm (micron) and wherein the polymeric fiber or fragments thereof are uniformly dispersed. wherein the polymeric fiber or fragments thereof comprise a polycaprolactone, and the hydrogel material comprises hyaluronic acid, wherein the hydrogel material is capable of forming a functional network and wherein the ratio of polymeric fiber to hydrogel material is from 1:10 to 10:1 on a component-mass basis, or from 1 to 50mg/mL on a concentration basis, wherein the scaffold complex comprises a plurality of pores present on or within a surface of the scaffold complex, wherein the pores are present at a concentration of at least about 50 pores per cm2 of the surface, and wherein at least 80% of the pores have an average pore diameter on the surface of at least about 5 μm (micron) and wherein the polymeric fiber or fragments thereof are uniformly dispersed.
A hybrid additive manufacturing system, comprising: an arc welding tool configured to receive a wire electrode and to apply a plurality of droplets of the wire electrode to a part comprising a plurality of layers, each layer comprising one or more droplets to build up the part ; a laser system comprising means to: generate a laser beam ; the system being further characterised by : the laser system comprising: means to control a lens to focus the laser beam on a focal point over a substrate during a hybrid additive manufacturing operation or welding operation to stabilize an arc from the arc welding tool at the weld puddle; and by: a controller configured to: regulate power to at least one of the arc welding tool or the laser system ; and command an adjustment of one of a position or orientation of one or more of the laser system or the arc welding tool to maintain a threshold distance between the focal point and the wire electrode at the weld puddle, or to move the laser beam at an oscillation frequency such that the distance between the focal point and the wire electrode at the weld puddle oscillates. an arc welding tool configured to receive a wire electrode and to apply a plurality of droplets of the wire electrode to a part comprising a plurality of layers, each layer comprising one or more droplets to build up the part ; a laser system comprising means to: generate a laser beam ; the system being further characterised by : the laser system comprising: means to control a lens to focus the laser beam on a focal point over a substrate during a hybrid additive manufacturing operation or welding operation to stabilize an arc from the arc welding tool at the weld puddle; and by: a controller configured to: regulate power to at least one of the arc welding tool or the laser system ; and command an adjustment of one of a position or orientation of one or more of the laser system or the arc welding tool to maintain a threshold distance between the focal point and the wire electrode at the weld puddle, or to move the laser beam at an oscillation frequency such that the distance between the focal point and the wire electrode at the weld puddle oscillates.
A splash screen comprising a glass sheet, the glass sheet comprising: a substrate of soda lime silica glass comprising a first surface and a second surface and having a coating deposited on at least the first surface, wherein the coating deposited on the at least first surface comprises a corrosion-protection layer deposited directly on the at least first surface of the substrate, the corrosion-protection layer having a thickness in the range 24 nm to 125 nm and comprising pyrolytically deposited silica with intentional doping of 7 atom% or lower; and further comprising a second corrosion-protection layer deposited on the second surface of the substrate, the second corrosion-protection layer comprising silica deposited from a liquid coating composition comprising a polysilazane; and wherein the splash screen is a bath screen and/or a shower screen. a substrate of soda lime silica glass comprising a first surface and a second surface and having a coating deposited on at least the first surface, wherein the coating deposited on the at least first surface comprises a corrosion-protection layer deposited directly on the at least first surface of the substrate, the corrosion-protection layer having a thickness in the range 24 nm to 125 nm and comprising pyrolytically deposited silica with intentional doping of 7 atom% or lower; and further comprising a second corrosion-protection layer deposited on the second surface of the substrate, the second corrosion-protection layer comprising silica deposited from a liquid coating composition comprising a polysilazane; and wherein the splash screen is a bath screen and/or a shower screen.
A method for providing backup communication over an Ethernet cable , comprising: receiving, at a backup communication system, BCS, module coupled between a Power over Eternet, PoE/Switch and a monitoring device , a sync pulse indicating a failure of a TCP/IP gateway coupled, via the PoE/Switch , between a call device , and the monitoring device ; receiving , at the BCS module , a first call signal from the call device ; and transmitting , from the BCS module , responsive to receiving the first call signal when the sync pulse indicates the failure, a second call signal to the monitoring device ; wherein the first call signal is transmitted on a power carrying wire of an Ethernet cable by coupling pulse-coded signals to the Ethernet cable, and wherein said second call signal is transmitted on a signal wire . receiving, at a backup communication system, BCS, module coupled between a Power over Eternet, PoE/Switch and a monitoring device , a sync pulse indicating a failure of a TCP/IP gateway coupled, via the PoE/Switch , between a call device , and the monitoring device ; receiving , at the BCS module , a first call signal from the call device ; and transmitting , from the BCS module , responsive to receiving the first call signal when the sync pulse indicates the failure, a second call signal to the monitoring device ; wherein the first call signal is transmitted on a power carrying wire of an Ethernet cable by coupling pulse-coded signals to the Ethernet cable, and wherein said second call signal is transmitted on a signal wire .
A metered dose inhaler canister combination comprising a canister configured for containing a pharmaceutical composition, the canister having a canister base , a side wall extending from the canister base , an open end distal from the base and a first cooperating formation arranged at said open end and extending generally distally from said canister base ; a shroud having a shroud base and a side wall extending from the shroud base to a waist , the base and side wall defining a vessel configured to receive the canister therein, the waist defining an aperture of constricted width configured to receive the canister therethrough, and a second cooperating formation extending generally distally from said waist , wherein the respective first and second cooperating formations adopt an engaged condition in which the canister is retained within the shroud , characterized in that said shroud includes a vent orifice which allows communication between a shroud exterior and a shroud interior, that said first cooperating formation comprises a flange portion extending outwardly from said cylindrical side wall and a wall portion extending from said flange portion distally with respect to said canister base , that said second cooperating formation comprises a flange portion extending outwardly from said waist and a wall portion extending from said flange portion distally with respect to said shroud base and that when the first and second cooperating formations are in the engaged condition the respective wall portions of the first and second cooperating formations are in contacting relation.
A method for selecting a Coverage Enhancement, CE, level from a plurality of CE levels, the method comprising: determining , by a User Equipment, UE, a matching CE level from a plurality of CE levels by matching a Maximum Coupling Loss, MCL, coverage class to a Reference Signal Received Power, RSRP, measurement; determining , by the UE, that the matching CE level is not defined in a CE configuration received from a Base Station, BS; in response to determining that the matching CE level is not defined in the CE configuration, determining , by the UE, a new CE level from the plurality of CE levels, wherein the new CE level is the next highest available CE level from the plurality of CE levels; and transmitting , by the UE, using the determined new CE level. determining , by a User Equipment, UE, a matching CE level from a plurality of CE levels by matching a Maximum Coupling Loss, MCL, coverage class to a Reference Signal Received Power, RSRP, measurement; determining , by the UE, that the matching CE level is not defined in a CE configuration received from a Base Station, BS; in response to determining that the matching CE level is not defined in the CE configuration, determining , by the UE, a new CE level from the plurality of CE levels, wherein the new CE level is the next highest available CE level from the plurality of CE levels; and transmitting , by the UE, using the determined new CE level.
Capacitive sensor for detecting an object, in particular for detecting a collision in a case of a moving vehicle part, with an electrode configuration , which comprises at least one sensor electrode , and with an evaluation circuit for processing a reception signal (S R ) generated in the sensor electrode , said evaluation unit being connected downstream of the sensor electrode , wherein the evaluation circuit comprises a transimpedance amplifier , which has an operational amplifier whose non-inverting input is connected to ground (M) or another reference potential, whose inverting input is connected to the sensor electrode , and whose output is connected to the inverting input as means for frequency response compensation via a capacitance with a parallel-connected ohmic resistor , characterized in that an inductor is connected upstream of the inverting input of the operational amplifier .
Device for producing wire windings, in particular for electrical drives and generators, with at least two rotationally mounted drums which are mounted at a predetermined distance from one another, wherein the at least two drums each have at least one bending pin (34.1, 36.1, 38.1), said bending pins being fastened to a circumferential surface (34.2, 36.2, 38.2) of the corresponding drum in a manner protruding substantially perpendicularly, wherein a movable wire-guiding device winds the wire around the bending pins (34.1, 36.1, 38.1) protruding from the at least two drums , in order to produce at least one wire winding (7.1, 7.2), wherein the wire-guiding device aligns the wire between two bending pins (34.1, 36.1, 38.1) under a predeterminable elastic tension and winds the wire under tension around the respective bending pin (34.1, 36.1, 38.1) by means of a rotational movement, wherein a first drum is fastened on a rotatable shaft at an edge region with a predetermined first number of bending pins (34.1), and wherein a second drum is fastened on the rotatable shaft with a predetermined second number of bending pins (36.1) and at a predetermined first distance from the first drum , characterized in that a third drum is fastened on the shaft with a predetermined third number of bending pins (38.1) and at a predetermined second distance from the first or second drum .
Vehicle, in particular a rail vehicle , with a drive having one or more electric motors , a drive controller connected to the drive and controlling it, and a monitoring device which works independently of the drive controller, characterised in that the monitoring device is designed such that it - quantitatively detects the drive current of the drive and evaluates the sign of a drive current measured value (Ma) indicating the drive current, wherein the sign of the drive current measured value (Ma) indicates whether the drive is driving or braking the rail vehicle , and - switches off the drive when at least one drive switch-off condition is met and at the same time the sign of the drive current measured value (Ma) indicates an active drive mode of the drive driving the rail vehicle. - quantitatively detects the drive current of the drive and evaluates the sign of a drive current measured value (Ma) indicating the drive current, wherein the sign of the drive current measured value (Ma) indicates whether the drive is driving or braking the rail vehicle , and - switches off the drive when at least one drive switch-off condition is met and at the same time the sign of the drive current measured value (Ma) indicates an active drive mode of the drive driving the rail vehicle.