mhurhangee/ep-ind-claims huggingface dataset:
A device for inductively coupled communications comprising: - a near field communication module being adapted to generate an electromagnetic carrier signal and to modulate the carrier signal according to data to be transmitted, said NFC module including a differential transmitter and a single ended receiver; - an antenna coupled to said NFC module and driven by said NFC module with the modulated carrier signal, said antenna being a single ended antenna; a capacitor (C PAR) connected in parallel between the antenna and ground; and - an RF front end coupled between said NFC module and said antenna; - said RF front end including an inductor coupled to a first terminal of said differential transmitter in the first transmitting path, and a capacitor coupled to a second terminal of said differential transmitter in the second transmitting path; - said RF front end further including a receiving path coupled to an input terminal of said single ended receiver; wherein said RF front end does not use a balanced to unbalanced (Balun) transformer characterized in that a capacitor (C TX1) is connected in series with the inductor, said capacitor (C TX1) being coupled to said first terminal of said differential transmitter in the first transmitting path. - a near field communication module being adapted to generate an electromagnetic carrier signal and to modulate the carrier signal according to data to be transmitted, said NFC module including a differential transmitter and a single ended receiver; - an antenna coupled to said NFC module and driven by said NFC module with the modulated carrier signal, said antenna being a single ended antenna; a capacitor (C PAR) connected in parallel between the antenna and ground; and - an RF front end coupled between said NFC module and said antenna; - said RF front end including an inductor coupled to a first terminal of said differential transmitter in the first transmitting path, and a capacitor coupled to a second terminal of said differential transmitter in the second transmitting path; - said RF front end further including a receiving path coupled to an input terminal of said single ended receiver; wherein said RF front end does not use a balanced to unbalanced (Balun) transformer characterized in that a capacitor (C TX1) is connected in series with the inductor, said capacitor (C TX1) being coupled to said first terminal of said differential transmitter in the first transmitting path.
A method comprising: receiving, an instruction from a memory system controller at a sequencer (140A..140N) of a plurality of sequencers (140A..140N) that are included within a single package (130A...130N) external to the memory system controller, wherein each sequencer (140A... 140N) of the plurality of sequencers (140A..140N) interfaces with one or more respective memory components (112A.... 112N, 112A....112N), the instruction is to access the one or more respective memory components (112A... 112N, 112A...112N) via the sequencer and performing, by a processing device of the sequencer (140A...140N), an operation, based on the instruction, on at least one respective memory component (112A....112N, 112A....112N), the processing device schedules when to issue subsequent operations to the at least one respective memory component (112A... 112N, 112A...112N). receiving, an instruction from a memory system controller at a sequencer (140A..140N) of a plurality of sequencers (140A..140N) that are included within a single package (130A...130N) external to the memory system controller, wherein each sequencer (140A... 140N) of the plurality of sequencers (140A..140N) interfaces with one or more respective memory components (112A.... 112N, 112A....112N), the instruction is to access the one or more respective memory components (112A... 112N, 112A...112N) via the sequencer and performing, by a processing device of the sequencer (140A...140N), an operation, based on the instruction, on at least one respective memory component (112A....112N, 112A....112N), the processing device schedules when to issue subsequent operations to the at least one respective memory component (112A... 112N, 112A...112N).
A system, in particular for image-guided surgery, comprising: at least two display devices (2, 3); a position determinator for determining the relative position between the display devices (2, 3); and an image generator for generating images, which are to be displayed by the display devices (2, 3), in accordance with the determined relative position; characterised by the system further comprising a viewer detector for identifying a viewer who is viewing a display device (2, 3) out of the at least two display devices, wherein the image generator is configured to generate an image for this display device in accordance with the identity of the viewer.
A fuel system for a turbomachine comprising: a fuel tank; a first fuel line in fluid communication with the fuel tank and one or more fuel injectors, the first fuel line comprising: a main fuel pump disposed on the first fuel line; an electric metering system disposed on the first fuel line downstream of the main fuel pump configured for starting the turbomachine and metering fuel to the fuel injectors; characterised in that: the metering system includes a separate electric starter pump and a controllable metering valve; and a fuel-oil cooler is disposed on the first fuel line, wherein the fuel-oil cooler is downstream of the main fuel pump and the electric metering system. a fuel tank; a first fuel line in fluid communication with the fuel tank and one or more fuel injectors, the first fuel line comprising: a main fuel pump disposed on the first fuel line; an electric metering system disposed on the first fuel line downstream of the main fuel pump configured for starting the turbomachine and metering fuel to the fuel injectors; characterised in that: the metering system includes a separate electric starter pump and a controllable metering valve; and a fuel-oil cooler is disposed on the first fuel line, wherein the fuel-oil cooler is downstream of the main fuel pump and the electric metering system. a main fuel pump disposed on the first fuel line; an electric metering system disposed on the first fuel line downstream of the main fuel pump configured for starting the turbomachine and metering fuel to the fuel injectors; characterised in that: the metering system includes a separate electric starter pump and a controllable metering valve; and a fuel-oil cooler is disposed on the first fuel line, wherein the fuel-oil cooler is downstream of the main fuel pump and the electric metering system. the metering system includes a separate electric starter pump and a controllable metering valve; and a fuel-oil cooler is disposed on the first fuel line, wherein the fuel-oil cooler is downstream of the main fuel pump and the electric metering system.
Safety workbench having a work space surrounded by a housing having a work opening located in the housing front side and adjustable with an adjustable front panel for admitting an air inlet flow into the work space, an exhaust fan and a circulating fan for conveying an air flow in the safety workbench, which are designed such that a partial air flow drawn in by the exhaust fan is blown through an exhaust air filter as an exhaust air flow out of the safety workbench and a partial air flow drawn in by the circulating fan is blown through a circulating air filter as a downwardly directed circulating air flow into the work space, and a control device, a differential pressure sensor and two pressure transducers (17, 18) connected thereto which are designed to measure a pressure at two different positions within the safety workbench, characterized in that a first of the pressure transducers is arranged in the immediate vicinity of the fan blades on the low-pressure side of the circulating fan and a second of the pressure transducers is arranged in a low-flow area on the low-pressure side of the circulating fan.
A female mould having a forming cavity inside which a concave object can be formed, the female mould (1; 101; 201) comprising: - an annular forming element (4; 104; 204) extending about an axis and delimiting the forming cavity about said axis; - a plate element (5; 105; 205) which delimits the forming cavity transversely to said axis, the plate element (5; 105; 205) having a reference surface extending transversely to said axis outside the forming cavity; - a peripheral annular component (15; 115) at least partially surrounding the annular forming element (4; 104; 204), wherein the annular forming element (4; 104; 204) abuts against a first portion of the reference surface of the plate element (5; 105; 205), characterized in that the peripheral annular component (15; 115) abuts against a second portion of the reference surface of the plate element (5; 105; 205). - an annular forming element (4; 104; 204) extending about an axis and delimiting the forming cavity about said axis; - a plate element (5; 105; 205) which delimits the forming cavity transversely to said axis, the plate element (5; 105; 205) having a reference surface extending transversely to said axis outside the forming cavity; - a peripheral annular component (15; 115) at least partially surrounding the annular forming element (4; 104; 204),
Container treatment system with a first container treatment apparatus for treating containers, a second container treatment apparatus that is disposed downstream of the first treatment apparatus and is used for treating the containers following a treatment by the first container treatment apparatus, wherein the both container treatment apparatus (10, 20) can be operated independently from each other, a transport unit for transporting containers, wherein the transport unit comprises a transport path which is arranged over its entire length between the first and second container treatment apparatus (10, 20) and along which the containers can be transported from the first container treatment apparatus to the second container treatment apparatus, and wherein the transport unit further comprises a plurality of transport members movably mounted on the transport path for holding and transporting a container, wherein the transport path and the transport members are designed in such a way that the transport members can compensate on their path between the first and second container treatment apparatus (10, 20) at least at times a difference in transport speed of the containers in the first and second container treatment apparatus (10, 20), wherein the transport path is provided with windings which can be driven individually and the transport members are provided with a permanent magnet by which the transport member can be driven by means of a magnetic force at least at times, and wherein the movement of the transport members with respect to the transport path can be controlled independently from each other, characterized in that the transport members are in each case provided with a retaining clamp arranged on top of the transport member for holding and transporting individual containers, wherein the retaining clamps grab and hold the containers above or below a neck ring of the containers.
A method for configuring a downlink transmit power by a Base Band Unit, BBU, via a Remote Radio Head, RRH, in a cloud RAN, C-RAN, environment having the RRH and the BBU separated from each other, the method comprising: determining, based on RRH power headroom information acquired from an entity managing a system capacity of the RRH, a required power which the BBU will make a request to the RRH to transmit a downlink signal to a terminal, wherein the required power is determined as a value smaller than or equal to power headroom of the RRH indicated by the RRH power headroom information; and transmitting, to one or more other BBUs connected to the RRH, a power allocation change request message for requesting that the one or more other BBUs change a transmit power allocated to the RRH according to the required power. determining, based on RRH power headroom information acquired from an entity managing a system capacity of the RRH, a required power which the BBU will make a request to the RRH to transmit a downlink signal to a terminal, wherein the required power is determined as a value smaller than or equal to power headroom of the RRH indicated by the RRH power headroom information; and transmitting, to one or more other BBUs connected to the RRH, a power allocation change request message for requesting that the one or more other BBUs change a transmit power allocated to the RRH according to the required power.
A laundry treating apparatus comprising: a cabinet provided with a receiving space in which laundry is received; a door having an inner side; a supply unit (71, 72) for supplying at least one of the air and water into the receiving space; a presser provided in the receiving space to pressurize the laundry so as to remove a wrinkle of the laundry; and a clamp unit provided below the presser to pressure and fix the laundry before pressurizing the laundry by using the presser, wherein the clamp unit includes a compression unit for pressurizing the laundry, and a link, characterized in that the link has one end connected to the compression unit, and the other end rotatably connected to the inner circumference of the receiving space or the inner side of the door by a rotation unit, wherein the link is rotatably connected in a height direction of the laundry treating apparatus, wherein a rotational shaft of the link is provided in parallel with the ground, so that an interval between the compression unit and the inner circumference of the receiving space or the inner side of the door can be adjusted in accordance with the rotation of the link. a cabinet provided with a receiving space in which laundry is received; a door having an inner side; a supply unit (71, 72) for supplying at least one of the air and water into the receiving space; a presser provided in the receiving space to pressurize the laundry so as to remove a wrinkle of the laundry; and a clamp unit provided below the presser to pressure and fix the laundry before pressurizing the laundry by using the presser, wherein the clamp unit includes a compression unit for pressurizing the laundry, and a link, characterized in that the link has one end connected to the compression unit, and the other end rotatably connected to the inner circumference of the receiving space or the inner side of the door by a rotation unit, wherein the link is rotatably connected in a height direction of the laundry treating apparatus, wherein a rotational shaft of the link is provided in parallel with the ground, so that an interval between the compression unit and the inner circumference of the receiving space or the inner side of the door can be adjusted in accordance with the rotation of the link.
Drive unit for a closing device of a door, a window door or the like, comprising an electrical control device for a closing element (9 - 11), comprising an electronic controller of the electrical control device, comprising a power source for supplying the electronic controller and the electrical control device with electrical current, comprising a housing for receiving at least the components of the controller and comprising an operating element of the electronic controller arranged behind an opening of the housing, characterized in that the operating element is covered by a detachable cover.
A process for operating a micro-lattice cross-flow heat exchanger for an aircraft, the process comprising: receiving a first fluid in a first aircraft fluid source inlet from a first aircraft system; receiving a second fluid in a second aircraft fluid source inlet from a second aircraft system; supporting an aviation induced structural load on a structural body forming two interpenetrating fluidically isolated volumes and comprising a plurality of hollow channels (304, 316); flowing the first fluid from the first aircraft fluid source inlet into the hollow channels through a first manifold; flowing the first fluid within the hollow channels; flowing the first fluid out of a second manifold from the hollow channels; flowing the second fluid from the second aircraft fluid source inlet external to the hollow channels; and transferring heat between the first fluid and the second fluid via the structural body; characterized in that the plurality of hollow channels comprise a hollow three-dimensional micro-truss comprising a plurality of truss elements (324,326,328) extending along at least three directions (330,332,334), and a plurality of hollow nodes (302,314) interpenetrated by the hollow truss elements; in that the first manifold comprises a plurality of first openings through a first surface into the hollow channels; and in that the second manifold comprises a plurality of second openings through a second surface from the hollow channels. receiving a first fluid in a first aircraft fluid source inlet from a first aircraft system; receiving a second fluid in a second aircraft fluid source inlet from a second aircraft system; supporting an aviation induced structural load on a structural body forming two interpenetrating fluidically isolated volumes and comprising a plurality of hollow channels (304, 316); flowing the first fluid from the first aircraft fluid source inlet into the hollow channels through a first manifold; flowing the first fluid within the hollow channels; flowing the first fluid out of a second manifold from the hollow channels; flowing the second fluid from the second aircraft fluid source inlet external to the hollow channels; and transferring heat between the first fluid and the second fluid via the structural body; characterized in that the plurality of hollow channels comprise a hollow three-dimensional micro-truss comprising a plurality of truss elements (324,326,328) extending along at least three directions (330,332,334), and a plurality of hollow nodes (302,314) interpenetrated by the hollow truss elements; in that the first manifold comprises a plurality of first openings through a first surface into the hollow channels; and in that the second manifold comprises a plurality of second openings through a second surface from the hollow channels.
A method of controlling the climate in a building using at least one domestic system or at least one process technology system, comprising the following steps: (a) providing a thermodynamic model for the building, wherein the thermodynamic model comprises at least one input variable, wherein the thermodynamic model comprises a building use model which is user-dependent; (b) providing actual data for the at least one input variable by means of RFID readers which are arranged in or at passages between rooms of the building for recording numbers of persons; (c) determining at least one control variable for the domestic system or the process technology system using the thermodynamic model and the actual values of the at least one input variable; and (d) controlling the domestic system or the process technology system using the at least one determined control variable. (a) providing a thermodynamic model for the building, wherein the thermodynamic model comprises at least one input variable, wherein the thermodynamic model comprises a building use model which is user-dependent; (b) providing actual data for the at least one input variable by means of RFID readers which are arranged in or at passages between rooms of the building for recording numbers of persons; (c) determining at least one control variable for the domestic system or the process technology system using the thermodynamic model and the actual values of the at least one input variable; and (d) controlling the domestic system or the process technology system using the at least one determined control variable.
A method of screening for and predicting the likelihood that a pregnant female patient will develop early pre-eclampsia and determining the need for providing a treatment to said patient comprising: (a) determining the a priori risk of developing early pre-eclampsia from maternal factors comprising previous pre-eclampsia, chronic hypertension, and renal disease; (b) determining the a posteriori risk of developing early pre-eclampsia from patient-specific factors comprising mean uterine artery pulsatility index (UtA-PI), mean arterial pressure, and said a priori risk; (c) determining whether said a posteriori risk exceeds a pre-determined threshold risk; and (d) determining the need for providing a treatment to said patient if said a posteriori risk exceeds said threshold risk, said treatment being selected from: administering a pharmaceutical agent to said patient to prevent, treat, reduce the severity of, or delay the onset of pre-eclampsia or eclampsia; implementing a change in diet or nutrition; inducing labor; performing a Cesarean-section; increasing the frequency of blood pressure measurements for said patient; increasing the frequency of blood testing; and increasing the frequency of fetal monitoring, wherein said a posteriori risk is determined by e Y /[1 + e Y], where Y = − 0.363 + 2.653 log a p r i o r i risk + 12.88 × log MoM mean UtA-PI + 25.915 × log MoM mean arterial pressure; where said a priori risk is determined by e Y' /[1 + e Y'], where Y ′ = − 5.617 + 2.659 if previous pre-eclampsia + ( 1.729 if chronic hypertension) + 3.765 if renal disease. (a) determining the a priori risk of developing early pre-eclampsia from maternal factors comprising previous pre-eclampsia, chronic hypertension, and renal disease; (b) determining the a posteriori risk of developing early pre-eclampsia from patient-specific factors comprising mean uterine artery pulsatility index (UtA-PI), mean arterial pressure, and said a priori risk; (c) determining whether said a posteriori risk exceeds a pre-determined threshold risk; and (d) determining the need for providing a treatment to said patient if said a posteriori risk exceeds said threshold risk, said treatment being selected from: administering a pharmaceutical agent to said patient to prevent, treat, reduce the severity of, or delay the onset of pre-eclampsia or eclampsia; implementing a change in diet or nutrition; inducing labor; performing a Cesarean-section; increasing the frequency of blood pressure measurements for said patient; increasing the frequency of blood testing; and increasing the frequency of fetal monitoring,
An industrial thermoelectric generation assembly comprising: a plurality of thermoelectric generation modules, each module having a first side, a second side opposite the first side, and a lateral surface; and an inorganic thermally insulative fabric material surrounding the lateral surface of each thermoelectric module; wherein the first side of each thermoelectric module is disposed to contact a process heat source, and the second side is configured to be exposed to an ambient environment; wherein at least two of the plurality of thermoelectric generation modules are wired in series; and wherein the industrial thermoelectric generation assembly is flexible. a plurality of thermoelectric generation modules, each module having a first side, a second side opposite the first side, and a lateral surface; and an inorganic thermally insulative fabric material surrounding the lateral surface of each thermoelectric module; wherein the first side of each thermoelectric module is disposed to contact a process heat source, and the second side is configured to be exposed to an ambient environment; wherein at least two of the plurality of thermoelectric generation modules are wired in series; and wherein the industrial thermoelectric generation assembly is flexible.