mhurhangee/ep-ind-claims huggingface dataset:
A set for use in the preparation of a beverage by means of a beverage preparation device, comprising - a capsule, comprising a capsule body with an in particular flange-like edge, a cover which is attached to the edge and closes the capsule body in order to form a substance chamber, wherein, in the substance chamber, the capsule contains a substance for the preparation of the beverage; - an adapter which has a capsule side and a device side, wherein means for introducing a liquid into the capsule and means for discharging a liquid from the capsule are arranged on the capsule side such that the introduction of the liquid into the capsule and the discharge of the liquid from the capsule take place on only one side of the capsule, and wherein an inlet for a liquid prepared by the beverage preparation device and also an outlet are arranged on the device side; - wherein the inlet is fluidically connected to the means for introducing the liquid into the capsule and the outlet is fluidically connected to the means for discharging the liquid from the capsule, and - wherein the adapter and the capsule are connected to each other and in particular preassembled in a standby position in such a manner that they can be brought out of the standby position, in particular toward each other, into an operating position, in which the inlet of the adapter and the substance chamber of the capsule are fluidically connected to each other. - a capsule, comprising a capsule body with an in particular flange-like edge, a cover which is attached to the edge and closes the capsule body in order to form a substance chamber, wherein, in the substance chamber, the capsule contains a substance for the preparation of the beverage; - an adapter which has a capsule side and a device side, wherein means for introducing a liquid into the capsule and means for discharging a liquid from the capsule are arranged on the capsule side such that the introduction of the liquid into the capsule and the discharge of the liquid from the capsule take place on only one side of the capsule, and wherein an inlet for a liquid prepared by the beverage preparation device and also an outlet are arranged on the device side; - wherein the inlet is fluidically connected to the means for introducing the liquid into the capsule and the outlet is fluidically connected to the means for discharging the liquid from the capsule, and - wherein the adapter and the capsule are connected to each other and in particular preassembled in a standby position in such a manner that they can be brought out of the standby position, in particular toward each other, into an operating position, in which the inlet of the adapter and the substance chamber of the capsule are fluidically connected to each other.
A wear adjuster securable to disc brake caliper structure comprising: a stem extending along an axis about which the stem is rotatable in opposite directions, a spindle driver securable to an axial end of the stem to transmit rotational motion of the stem, an input element receiving input force supplied to the wear adjuster to produce rotation of the stem, a running clearance element rotatable together with the input element to a limited extent, characterised by a ratchet arrangement located between the input element and the running clearance element, the ratchet arrangement initiating any necessary adjustment for wear after rotation of the input element beyond the limited extent and completing any necessary adjustment for wear during return rotation of the input element, and a lost motion connection (33, 80) defined between the ratchet arrangement and the input element to avoid transmitting an excessive amount of the input force received by the input element. a stem extending along an axis about which the stem is rotatable in opposite directions, a spindle driver securable to an axial end of the stem to transmit rotational motion of the stem, an input element receiving input force supplied to the wear adjuster to produce rotation of the stem, a running clearance element rotatable together with the input element to a limited extent, characterised by a ratchet arrangement located between the input element and the running clearance element, the ratchet arrangement initiating any necessary adjustment for wear after rotation of the input element beyond the limited extent and completing any necessary adjustment for wear during return rotation of the input element, and a lost motion connection (33, 80) defined between the ratchet arrangement and the input element to avoid transmitting an excessive amount of the input force received by the input element.
A treatment unit comprising: two or more treatment elements for pressing a person to be treated; a treatment part having the treatment elements; an output shaft which drives the treatment part; a drive part which rotates the output shaft; and a swash plate eccentric cam which rotates integrally with the output shaft, wherein the swash plate eccentric cam has a ball bearing, a cam main body having a groove which is fitted to an inner ring of the ball bearing and rotating integrally with the inner ring of the ball bearing, a transmission plate holding part having a groove which is fitted to an outer ring of the ball bearing and holding a transmission plate, wherein the transmission plate holding part oscillates in a direction along an axis of rotation of the output shaft and a direction intersecting the axis of rotation due to the rotation of the cam main body rotating integrally with the output shaft and the rotation relative to the outer ring of the ball bearing, and wherein the transmission plate transmits the oscillation of the cam to the treatment elements such that the treatment part oscillates in the direction along the direction of the axis of rotation of the output shaft and the direction intersecting the direction of the axis without rotating with rotation of the swash plate eccentric cam. two or more treatment elements for pressing a person to be treated; a treatment part having the treatment elements; an output shaft which drives the treatment part; a drive part which rotates the output shaft; and a swash plate eccentric cam which rotates integrally with the output shaft, wherein the swash plate eccentric cam has a ball bearing, a cam main body having a groove which is fitted to an inner ring of the ball bearing and rotating integrally with the inner ring of the ball bearing, a transmission plate holding part having a groove which is fitted to an outer ring of the ball bearing and holding a transmission plate, wherein the transmission plate holding part oscillates in a direction along an axis of rotation of the output shaft and a direction intersecting the axis of rotation due to the rotation of the cam main body rotating integrally with the output shaft and the rotation relative to the outer ring of the ball bearing, and wherein the transmission plate transmits the oscillation of the cam to the treatment elements such that the treatment part oscillates in the direction along the direction of the axis of rotation of the output shaft and the direction intersecting the direction of the axis without rotating with rotation of the swash plate eccentric cam.
A system (100, 120) for use in a data center, the system comprising: a plurality of racks configured to house rack-mounted components, each of the racks having a front face to intake air, wherein the plurality of racks are arranged in a first row and a second row horizontally displaced from each other such that the front faces of racks of the first row are facing the front faces of the racks in the second row to define a cold aisle between the front faces, wherein the first row includes a first section and a second section; a cold air delivery mechanism configured to deliver cold air to the cold aisle; and a first baffle (28, 60, 114) extending at least partially between the front face of a first rack in the first row and the front face of a first rack in the second row, and being configured to inhibit horizontal airflow into and out of the cold aisle, wherein air within the cold aisle is relatively cooler than air located within the data center but outside of the cold aisle; characterised in that: the first section is separated from the second section; and the system further comprises a second baffle (110, 64) disposed at least partially between the first section and the second section and configured to inhibit horizontal airflow into and out of the cold aisle. a plurality of racks configured to house rack-mounted components, each of the racks having a front face to intake air, wherein the plurality of racks are arranged in a first row and a second row horizontally displaced from each other such that the front faces of racks of the first row are facing the front faces of the racks in the second row to define a cold aisle between the front faces, wherein the first row includes a first section and a second section; a cold air delivery mechanism configured to deliver cold air to the cold aisle; and a first baffle (28, 60, 114) extending at least partially between the front face of a first rack in the first row and the front face of a first rack in the second row, and being configured to inhibit horizontal airflow into and out of the cold aisle, wherein air within the cold aisle is relatively cooler than air located within the data center but outside of the cold aisle; characterised in that: the first section is separated from the second section; and the system further comprises a second baffle (110, 64) disposed at least partially between the first section and the second section and configured to inhibit horizontal airflow into and out of the cold aisle. the first section is separated from the second section; and the system further comprises a second baffle (110, 64) disposed at least partially between the first section and the second section and configured to inhibit horizontal airflow into and out of the cold aisle.
Sanitary fitting having - a housing body and - a functional unit, - - which comprises all water-carrying component parts and - - which is accommodated in the housing body of the sanitary fitting, the housing body comprising at least two shell-like components (1, 2), - - - which are made from a metal alloy or a plastic material in a die-casting method, characterised in that - the shell-like components (1,2) are connected to one another by means of an adhesive or material-merging joining method to form a hollow body surrounding the functional unit. - a housing body and - a functional unit, - - which comprises all water-carrying component parts and - - which is accommodated in the housing body of the sanitary fitting, - - which comprises all water-carrying component parts and - - which is accommodated in the housing body of the sanitary fitting, - - - which are made from a metal alloy or a plastic material in a die-casting method, - the shell-like components (1,2) are connected to one another by means of an adhesive or material-merging joining method to form a hollow body surrounding the functional unit.
Hand-held power tool, in particular screwdriver or drill driver, having a gear, arranged in a gear housing (24, 206), for driving an output spindle, and having a torque clutch (40, 200) assigned to the output spindle, wherein a transmission element that is axially movable in the direction of a longitudinal centre axis of the output spindle is provided, wherein a blocking element (60, 202) for activating and deactivating the torque clutch (40, 200) is provided, said blocking element (60, 202) being axially immovable in the direction of the longitudinal centre axis and movable in a plane arranged transversely to the longitudinal centre axis and being configured, in at least one first operating position, to enable axial movability of the transmission element in the direction of the longitudinal centre axis in order to activate the torque clutch (40, 200) and, in at least one second operating position, to at least limit the axial movability of the transmission element in order to deactivate the torque clutch (40, 200), wherein the output spindle, in the second operating position of the blocking element (60, 202), is at least substantially immovable axially in the direction of the longitudinal centre axis relative to the gear housing (24, 206), wherein at least one supporting element is formed on an end face of the blocking element (60, 202), said supporting element facing in the direction of the transmission element, characterized in that the gear housing (24, 206), to receive the blocking element (60, 202), has, at least partially, on its outer circumference a groove having at least one supporting rib.
A wireless communication apparatus comprising: a gyrator including at least four terminals (1,2,3,4) and adapted to transmit reception signals received by an antenna in one direction and transmission signals to be transmitted by the antenna in another direction; a single-phase differential converter adapted to mutually convert single-phase signals and differential signals; a differential low-noise amplifier adapted to amplify the reception signals that the gyrator outputs; and a differential power amplifier adapted to amplify the transmission signals to be output to the gyrator, wherein the gyrator is adapted to transmit signals from first two terminals (1, 2; 1, 3) in the direction of two second terminals (3, 4; 1, 2), and wherein each of the single-phase differential converter, the differential low-noise amplifier, and the differential power amplifier is respectively connected: - to the first terminal and second terminal, - the third terminal and fourth terminal, - the first terminal and third terminal, or the second terminal and fourth terminal of the gyrator; the gyrator being configured to transmit the transmission signals in one direction, from the differential power amplifier to the antenna, and to transmit the reception signals in one direction, from the single-phase differential converter to the differential low-noise amplifier. a gyrator including at least four terminals (1,2,3,4) and adapted to transmit reception signals received by an antenna in one direction and transmission signals to be transmitted by the antenna in another direction; a single-phase differential converter adapted to mutually convert single-phase signals and differential signals; a differential low-noise amplifier adapted to amplify the reception signals that the gyrator outputs; and a differential power amplifier adapted to amplify the transmission signals to be output to the gyrator, wherein the gyrator is adapted to transmit signals from first two terminals (1, 2; 1, 3) in the direction of two second terminals (3, 4; 1, 2), and wherein each of the single-phase differential converter, the differential low-noise amplifier, and the differential power amplifier is respectively connected: - to the first terminal and second terminal, - the third terminal and fourth terminal, - the first terminal and third terminal, or the second terminal and fourth terminal of the gyrator; - to the first terminal and second terminal, - the third terminal and fourth terminal, - the first terminal and third terminal, or the second terminal and fourth terminal of the gyrator; the gyrator being configured to transmit the transmission signals in one direction, from the differential power amplifier to the antenna, and to transmit the reception signals in one direction, from the single-phase differential converter to the differential low-noise amplifier.
An apparatus for atomizing molten slag and recovering valuable metals, comprising: a slag pot (10, 110); a vortex forming member (20, 120) connected to the slag pot (10, 110) and having an upper portion formed in a hopper shape for supplying molten slag to the slag pot (10, 110) while forming a vortex in the molten slag; a slag supply pot (30, 130) connected to the vortex forming member (20, 120) for supplying molten slag to the vortex forming member (20, 120); and a reducing agent supplying pipe member (40, 210) for supplying a reducing agent to the slag pot (10, 110), wherein an end of the reducing agent supplying pipe member (40, 210) is disposed above a space defined between a center of the vortex forming member (20, 120) and an edge thereof so that the reducing agent can be supplied to the molten slag in the vortex forming member (20, 120) at the position of the space. a slag pot (10, 110); a vortex forming member (20, 120) connected to the slag pot (10, 110) and having an upper portion formed in a hopper shape for supplying molten slag to the slag pot (10, 110) while forming a vortex in the molten slag; a slag supply pot (30, 130) connected to the vortex forming member (20, 120) for supplying molten slag to the vortex forming member (20, 120); and a reducing agent supplying pipe member (40, 210) for supplying a reducing agent to the slag pot (10, 110), wherein an end of the reducing agent supplying pipe member (40, 210) is disposed above a space defined between a center of the vortex forming member (20, 120) and an edge thereof so that the reducing agent can be supplied to the molten slag in the vortex forming member (20, 120) at the position of the space.
A pressure sensor having a sensor body (2, 20; 2', 20; 2", 20') with a diaphragm (20; 20'), the sensor body (2, 20; 2', 20; 2", 20') and the diaphragm (20; 20') being at least partly formed with an electrically insulating material, particularly a ceramic material, and defining a cavity (3; 3'), the diaphragm (20; 20') at least partly facing said cavity (3; 3') and having thereon at least part of a detection element (21, 22) configured for detecting a bending or deformation of the diaphragm (20; 20'), wherein the sensor body (2, 20; 2', 20; 2", 20') supports a circuit arrangement, in signal communication with the detection element (21, 22) and comprising a plurality of circuit components (7, 10, 15), among which an integrated circuit, the circuit arrangement being prearranged for treating a signal generated by the detection element (21, 22), characterized in that - the said integrated circuit consists of a die made of a semiconductor material; - the circuit arrangement includes an electric circuit pattern comprising a plurality of tracks made of electrically conductive material directly deposited onto a first surface of the sensor body (2, 20; 2', 20; 2", 20') that is made of electrically insulating material, said tracks being organized such that a region of said first surface is directly exposed for the mechanical bonding, particularly through glue-bonding or resin-bonding, of the said die; - the die is directly bonded to said first surface, at said region, i.e., a zone not occupied by said tracks; - said die is connected to respective said tracks by wire bonding, i.e., by means of thin flexible connecting wires, made of an electrically conductive material. - the said integrated circuit consists of a die made of a semiconductor material; - the circuit arrangement includes an electric circuit pattern comprising a plurality of tracks made of electrically conductive material directly deposited onto a first surface of the sensor body (2, 20; 2', 20; 2", 20') that is made of electrically insulating material, said tracks being organized such that a region of said first surface is directly exposed for the mechanical bonding, particularly through glue-bonding or resin-bonding, of the said die; - the die is directly bonded to said first surface, at said region, i.e., a zone not occupied by said tracks; - said die is connected to respective said tracks by wire bonding, i.e., by means of thin flexible connecting wires, made of an electrically conductive material.
Ignition device, in particular ignition device for fuses of pyrotechnical items, detonators, simulators etc., whereby the ignition device has a first assembly with a percussion cap and a firing pin that acts on the percussion cap for the purpose of triggering the ignition and a second assembly that is connected via a wire with the firing pin and is swivel-mounted to actuate the firing pin from the joint longitudinal axis of the two assemblies (3, 4) and whereby the first assembly has a surface on its face towards the second assembly that enables the pushing away of the second assembly from the first assembly.
A computer-implemented method of predicting energy use for a route comprising: inputting map data of roads included in K trips in a geographical area, and inputting predictors of rate of energy use along the roads; inputting energy consumption data of the K trips, the energy consumption data indicating total energy use T between a start point A and an end point B of each of the K trips; dividing each of the roads in the map data for all the K trips into segments of length measure λ i; grouping the segments from the trips into a number N of clusters, the clusters defined in accordance with ranges of at least one of the predictors, each cluster being defined as having a weight W j which is to be determined; using an algorithm to build a model predicting the weights W j based on solving a system of equations, one per trip, each equation equating the known total energy use T of the trip with the sum of the known length measure of each segment in the trip multiplied by the weight for the cluster into which the segment was grouped; for each segment, assigning the predicted weight W j applied to the cluster in which the segment was grouped as the predicted rate of energy use Y i; and storing a segment ID with an indication of the predicted rate of energy use Y i to allow prediction of energy use for a route in the geographical area incorporating one or more of the segments. inputting map data of roads included in K trips in a geographical area, and inputting predictors of rate of energy use along the roads; inputting energy consumption data of the K trips, the energy consumption data indicating total energy use T between a start point A and an end point B of each of the K trips; dividing each of the roads in the map data for all the K trips into segments of length measure λ i; grouping the segments from the trips into a number N of clusters, the clusters defined in accordance with ranges of at least one of the predictors, each cluster being defined as having a weight W j which is to be determined; using an algorithm to build a model predicting the weights W j based on solving a system of equations, one per trip, each equation equating the known total energy use T of the trip with the sum of the known length measure of each segment in the trip multiplied by the weight for the cluster into which the segment was grouped; for each segment, assigning the predicted weight W j applied to the cluster in which the segment was grouped as the predicted rate of energy use Y i; and storing a segment ID with an indication of the predicted rate of energy use Y i to allow prediction of energy use for a route in the geographical area incorporating one or more of the segments.
An integrated antenna, comprising an antenna unit and a radio frequency unit, wherein the radio frequency unit comprises a duplexer, a power amplifier circuit board, and a transceiver circuit board, the duplexer connects to the power amplifier circuit board and the transceiver circuit board, the power amplifier circuit board connects to the transceiver circuit board, the power amplifier circuit board and the transceiver circuit board are respectively located at two end portions of the duplexer, the power amplifier circuit board and the transceiver circuit board are projected along a direction being vertical to the surface of the power amplifier circuit board where the power amplifier circuit board or the transceiver circuit board are located, onto the same plane, with their projections on the same plane non-overlapping each other, and the duplexer connects to a circuit board of the antenna unit through a coaxial connector; characterized in that the antenna unit comprises a reflection board, a hole is opened on the reflection board, the coaxial connector is sleeved in the hole, and an insulating portion is disposed between an external conductor of the coaxial connector and a peripheral side of the hole of the reflection board.