mhurhangee/ep-ind-claims huggingface dataset:
A tube body cleaning apparatus comprising: a body having a set length, and formed of a flexible material; an expansion member located at one point of the body in the length direction, and configured to expand to increase a volume protruding outward from the body; a piston part movable back and forth within a cylinder part is formed inside a front end of the body; a support part connected to the piston part, and located outside the body, and having a support groove formed in a ring shape in a circumferential direction to the support part; a magnetic member provided as a ring-shaped permanent magnet along the circumference of the support groove and capable of relative rotation with respect to the support part; and a work member provided along the outer circumference of the magnetic member in a ring shape, fixedly coupled to the magnetic member, having an outer surface gradually increased in diameter from the front end to the rear end and protrusions having a spiral structure formed on the outer surface when a magnetic field is applied from the outside, the magnetic member and the work member rotate together around the axis of the support part to perform a drilling motion. a body having a set length, and formed of a flexible material; an expansion member located at one point of the body in the length direction, and configured to expand to increase a volume protruding outward from the body; a piston part movable back and forth within a cylinder part is formed inside a front end of the body; a support part connected to the piston part, and located outside the body, and having a support groove formed in a ring shape in a circumferential direction to the support part; a magnetic member provided as a ring-shaped permanent magnet along the circumference of the support groove and capable of relative rotation with respect to the support part; and a work member provided along the outer circumference of the magnetic member in a ring shape, fixedly coupled to the magnetic member, having an outer surface gradually increased in diameter from the front end to the rear end and protrusions having a spiral structure formed on the outer surface when a magnetic field is applied from the outside, the magnetic member and the work member rotate together around the axis of the support part to perform a drilling motion.
Method for multi-channel operation in a vehicular network, wherein said network includes a plurality of communicating entities, said communicating entities being designated either as service provider or as service user, a control channel for exchanging management frames among said communicating entities, and at least two different service channels for application-specific information exchanges among said communicating entities, characterized in that the method comprises: by said communicating entities, - performing channel load estimation through a combination of physical channel measurements and an analysis of the transmitted service announcement messages, SAM, generated by service providers, and - based on the results of said channel load estimation together with existing services on said service channels and user and/or application preference configurations, performing dynamic service channel switching to either provide or consume a service. - performing channel load estimation through a combination of physical channel measurements and an analysis of the transmitted service announcement messages, SAM, generated by service providers, and - based on the results of said channel load estimation together with existing services on said service channels and user and/or application preference configurations, performing dynamic service channel switching to either provide or consume a service.
Method for electrically conducting bonding of a bundle of wires provided with insulation, especially an insulating paint, wherein the insulation is at least partially removed by ultrasonic treatment and wherein if necessary before the ultrasonic treatment the bundle is assimilated by a metallic sheathing like a sleeve of metallic material, characterized in that the bundle of wires is assimilated by the metallic sheathing and the metallic sheathing is situated with its longitudinal axis transverse to the longitudinal axis of a sonotrode transmitting ultrasonic oscillations and the wires are joined with each other and with the metallic sheathing in firm bonding by ultrasonic welding, wherein simultaneously, transverse to the longitudinal axis of the metallic sheathing, into it a recess is shaped, wherein the insulation is at least partially removed either during the ultrasonic welding with the bundle assimilated by the metallic sheathing, or before insertion into the metallic sheathing in a previous procedural step by means of plastic ultrasonic welding, or that in a first step the insulation of the wires is at least partially removed by means of plastic ultrasonic welding, and in a second step the wires are firmly bonded by means of metallic ultrasonic welding or resistance welding.
Method for producing a sensor which is configured to detect a physical field, dependent on a variable to be measured, by means of a measuring sensor, and to output an electrical output signal on the basis of the detected physical field via a data cable (38, 64), comprising: - placing the measuring sensor and the data cable in a mold (50, 59) which defines the position of the measuring sensor and of the data cable (38, 64), - encapsulating the measuring sensor and data cable (38, 64) positioned in the mold (50, 59) with a first material, - removing the measuring sensor and data cable (38, 64) encapsulated with the first material from the mold (50, 59), and - encapsulating the measuring sensor and data cable (38, 64) encapsulated with the first material and removed from the mold (50, 59) with a second material, characterized in that the mold (50, 52) comprises a shaping element (53, 60) on which the measuring sensor is shaped before or during the encapsulation with the first material. - placing the measuring sensor and the data cable in a mold (50, 59) which defines the position of the measuring sensor and of the data cable (38, 64), - encapsulating the measuring sensor and data cable (38, 64) positioned in the mold (50, 59) with a first material, - removing the measuring sensor and data cable (38, 64) encapsulated with the first material from the mold (50, 59), and - encapsulating the measuring sensor and data cable (38, 64) encapsulated with the first material and removed from the mold (50, 59) with a second material,
A rubber composition for tire tread, comprising: 100 parts by weight of raw rubber; 20-180 parts by weight of a reinforcing filler, which comprises low specific surface area silica having a CTAB adsorption specific surface area of 65 m 2 /g to 90 m 2 /g; and 2-50 parts by weight of a liquid polymer, which has a glass transition temperature of -110°C to -70°C and has a weight average molecular weight of 3,000 g/mol to 100,000 g/mol. 100 parts by weight of raw rubber; 20-180 parts by weight of a reinforcing filler, which comprises low specific surface area silica having a CTAB adsorption specific surface area of 65 m 2 /g to 90 m 2 /g; and 2-50 parts by weight of a liquid polymer, which has a glass transition temperature of -110°C to -70°C and has a weight average molecular weight of 3,000 g/mol to 100,000 g/mol.
Connector for a data and/or telecommunication cable comprising several wires having a connector housing and a wire guide element which has receivers for the wires and which is able to be inserted into the connector housing, wherein contacts for electroconductive connection to the wires are arranged in the connector housing, wherein the wire guide element has a first and a second element, the receivers for the wires in the wire guide element in a first section are arranged in a plane and are arranged to run substantially parallel to one another and, in a second section, one of the elements (31, 32) has at least one protrusion (31f, 32g) and the other of the elements (32, 31) has at least one recess (32f, 31g), characterised in that the protrusion (31f, 32g) and the recess (32f, 31g) are arranged relative to each other in such a way that the wires in the second section are able to be transferred in at least two different planes when joining the first and the second element (31, 32).
A method for power management in an electronic device that communicates over a network, said method comprising the steps of: monitoring a battery level of said electronic device; evaluating a power consumption of said electronic device in one or more transmission modes; establishing one or more threshold levels based on said power consumption information; and selecting a transmission rate of an active transmission link mode based on a comparison of said battery level to said one or more threshold levels. monitoring a battery level of said electronic device; evaluating a power consumption of said electronic device in one or more transmission modes; establishing one or more threshold levels based on said power consumption information; and selecting a transmission rate of an active transmission link mode based on a comparison of said battery level to said one or more threshold levels.
Weighing compartment with a work surface, scales, which are integrated in the weighing compartment and which comprise a weighing pan arranged at the work surface, and at least one control panel, which is arranged in the region of the work surface, wherein the work surface is formed by the surface of a planar, continuous plate, characterised in that the control panel is integrated in the work surface and constructed as a sensor surface, and a sensor is arranged below the plate forming the work surface.
A fluid meter comprising: a housing defining at least one crankcase and at least two cylinders (25, 26), a crankshaft disposed in the crankcase, at least two pistons (3, 4) respectively mounted in the cylinders (25, 26) for reciprocal movement, a first connecting rod connected to one of the pistons and to the crankshaft for rotating the crankshaft in response to the movement of the one piston, and a second connecting rod connected to the other piston and to the crankshaft for rotating the crankshaft in response to the movement of the other piston, wherein the first and second connecting rods (12, 13) have yoke slots (7, 8; 16, 17) with a circumferential periphery for receiving a crank pin radially offset from the crankshaft, characterised in that said circumferential periphery of each one of said yoke slots (7, 8;16, 17) has at least one resilient portion. a housing defining at least one crankcase and at least two cylinders (25, 26), a crankshaft disposed in the crankcase, at least two pistons (3, 4) respectively mounted in the cylinders (25, 26) for reciprocal movement, a first connecting rod connected to one of the pistons and to the crankshaft for rotating the crankshaft in response to the movement of the one piston, and a second connecting rod connected to the other piston and to the crankshaft for rotating the crankshaft in response to the movement of the other piston, wherein the first and second connecting rods (12, 13) have yoke slots (7, 8; 16, 17) with a circumferential periphery for receiving a crank pin radially offset from the crankshaft, characterised in that said circumferential periphery of each one of said yoke slots (7, 8;16, 17) has at least one resilient portion.
User interface, having a screen and a touch-sensitive surface for receiving touches by a user, wherein a cover glass is arranged on the screen and partially projects, by way of a protruding region, beyond the screen and the cover glass is mounted softly or not at all in the projecting region, and also an electromagnetic actuator, which is operatively connected to the cover glass in the projecting region, wherein the electromagnetic actuator is arranged on that side of the cover glass on which the screen is arranged, and also a controller, which is designed to identify touches on the touch-sensitive surface and to subsequently actuate the electromagnetic actuator such that feedback, which can be perceived, by the user is generated in the projecting region, wherein the feedback, which can be perceived by the user, is limited to the projecting region, wherein the cover glass is mounted softly or not at all in the projecting region, so that a free end of the projecting region, the free end facing away from the screen, can vibrate perpendicularly to the touch-sensitive surface in order to generate the feedback, which can be perceived by the user, once a touch on the touch-sensitive surface has been identified, wherein a vibration is generated by tensile force on the projecting region and a metal anchor is connected to the cover glass, the metal anchor being attracted by the electromagnetic actuator due to tensile forces being exerted and wherein the projecting region of the cover glass is a constituent part of the touch-sensitive surface and displays functions, so that the screen is arranged beneath the common cover glass. wherein a cover glass is arranged on the screen and partially projects, by way of a protruding region, beyond the screen and the cover glass is mounted softly or not at all in the projecting region, and also an electromagnetic actuator, which is operatively connected to the cover glass in the projecting region, wherein the electromagnetic actuator is arranged on that side of the cover glass on which the screen is arranged, and also a controller, which is designed to identify touches on the touch-sensitive surface and to subsequently actuate the electromagnetic actuator such that feedback, which can be perceived, by the user is generated in the projecting region, wherein the feedback, which can be perceived by the user, is limited to the projecting region, wherein the cover glass is mounted softly or not at all in the projecting region, so that a free end of the projecting region, the free end facing away from the screen, can vibrate perpendicularly to the touch-sensitive surface in order to generate the feedback, which can be perceived by the user, once a touch on the touch-sensitive surface has been identified, wherein a vibration is generated by tensile force on the projecting region and a metal anchor is connected to the cover glass, the metal anchor being attracted by the electromagnetic actuator due to tensile forces being exerted and wherein the projecting region of the cover glass is a constituent part of the touch-sensitive surface and displays functions, so that the screen is arranged beneath the common cover glass.
A modular dental system comprising: a control module including a first end, a second end, a control sub-system configured to communicatively couple to an attachment, detect an attachment identifier associated with the attachment when the attachment is removably attached to the first end of the control module, and control the attachment based on the attachment identifier, and a charging sub-system; and a battery module configured to removably attach to the second end of the control module; and a driver module configured to removably attach to the first end of the control module and removably attach to a first attachment. a control module including a first end, a second end, a control sub-system configured to communicatively couple to an attachment, detect an attachment identifier associated with the attachment when the attachment is removably attached to the first end of the control module, and control the attachment based on the attachment identifier, and a charging sub-system; and a first end, a second end, a control sub-system configured to communicatively couple to an attachment, detect an attachment identifier associated with the attachment when the attachment is removably attached to the first end of the control module, and control the attachment based on the attachment identifier, and a charging sub-system; and a battery module configured to removably attach to the second end of the control module; and a driver module configured to removably attach to the first end of the control module and removably attach to a first attachment.
Electronic lighting system comprising - a first light source adapted to emit light with a first brightness as a function of a first driving signal having a first frequency, wherein a light frequency (fL) of the light emitted by the first light source is the first frequency of the first driving signal, - at least one second light source having a main light sensor for providing a brightness of light surrounding the second light source, wherein the first light source is arranged in visual connection with the at least one second light source such that the light emitted by the first light source is detected by the main light sensor, and wherein the second light source is prepared to emit light with a second brightness as a function of a second driving signal with a second frequency, the second frequency of the second driving signal being adjusted to the light frequency (fL) of the light emitted by the first light source such that the first and second frequencies (f1, f2) are synchronized, therein the light frequency (fL) is detected by means of the main light sensor. - a first light source adapted to emit light with a first brightness as a function of a first driving signal having a first frequency, wherein a light frequency (fL) of the light emitted by the first light source is the first frequency of the first driving signal, - at least one second light source having a main light sensor for providing a brightness of light surrounding the second light source, wherein the first light source is arranged in visual connection with the at least one second light source such that the light emitted by the first light source is detected by the main light sensor, and wherein the second light source is prepared to emit light with a second brightness as a function of a second driving signal with a second frequency, the second frequency of the second driving signal being adjusted to the light frequency (fL) of the light emitted by the first light source such that the first and second frequencies (f1, f2) are synchronized, therein the light frequency (fL) is detected by means of the main light sensor.
A power and/or telecommunications cable comprising: - at least one electrically conductive elongate element, and - a first thermal protection layer surrounding said electrically conductive element, characterized in that the first thermal protection layer is coaxial to said electrically conducting layer, and comprises glass fibers, with a density of at least 0.5 g/cm 3. - at least one electrically conductive elongate element, and - a first thermal protection layer surrounding said electrically conductive element,
A fabrication apparatus to fabricate a three-dimensional object, the fabrication apparatus comprising a controller to control an operation of a fabrication apparatus to fabricate a three-dimensional object, the controller comprising: a measurement unit to measure a planar shape of a fabrication layer; a prediction unit to predict a displacement amount of a shape of the fabrication layer after a predetermined time has elapsed since fabrication of the fabrication layer by obtaining the displacement amount of the shape of the fabrication layer predicted from fabrication data based on physical properties of the fabrication material and the ambient temperature; and a correction unit to correct fabrication data of a next fabrication layer to be fabricated next to the fabrication layer based on planar shape data of the fabrication layer measured by the measurement unit and the displacement amount predicted by the prediction unit. a measurement unit to measure a planar shape of a fabrication layer; a prediction unit to predict a displacement amount of a shape of the fabrication layer after a predetermined time has elapsed since fabrication of the fabrication layer by obtaining the displacement amount of the shape of the fabrication layer predicted from fabrication data based on physical properties of the fabrication material and the ambient temperature; and a correction unit to correct fabrication data of a next fabrication layer to be fabricated next to the fabrication layer based on planar shape data of the fabrication layer measured by the measurement unit and the displacement amount predicted by the prediction unit.
A deep ultraviolet LED with chirped superlattice final barrier structure, comprising a sapphire substrate, an AIN intrinsic layer, an N-type AlGaN layer, a current spreading layer, a quantum well active layer, a chirped superlattice final barrier layer, an electron blocking layer, a P-type AlGaN injection layer and a P-type GaN contact layer; wherein the AIN intrinsic layer, the N-type AlGaN layer, the current spreading layer, the quantum well active layer, the chirped superlattice final barrier layer, the electron blocking layer, the P-type AlGaN injection layer and the P-type GaN contact layer have been sequentially deposited on the sapphire substrate; the chirped superlattice final barrier layer is a superlattice structure that is chirped in thickness and is composed of several Al a Ga 1-a N layers and several Al b Ga 1-b N layers alternately disposed; wherein the chirped superlattice final barrier layer is composed of n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, and n ≥2; in the period of n i = 1, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x and y respectively; in the direction from the quantum well active layer to the electron blocking layer, and in the n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x ± (n i -1)*t and y ± (n i -1)*t respectively, and 0.1 nm≤t≤10 nm, n i runs from 1 to n; wherein the Al a Ga 1-a N layer is a single layer structure of a single Al a Ga 1-a N composition, and the Al b Ga 1-b N layer is a single layer structure of a single Al b Ga 1-b N composition, and 0.4<a<b<1. the chirped superlattice final barrier layer is a superlattice structure that is chirped in thickness and is composed of several Al a Ga 1-a N layers and several Al b Ga 1-b N layers alternately disposed; wherein the chirped superlattice final barrier layer is composed of n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, and n ≥2; in the period of n i = 1, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x and y respectively; in the direction from the quantum well active layer to the electron blocking layer, and in the n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x ± (n i -1)*t and y ± (n i -1)*t respectively, and 0.1 nm≤t≤10 nm, n i runs from 1 to n;
A method for tightness testing, wherein a test object filled with test gas is inserted into a test chamber and a flow of a test gas is withdrawn from the test chamber, and wherein a gas mixture made of the test gas withdrawn from the test chamber and of a carrier gas is examined for the presence of test gas by use of a test gas sensor, said test gas sensor being arranged in the flow of the gas mixture downstream of a condensing pump (15,30), characterized in that the carrier gas is supplied, downstream of the test chamber, to the flow of the test gas withdrawn from the test chamber.