mhurhangee/ep-ind-claims huggingface dataset:
Level measuring device for measuring a level in a liquid container in the interior of a laboratory cabinet device, comprising a first NTC temperature sensor arrangeable outside the liquid of the liquid container a second NTC temperature sensor arrangeable inside the liquid of the liquid container a power supply device, of which the first NTC temperature sensor and the second NTC temperature sensor each comprise an excess temperature (T_NTC) which is greater than the temperature (T_inside) in the interior of the laboratory cabinet device, and an electronic measuring device which is set up to detect a first electrical variable of the first NTC temperature sensor which is influenced by the temperature of the first NTC temperature sensor, and to detect a second electrical variable of the second NTC temperature sensor which is influenced by the temperature of the second NTC temperature sensor, and to determine a comparison value by continuous comparison of the first and second electrical variables, characterized by a holding device for holding the first and the second NTC temperature sensor at a distance from an inner wall and a bottom wall of the laboratory cabinet device, the holding device having a holding arm which can be fastened to the inner wall of the laboratory cabinet device which supports the first NTC temperature sensor and to which an elastically deformable second holding arm is attached, which is provided for a vertically downwardly directed arrangement and which supports the second NTC temperature sensor. a first NTC temperature sensor arrangeable outside the liquid of the liquid container a second NTC temperature sensor arrangeable inside the liquid of the liquid container a power supply device, of which the first NTC temperature sensor and the second NTC temperature sensor each comprise an excess temperature (T_NTC) which is greater than the temperature (T_inside) in the interior of the laboratory cabinet device, and an electronic measuring device which is set up to detect a first electrical variable of the first NTC temperature sensor which is influenced by the temperature of the first NTC temperature sensor, and to detect a second electrical variable of the second NTC temperature sensor which is influenced by the temperature of the second NTC temperature sensor, and to determine a comparison value by continuous comparison of the first and second electrical variables, characterized by a holding device for holding the first and the second NTC temperature sensor at a distance from an inner wall and a bottom wall of the laboratory cabinet device, the holding device having a holding arm which can be fastened to the inner wall of the laboratory cabinet device which supports the first NTC temperature sensor and to which an elastically deformable second holding arm is attached, which is provided for a vertically downwardly directed arrangement and which supports the second NTC temperature sensor.
A lighting means insert module for use in a luminaire housing of a tunnel luminaire, consisting of at least one cooling unit which is produced by bending from a metallic flat material and which forms a cooling body, wherein the cooling unit has a rectangular, planar bottom portion (3, 3a, 3b) with an upper face and lower face (6, 6a, 6b, 7, 7a, 7b) as well as at least one side portion (4a, 4b) which adjoins a bending edge (8a, 8b) of the bottom portion (3a, 3b) and which protrudes from the lower face (7a, 7b) or rectangular planar side portions (4.1-4.4) which adjoin at least two bending edges (8, 8', 9, 9') of the bottom portion running parallel to one another and which protrude from the lower face, wherein the cooling unit also comprises at least one bearing portion (5.1-5.4, 5a, 5b) which in each case adjoins the side portion (4.1-4.4, 4a, 4b) and which runs spaced apart and parallel to the bottom portion (3, 3a, 3b), at least one lighting unit which comprises a plurality of light-emitting diodes and which is arranged on the upper face (6, 6a, 6b) of the bottom portion (3, 3a, 3b) of the cooling unit and which is connected in a thermally-conductive manner to the bottom portion (3, 3a, 3b) of the cooling unit and at least one holding element which is configured in a plate-shaped manner for fastening the lighting means insert module to the luminaire housing of the tunnel luminaire, wherein the at least one holding element is arranged on the upper face (6, 6a, 6b) of the bottom portion (3, 3a, 3b) of the cooling unit and has at least one through-hole which is incorporated in a central region of the holding element, wherein the at least one lighting unit is received in the through-hole and is enclosed in a frame-like manner by the holding element. at least one lighting unit which comprises a plurality of light-emitting diodes and which is arranged on the upper face (6, 6a, 6b) of the bottom portion (3, 3a, 3b) of the cooling unit and which is connected in a thermally-conductive manner to the bottom portion (3, 3a, 3b) of the cooling unit and at least one holding element which is configured in a plate-shaped manner for fastening the lighting means insert module to the luminaire housing of the tunnel luminaire, wherein the at least one holding element is arranged on the upper face (6, 6a, 6b) of the bottom portion (3, 3a, 3b) of the cooling unit and has at least one through-hole which is incorporated in a central region of the holding element, wherein the at least one lighting unit is received in the through-hole and is enclosed in a frame-like manner by the holding element.
A dental prosthesis comprising a superstructure and an implant adapted to be integrated in the bone, which are reciprocally joined by means of a screw (5,25), an insert element made of a damping material, interposed between the coupling surfaces (6,7) of the superstructure and the implant, respectively, and a cap, wherein said insert element has an annular base suitable for being interposed between the mentioned surfaces (6,7), a profile which is engaged inside the superstructure and a threaded portion for engagement with the cap, also threaded, for blocking the superstructure on the insert, said screw fixing the insert onto the implant.
Device for storing and dispensing parts including a rigid parallelepiped container receiving at least one winding of a flexible storage tube, in which at least one end of said tube opens externally, in which said end is equipped with a dispensing head and the other end is supplied with movement fluid, characterized in that the tube used for storing parts is made of polyurethane based on polyether of around 64 shore D.
A film forming device for forming a film composed of deposited fiber on the skin by electrostatic spraying a composition in the form of fiber, comprising: a cylindrical housing, a nozzle, a distance measurement unit for measuring the distance between the skin on which a film is to be formed and the film forming device, a distance decision unit for deciding whether the distance measured by the distance measurement unit is proper for electrostatic spraying, and a distance notification unit for notifying a user of the decision made by the distance decision unit, the film forming device being of hand-held type small enough, and configured, to be held by the user's hand; the film forming device further including an auxiliary circuit, wherein the distance measurement unit is electrically connected to the auxiliary circuit, the distance decision unit is incorporated into the auxiliary circuit, and the distance decision unit is equipped with an upper limit input/memory unit and a lower limit input/memory unit, characterized in that the nozzle is disposed at one longitudinal end of the housing, closest to the skin in use, and is attached to the housing to project with its tip toward the skin in use. a cylindrical housing, a nozzle, a distance measurement unit for measuring the distance between the skin on which a film is to be formed and the film forming device, a distance decision unit for deciding whether the distance measured by the distance measurement unit is proper for electrostatic spraying, and a distance notification unit for notifying a user of the decision made by the distance decision unit, the film forming device being of hand-held type small enough, and configured, to be held by the user's hand; the film forming device further including an auxiliary circuit, wherein the distance measurement unit is electrically connected to the auxiliary circuit, the distance decision unit is incorporated into the auxiliary circuit, and the distance decision unit is equipped with an upper limit input/memory unit and a lower limit input/memory unit, characterized in that the nozzle is disposed at one longitudinal end of the housing, closest to the skin in use, and is attached to the housing to project with its tip toward the skin in use.
An electrical motor system comprising: a switched reluctance electrical motor comprising a rotor section and a stator section, the rotor section comprising a plurality of rotor teeth and the stator section comprising a plurality of stator teeth, the stator teeth wound with respective coils, coil driver circuitry coupled to the coils of the stator teeth to independently control a phase of electrical power to each coil of the plurality of stator teeth, wherein the coil driver circuitry is a combination of switched inductance boost voltage converter circuitry and switched inductance buck voltage converter circuitry which share an electrical energy store, and a power supply coupled to both the coil driver circuitry and to the coils of the stator teeth, wherein the coils of the stator teeth each have an inductance which absorbs electrical energy provided to that coil by the coil driver circuitry and subsequently releases at least a portion of the electrical energy back to the coil driver circuitry when that coil is not being actively driven by the coil driver circuitry, and wherein the electrical energy store stores the portion of the electrical energy released back from the inductance of each coil and the electrical energy provided to said each coil of the stator teeth by the coil driver circuitry is augmented by the electrical energy stored in the electrical energy store. a switched reluctance electrical motor comprising a rotor section and a stator section, the rotor section comprising a plurality of rotor teeth and the stator section comprising a plurality of stator teeth, the stator teeth wound with respective coils, coil driver circuitry coupled to the coils of the stator teeth to independently control a phase of electrical power to each coil of the plurality of stator teeth, wherein the coil driver circuitry is a combination of switched inductance boost voltage converter circuitry and switched inductance buck voltage converter circuitry which share an electrical energy store, and a power supply coupled to both the coil driver circuitry and to the coils of the stator teeth, wherein the coils of the stator teeth each have an inductance which absorbs electrical energy provided to that coil by the coil driver circuitry and subsequently releases at least a portion of the electrical energy back to the coil driver circuitry when that coil is not being actively driven by the coil driver circuitry, and wherein the electrical energy store stores the portion of the electrical energy released back from the inductance of each coil and the electrical energy provided to said each coil of the stator teeth by the coil driver circuitry is augmented by the electrical energy stored in the electrical energy store.
A semiconductor light-emitting device (20, 30) comprising a substrate (11, 21), an underlayer (13, 23) made of AlN and a light-emitting device structure (14-19, 24-29) including a nitride semiconductor layer group (14-17, 24-27) comprising at least an n-type conductive layer (14, 24) contacting said underlayer, wherein said underlayer and said light-emitting device structure are provided on said substrate in this order, wherein said substrate consists of a c-plane sapphire substrate, wherein said underlayer has a dislocation density of 10 11 /cm 2 to 8×10 9 /cm 2 and a surface roughness (Ra) of 2 Å or lower, wherein said n-type conductive layer comprises n-GaN or AlGaN, wherein said nitride semiconductor layer group has a Ga content of 80 atomic percent or more based on all of III elements, and wherein said nitride semiconductor layer group has a dislocation density of 1×10 10 /cm 2 to 5×10 7 /cm 2 and smaller than the dislocation density of said underlayer. wherein said substrate consists of a c-plane sapphire substrate, wherein said underlayer has a dislocation density of 10 11 /cm 2 to 8×10 9 /cm 2 and a surface roughness (Ra) of 2 Å or lower, wherein said n-type conductive layer comprises n-GaN or AlGaN, wherein said nitride semiconductor layer group has a Ga content of 80 atomic percent or more based on all of III elements, and wherein said nitride semiconductor layer group has a dislocation density of 1×10 10 /cm 2 to 5×10 7 /cm 2 and smaller than the dislocation density of said underlayer.
An electric current sensor characterized in that it comprises a fiber from a soft magnetic material with a uniform cross-sectional area and uniform magnetic properties along its whole length, equipped with an excitation coil wound on said fiber with a uniform winding density along the substantially whole length and optionally equipped with a sensing coil wound on said fiber with a uniform winding density along the substantially whole length, where said fiber ends are mechanically joined to form a loop enclosing the measured current-carrying conductor by said fiber, wherein said excitation coil is connected to the current output of a current source through a current transducer generating a current signal corresponding to the excitation current flowing through said excitation coil wherein the sensor is equipped with a voltage transducer generating a voltage signal corresponding to the voltage on the possibly present sensing coil or on the excitation coil wherein said voltage signal and said current signal are fed into a processor unit.
A control device for controlling charging of a rechargeable battery, the control device being configured to: determine the voltage (V x) of the battery during charging of the battery, stop charging, when the determined voltage (V x) exceeds a predetermined upper voltage limit (V max), determine the voltage (V x) of the battery after stopping charging, characterized in that the control device is further configured to: determine the voltage difference (ΔV x) between the predetermined upper voltage limit (V max) and the determined voltage of the battery after stopping charging, and continue charging, when the determined voltage difference (ΔV x) exceeds a predetermined threshold (ΔV T), determine the threshold (ΔV T) based on the state of charge of the battery before starting charging and/or based on a determined degradation (α x) of the battery. determine the voltage (V x) of the battery during charging of the battery, stop charging, when the determined voltage (V x) exceeds a predetermined upper voltage limit (V max), determine the voltage (V x) of the battery after stopping charging, characterized in that determine the voltage difference (ΔV x) between the predetermined upper voltage limit (V max) and the determined voltage of the battery after stopping charging, and continue charging, when the determined voltage difference (ΔV x) exceeds a predetermined threshold (ΔV T), determine the threshold (ΔV T) based on the state of charge of the battery before starting charging and/or based on a determined degradation (α x) of the battery.
A method for addressing wireless messages sent by a first vehicle, the method comprising: generating an environmental perception message based on a perception model of an environment of the first vehicle, wherein the perception model represents a plurality of detected objects that have been identified by the first vehicle using one or more perception sensors of the first vehicle, the environmental perception message comprising the plurality of detected objects; broadcasting the environmental perception message to one or more vehicles located in a vicinity of the first vehicle; identifying and selecting one or more second vehicles among the plurality of detected objects; transmitting one or more subsequent wireless messages to the one or more second vehicles, wherein the one or more second vehicles are addressed in the one or more subsequent wireless messages as destination of the one or more subsequent wireless messages by referencing within the broadcasted environmental perception message one or more objects of the plurality of detected objects corresponding to the one or more second vehicles and represented by the perception environmental model of the environmental perception message. generating an environmental perception message based on a perception model of an environment of the first vehicle, wherein the perception model represents a plurality of detected objects that have been identified by the first vehicle using one or more perception sensors of the first vehicle, the environmental perception message comprising the plurality of detected objects; broadcasting the environmental perception message to one or more vehicles located in a vicinity of the first vehicle; identifying and selecting one or more second vehicles among the plurality of detected objects; transmitting one or more subsequent wireless messages to the one or more second vehicles, wherein the one or more second vehicles are addressed in the one or more subsequent wireless messages as destination of the one or more subsequent wireless messages by referencing within the broadcasted environmental perception message one or more objects of the plurality of detected objects corresponding to the one or more second vehicles and represented by the perception environmental model of the environmental perception message.
A method comprising: each of a plurality of data pull devices of a central server retrieving respective data from a respective one of a plurality of regional server databases, wherein a number of the plurality of data pull devices equals a number of the plurality of regional server databases, wherein the plurality of data pull devices function asynchronously, wherein each of the plurality of data pull devices exits a low power sleep state at respective predetermined time intervals to retrieve the respective data from the respective one of the plurality of regional server databases, and wherein the respective predetermined time intervals for a first of the plurality of data pull devices is different than the respective predetermined time intervals for a second of the plurality of data pull devices. each of a plurality of data pull devices of a central server retrieving respective data from a respective one of a plurality of regional server databases, wherein a number of the plurality of data pull devices equals a number of the plurality of regional server databases, wherein the plurality of data pull devices function asynchronously, wherein each of the plurality of data pull devices exits a low power sleep state at respective predetermined time intervals to retrieve the respective data from the respective one of the plurality of regional server databases, and wherein the respective predetermined time intervals for a first of the plurality of data pull devices is different than the respective predetermined time intervals for a second of the plurality of data pull devices.
A cleaning bin mountable to an autonomous cleaning robot operable to receive debris from a floor surface, the cleaning bin comprising: an inlet positioned between lateral sides of the cleaning bin; an outlet configured to connect to a vacuum assembly of the autonomous cleaning robot, the vacuum assembly operable to direct an airflow from the inlet of the cleaning bin to the outlet of the cleaning bin; a debris chamber to receive debris from the airflow; a filter socket configured to receive a filter and provide the airflow through the filter to the outlet of the cleaning bin, characterized by: an airflow chamber separated from the debris chamber by a prefilter, the prefilter forming at least a portion of a top surface of the debris chamber and at least a portion of a bottom surface of the airflow chamber, wherein the filter is positioned substantially perpendicular to the prefilter when the filter is positioned in the filter socket. an inlet positioned between lateral sides of the cleaning bin; an outlet configured to connect to a vacuum assembly of the autonomous cleaning robot, the vacuum assembly operable to direct an airflow from the inlet of the cleaning bin to the outlet of the cleaning bin; a debris chamber to receive debris from the airflow; a filter socket configured to receive a filter and provide the airflow through the filter to the outlet of the cleaning bin, characterized by: an airflow chamber separated from the debris chamber by a prefilter, the prefilter forming at least a portion of a top surface of the debris chamber and at least a portion of a bottom surface of the airflow chamber, wherein the filter is positioned substantially perpendicular to the prefilter when the filter is positioned in the filter socket. an airflow chamber separated from the debris chamber by a prefilter, the prefilter forming at least a portion of a top surface of the debris chamber and at least a portion of a bottom surface of the airflow chamber, wherein the filter is positioned substantially perpendicular to the prefilter when the filter is positioned in the filter socket.
Device for measuring bioimpedances, which has at least one measuring electrode for each foot and at least one for each hand of a person who is to be measured, and in which the electrodes are connected to an evaluation unit, and which is provided with at least one balance for determining a body weight of the person who is to be measured, wherein the hand electrodes, provided for contact with the hands of the person who is to be measured, are arranged in the region of at least two positionable support elements, and wherein each of the support elements is provided with two hand electrodes, wherein each of the support elements is arranged rotatably and displaceably along a guide element, and wherein the guide element extends in the shape of a semicircle.
A transparent gel containing at least a gelling agent and an aqueous sulphuric acid solution containing 10 mg to 50 mg of zinc and 5 mg to 35 mg of iron, respectively per 1 kg of gel, wherein the aqueous solution has a pH between 3.0 and 2.0, characterized in that 100 mg to 1000 mg of polyhexamethylene biguanide (PHMB) are contained per 1 kg of gel.