mhurhangee/patent-ind-claim-en huggingface dataset:
Machine for making coffee which includes: - a boiler for the water in which a funnel filter configured to contain the coffee is positioned; - a collector connected to the boiler and engageable with said boiler , configured to collect the final drink that comes out of a collection duct ; - electrical power supply means ; - an element for electric heating of the liquid in the boiler ; - air pumping means to vary the pressure inside the boiler by introducing or extracting air; - an electronic control system for the delivery of water and steam from the boiler to the collector through the funnel filter , configured to control and command the air pumping means ; characterized in that it also includes: - a valve interposed between the funnel filter and the boiler , which can be closed again so as to prevent communication between the boiler and the funnel filter to allow reaching inside the boiler a pre-established temperature and pressure, before being reopened to connect the boiler and the funnel filter and bring the water and steam from the boiler to the coffee contained in the funnel filter ; and - said electronic control system of water and steam delivery from the boiler to the collector through the funnel filter , being further configured to control and command the valve . - a boiler for the water in which a funnel filter configured to contain the coffee is positioned; - a collector connected to the boiler and engageable with said boiler , configured to collect the final drink that comes out of a collection duct ; - electrical power supply means ; - an element for electric heating of the liquid in the boiler ; - air pumping means to vary the pressure inside the boiler by introducing or extracting air; - an electronic control system for the delivery of water and steam from the boiler to the collector through the funnel filter , configured to control and command the air pumping means ; - a valve interposed between the funnel filter and the boiler , which can be closed again so as to prevent communication between the boiler and the funnel filter to allow reaching inside the boiler a pre-established temperature and pressure, before being reopened to connect the boiler and the funnel filter and bring the water and steam from the boiler to the coffee contained in the funnel filter ; and - said electronic control system of water and steam delivery from the boiler to the collector through the funnel filter , being further configured to control and command the valve .
A semiconductor integrated circuit, IC, comprising an inductor structure , the inductor structure comprising: a coil of conductive material comprising at least one turn; a current return encompassing the coil ; and a connector connecting the coil and the current return , wherein the connector connects a midpoint of the coil to the current return; wherein the current return is formed of a plurality of interconnected metal layers of the semiconductor integrated circuit; and wherein a same metal layer is used to form at least a portion of the coil , at least one metal layer of the current return , and the connector as a continuous portion of metal. a coil of conductive material comprising at least one turn; a current return encompassing the coil ; and a connector connecting the coil and the current return , wherein the connector connects a midpoint of the coil to the current return; wherein the current return is formed of a plurality of interconnected metal layers of the semiconductor integrated circuit; and wherein a same metal layer is used to form at least a portion of the coil , at least one metal layer of the current return , and the connector as a continuous portion of metal.
An energy transforming unit adapted to convert external forces (F) into rotating axle movements on at least one force transmitting axle or directly into electric power, wherein the energy transforming unit comprises: a conversion module (2a-d, 56, 64, 73, 80, 81, 87, Cm, 6xa, 6xb, 6xc) adapted to convert the external forces into rotating axle movements or into electric power, at least one restriction device which is arranged to forward the external forces (F) into reciprocating movement over the conversion module (2a-d, 56, 64, 73, 80, 81, 87, Cm. 6xa, 6xb, 6xc), a central unit (1a-q) which at least partly encloses the conversion module (2a-d, 56, 64, 73, 80, 81, 87, Cm, 6xa, 6xb, 6xc), and a fluid (FL) enclosed within an enclosed volume (V1) which is sealed off from the surroundings of the energy transforming unit, wherein the restriction device is arranged to forward the external force (F) into a reciprocating movement of said fluid (FL), the external forces (F) are forwarded into reciprocating movements over the conversion module (2a-d, 56, 73, 80, 81, 87, Cm, 6xa, 6xb, 6xc) by means of said reciprocating movement of the fluid (FL) and/or a reciprocating movement of a mechanical arrangement, and wherein , the energy transforming unit further comprises at least one yielding compliance chamber (C1, C2, Cxb, Cxa), containing a compressible medium wherein the at least one restriction device 3, 4, 5) is in connection with the at least one yielding compliance chamber (C1, C2, Cxb, Cxa) by means of said fluid (FL) to enable the reciprocating movement and absorption of energy. a conversion module (2a-d, 56, 64, 73, 80, 81, 87, Cm, 6xa, 6xb, 6xc) adapted to convert the external forces into rotating axle movements or into electric power, at least one restriction device which is arranged to forward the external forces (F) into reciprocating movement over the conversion module (2a-d, 56, 64, 73, 80, 81, 87, Cm. 6xa, 6xb, 6xc), a central unit (1a-q) which at least partly encloses the conversion module (2a-d, 56, 64, 73, 80, 81, 87, Cm, 6xa, 6xb, 6xc), and a fluid (FL) enclosed within an enclosed volume (V1) which is sealed off from the surroundings of the energy transforming unit, wherein the restriction device is arranged to forward the external force (F) into a reciprocating movement of said fluid (FL), the external forces (F) are forwarded into reciprocating movements over the conversion module (2a-d, 56, 73, 80, 81, 87, Cm, 6xa, 6xb, 6xc) by means of said reciprocating movement of the fluid (FL) and/or a reciprocating movement of a mechanical arrangement, and wherein , the energy transforming unit further comprises at least one yielding compliance chamber (C1, C2, Cxb, Cxa), containing a compressible medium wherein the at least one restriction device 3, 4, 5) is in connection with the at least one yielding compliance chamber (C1, C2, Cxb, Cxa) by means of said fluid (FL) to enable the reciprocating movement and absorption of energy.
A refrigerator comprising an ice making unit wherein ice cubes are formed and an ice cube tray that is moved by being rotated, a body whereon the ice cube tray is located and that encloses the ice cube tray and more than one sealing member that extends between the side walls of the body and the ice cube tray and of which one end is fixed on the body and the other end rests against the ice cube tray , characterized by the ice making unit comprising two sealing members that are disposed oppositely, one resting against the inner surface of the ice cube tray and the other against the outer surface of the ice cube tray .
A method of wireless communication between a scheduling entity and a plurality of scheduled entities in a cell utilizing a time division duplex, TDD, carrier, wherein the TDD carrier comprises a plurality of slots, the method comprising: configuring an uplink transmission duration of a slot structure for a scheduled entity of the plurality of scheduled entities based on a propagation delay between the scheduling entity and the scheduled entity, wherein the slot structure comprises an uplink-centric slot structure, and wherein configuring the uplink transmission duration of the slot structure for the scheduled entity further comprises: configuring a downlink burst of the uplink-centric slot structure for the scheduled entity based on the propagation delay to comprise downlink control information, DCI, within only a first symbol of the downlink burst or within more than one symbol of the downlink burst based on the propagation delay; transmitting slot structure configuration information indicating the uplink-centric slot structure comprising the uplink transmission duration to the scheduled entity; and communicating with the scheduled entity utilizing the uplink-centric slot structure. configuring an uplink transmission duration of a slot structure for a scheduled entity of the plurality of scheduled entities based on a propagation delay between the scheduling entity and the scheduled entity, wherein the slot structure comprises an uplink-centric slot structure, and wherein configuring the uplink transmission duration of the slot structure for the scheduled entity further comprises: configuring a downlink burst of the uplink-centric slot structure for the scheduled entity based on the propagation delay to comprise downlink control information, DCI, within only a first symbol of the downlink burst or within more than one symbol of the downlink burst based on the propagation delay; transmitting slot structure configuration information indicating the uplink-centric slot structure comprising the uplink transmission duration to the scheduled entity; and communicating with the scheduled entity utilizing the uplink-centric slot structure. configuring a downlink burst of the uplink-centric slot structure for the scheduled entity based on the propagation delay to comprise downlink control information, DCI, within only a first symbol of the downlink burst or within more than one symbol of the downlink burst based on the propagation delay; transmitting slot structure configuration information indicating the uplink-centric slot structure comprising the uplink transmission duration to the scheduled entity; and communicating with the scheduled entity utilizing the uplink-centric slot structure.
Method for manufacturing a prefab building element, comprising the steps of: A) providing a first wall part made of concrete, B) vertically positioning the first wall part, C) building a masonry wall forming a second wall part at a predetermined distance from the first wall part, thus forming a cavity in between said first wall part and said second wall part, D) bonding the first wall part and the second wall part by filling the cavity with an essentially liquid foam insulation material . A) providing a first wall part made of concrete, B) vertically positioning the first wall part, C) building a masonry wall forming a second wall part at a predetermined distance from the first wall part, thus forming a cavity in between said first wall part and said second wall part, D) bonding the first wall part and the second wall part by filling the cavity with an essentially liquid foam insulation material .
An exploding foil initiator apparatus , comprising: a bridge , said bridge having a first side, a second side, a bridge shape, and bridge dimensions including a bridge width; said bridge comprising a first extension of said bridge on said first side; a second extension of said bridge on said second side; said exploding foil initiator apparatus further comprising; a flyer on said bridge ; a current return path unit under said bridge ; and a fireset connected to said first extension of said bridge, said second extension of said bridge , and said bridge ; wherein said fireset is configured to produce a current density in said bridge ; said exploding foil initiator apparatus being characterized in that said bridge shape, said bridge dimensions, and said current return path unit are configured to produce a uniform current density in said bridge , by providing said first and second extensions with the bridge width up to a broadening taper region, said taper region forming corners with said first and second extensions ; said corners being distant from the region of the bridge directly under the flyer ; wherein the region of the bridge directly under the flyer is thinner than all the other region of the bridge , including the first extension of the bridge and the second extension of the bridge . a bridge , said bridge having a first side, a second side, a bridge shape, and bridge dimensions including a bridge width; said bridge comprising a first extension of said bridge on said first side; a second extension of said bridge on said second side; said exploding foil initiator apparatus further comprising; a flyer on said bridge ; a current return path unit under said bridge ; and a fireset connected to said first extension of said bridge, said second extension of said bridge , and said bridge ; wherein said fireset is configured to produce a current density in said bridge ; said exploding foil initiator apparatus being characterized in that said bridge shape, said bridge dimensions, and said current return path unit are configured to produce a uniform current density in said bridge , by providing said first and second extensions with the bridge width up to a broadening taper region, said taper region forming corners with said first and second extensions ; said corners being distant from the region of the bridge directly under the flyer ; wherein the region of the bridge directly under the flyer is thinner than all the other region of the bridge , including the first extension of the bridge and the second extension of the bridge .
Cover unit for a converter head of a high-voltage converter device , comprising a flat, preferably planar, cover element and an RIV shielding device peripherally surrounding the cover element for shielding radio interference voltage, characterized in that the RIV shielding device is formed by a plurality of RIV shielding elements , each having a substantially cylindrical shape, in particular a capsule shape, distributed peripherally on the edge of the cover element .
Method of allocating resources in a radio communication system providing resources for uplink transmission and for downlink transmission for a plurality of operators providing a service to a user equipment via the radio communication system, characterized in that a time division duplex configuration having an according allocation of uplink transmission time and/or an according allocation of downlink transmission time is selected based on information regarding a sharing characteristic for the radio resources defined by a service level agreement between operators sharing the radio resources.
A dental micro-applicator having a hollow sleeve-like application head with a distal (2.2) and a proximal (2.1) region and with an application region (5.1) at the front face of the proximal region (2.1) of the application head , wherein at least one punching spike , the tip of which is oriented toward distal, is arranged in the hollow sleeve-like application head in the proximal region (2.1), and an opening having a cross section (d 1 ) is formed at the front face of the proximal region (2.1) for passage of a liquid or paste to be applied, a micro-container , the outer shape of which corresponds to the positive of the inner shape of the application head being formed as the negative, being inserted, in particular slid in or turned in, from distal into the hollow sleeve-like application head , and the micro-container having an internal space to receive the liquid or paste to be applied, and the micro container being closed at its distal side and at its proximal front face , wherein the length (b) of the outer side wall of the application head to the length (c) of the outer side wall of the micro-container amounts to 1 to 1.2 to 1 to 25, wherein the punching spike with tip has a proximal base , by which the punching spike is fixed in the inner shape of the sleeve-like application head in the proximal region of the application head by means of a fit with transition fit or press fit of the outer shape of the base , wherein the punching spike has a conduit , being continuous from distal to proximal, with cross section (d 4 ), wherein the cross section (d 1 ) of the opening of the application head is greater than cross section (d 4 ). wherein at least one punching spike , the tip of which is oriented toward distal, is arranged in the hollow sleeve-like application head in the proximal region (2.1), and an opening having a cross section (d 1 ) is formed at the front face of the proximal region (2.1) for passage of a liquid or paste to be applied, a micro-container , the outer shape of which corresponds to the positive of the inner shape of the application head being formed as the negative, being inserted, in particular slid in or turned in, from distal into the hollow sleeve-like application head , and the micro-container having an internal space to receive the liquid or paste to be applied, and the micro container being closed at its distal side and at its proximal front face , wherein the length (b) of the outer side wall of the application head to the length (c) of the outer side wall of the micro-container amounts to 1 to 1.2 to 1 to 25, wherein the punching spike with tip has a proximal base , by which the punching spike is fixed in the inner shape of the sleeve-like application head in the proximal region of the application head by means of a fit with transition fit or press fit of the outer shape of the base , wherein the punching spike has a conduit , being continuous from distal to proximal, with cross section (d 4 ), wherein the cross section (d 1 ) of the opening of the application head is greater than cross section (d 4 ).
An information collecting method in which an information collector apparatus collects information accumulated in a content accumulating device via an information centric network, wherein: the information collector apparatus sends out an interest including request content data and matching target data to the information centric network; when a communication control apparatus connected to the information centric network receives the interest from the information collector apparatus , the communication control apparatus separates, from the interest, a simple interest that includes the request content data and does not include the matching target data and a complex interest that includes the matching target data, and sends out the simple interest to a low-speed communication path configuring the information centric network and the complex interest to a high-speed communication path configuring the information centric network; and when the content accumulating device receives the simple interest and the complex interest from the communication control apparatus , the content accumulating device associates the request content data included in the simple interest with the matching target data included in the complex interest, performs a matching process for verifying whether any of contents accumulated in the content accumulating device matches the matching target data based on criteria stipulated in the request content data, and sends out a response message including a matching result of the matching process to the information centric network. the information collector apparatus sends out an interest including request content data and matching target data to the information centric network; when a communication control apparatus connected to the information centric network receives the interest from the information collector apparatus , the communication control apparatus separates, from the interest, a simple interest that includes the request content data and does not include the matching target data and a complex interest that includes the matching target data, and sends out the simple interest to a low-speed communication path configuring the information centric network and the complex interest to a high-speed communication path configuring the information centric network; and when the content accumulating device receives the simple interest and the complex interest from the communication control apparatus , the content accumulating device associates the request content data included in the simple interest with the matching target data included in the complex interest, performs a matching process for verifying whether any of contents accumulated in the content accumulating device matches the matching target data based on criteria stipulated in the request content data, and sends out a response message including a matching result of the matching process to the information centric network.
A method of performing an assay to determine the presence or concentration of an analyte contained in a sample of body fluid by using a device comprising at least one analyte quantification member , a sensor associated therewith, and a catalyst producing mechanism configured to apply a catalyst for the increased expression of a bodily fluid from a wound, the method comprising: initiating application of the catalyst; applying a first sample to the analyte quantification member ; and detecting the presence or absence of an adequate sample volume; wherein upon detection of the absence of an adequate sample volume, initiating a finite timed period, and signaling the user to manually milk the wound to express a second sample of body fluid therefrom and to introduce the second sample of body fluid to the analyte quantification member . initiating application of the catalyst; applying a first sample to the analyte quantification member ; and detecting the presence or absence of an adequate sample volume; wherein upon detection of the absence of an adequate sample volume, initiating a finite timed period, and signaling the user to manually milk the wound to express a second sample of body fluid therefrom and to introduce the second sample of body fluid to the analyte quantification member .
A method for wireless power transfer using a multiple pulse width modulation, M-PWM, driver signal, comprising: generating the multiple PWM driver signal wherein the pulse width varies in accordance with the magnitude of a periodic modulating curve; modifying the M-PWM driver signal adjacent a zero-crossing of the periodic modulating wave, by reducing an interval between the zero-crossing and at least one pulse of the M-PWM driver signal closest to the zero-crossing; and using the modified M-PWM driver signal to open and close a switch in a wireless power transfer charging circuit. generating the multiple PWM driver signal wherein the pulse width varies in accordance with the magnitude of a periodic modulating curve; modifying the M-PWM driver signal adjacent a zero-crossing of the periodic modulating wave, by reducing an interval between the zero-crossing and at least one pulse of the M-PWM driver signal closest to the zero-crossing; and using the modified M-PWM driver signal to open and close a switch in a wireless power transfer charging circuit.
A device for firing a fluid projectile at a target body, comprising a handheld device for firing the projectile, wherein the handheld device comprises a propulsion drive for accelerating the projectile and a distance measuring device for measuring a distance between the handheld device and the target body, wherein the device moreover comprises an energy storage device for operating the propulsion drive , characterized in that the propulsion drive comprises a pump and the device comprises a control unit , whereby the pump can be controlled as a function of the measured distance.