mhurhangee/patent-ind-claim-en huggingface dataset:
A transponder circuit , comprising: a plurality of transponder channel circuits (102-1, 102-2, 102-3), individually including a signal input node pair (106-1,108-1; 106-2, 108-2; 106-3,108-3) adapted to receive a radio frequency RF signal from an associated transponder antenna circuit (104-1, 104-2, 104-3), the individual signal input node pairs including a first signal input node, and a second signal input node; characterized by a modulation capacitor circuit, including: a modulation capacitor , including a first capacitor node , and a second capacitor node , a channel switching circuit adapted to selectively connect the capacitor nodes of the modulation capacitor to a selected one of the signal input node pairs according to a channel select signal (CHSEL), and a modulation control circuit connected to the modulation capacitor to selectively modify a capacitance of the modulation capacitor according to a modulation control signal (CAPSEL). a plurality of transponder channel circuits (102-1, 102-2, 102-3), individually including a signal input node pair (106-1,108-1; 106-2, 108-2; 106-3,108-3) adapted to receive a radio frequency RF signal from an associated transponder antenna circuit (104-1, 104-2, 104-3), the individual signal input node pairs including a first signal input node, and a second signal input node; characterized by a modulation capacitor circuit, including: a modulation capacitor , including a first capacitor node , and a second capacitor node , a channel switching circuit adapted to selectively connect the capacitor nodes of the modulation capacitor to a selected one of the signal input node pairs according to a channel select signal (CHSEL), and a modulation control circuit connected to the modulation capacitor to selectively modify a capacitance of the modulation capacitor according to a modulation control signal (CAPSEL).
Load transfer device for collecting and transferring harvested material to a transport vehicle , in particular herbaceous biomass, comprising - a collection unit for collecting the harvested material from the ground; - a cutting unit for cutting up the collected harvested material; - an intermediate store for receiving the cut harvested material; - a conveying device for conveying the cut harvested material from the intermediate store to a load transfer unit of the load transfer device , by means of which the cut harvested material can be conveyed into a loading space of the transport vehicle arranged laterally next to the load transfer device over a loading space wall of the loading space; characterised in that the load transfer device is a trailer or a motor vehicle, wherein in a chassis of the load transfer device at least one wheel is laterally extendable. - a collection unit for collecting the harvested material from the ground; - a cutting unit for cutting up the collected harvested material; - an intermediate store for receiving the cut harvested material; - a conveying device for conveying the cut harvested material from the intermediate store to a load transfer unit of the load transfer device , by means of which the cut harvested material can be conveyed into a loading space of the transport vehicle arranged laterally next to the load transfer device over a loading space wall of the loading space;
A method of identifying a cell population comprising an antibody secreting cell (ASC) exhibiting an extracellular effect attributable to an antibody secreted by the ASC, comprising: retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC, wherein the contents of the microreactor further comprise a readout particle population comprising one or more readout beads functionalized to bind the secreted antibody of the ASC, wherein the readout particle population or a subpopulation thereof provides a direct or indirect readout of the extracellular effect and is fluorescently labeled, and wherein the extracellular effect is a binding interaction between an antibody secreted by the ASC to the readout particle population, or subpopulation thereof; incubating the cell population and the readout particle population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying the heterogeneous cell population for the presence of the extracellular effect via detection of the fluorescent label, and determining, based on the results of the assaying step, whether the ASC within the heterogeneous cell population exhibits the extracellular effect attributable to an antibody secreted by the ASC. retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC, wherein the contents of the microreactor further comprise a readout particle population comprising one or more readout beads functionalized to bind the secreted antibody of the ASC, wherein the readout particle population or a subpopulation thereof provides a direct or indirect readout of the extracellular effect and is fluorescently labeled, and wherein the extracellular effect is a binding interaction between an antibody secreted by the ASC to the readout particle population, or subpopulation thereof; incubating the cell population and the readout particle population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying the heterogeneous cell population for the presence of the extracellular effect via detection of the fluorescent label, and determining, based on the results of the assaying step, whether the ASC within the heterogeneous cell population exhibits the extracellular effect attributable to an antibody secreted by the ASC.
A lift assembly comprising: a base ; a drive mechanism ; first and second flexible drive elements (40A - 40H) driven by the drive mechanism ; first and second sheaves (80A - 80H) directing the first and second drive elements (40A - 40H), respectively, in different directions; and first and second load cells sensing load on the first and second sheaves (80A - 80H), respectively. a base ; a drive mechanism ; first and second flexible drive elements (40A - 40H) driven by the drive mechanism ; first and second sheaves (80A - 80H) directing the first and second drive elements (40A - 40H), respectively, in different directions; and first and second load cells sensing load on the first and second sheaves (80A - 80H), respectively.
A method of processing a lignocellulosic feedstock, the method comprising: heating the lignocellulosic feedstock in in a solvent mixture comprising an acid and at least 80% by volume of n-butanol to produce a reaction mixture including a butylated lignin.
Process for manufacturing propylene oxide (1,2-epoxypropane) by reaction of propylene with hydrogen peroxide, said process using a hydrogen peroxide solution containing less than 100 ppb of Al and Fe which is a purified aqueous hydrogen peroxide solution which has been obtained by an AO (auto-oxidation) process, wherein the aqueous hydrogen peroxide solution contains less than 100 ppb of Cr.
Method for calibrating a mass flow meter in a constant volume sampling (CVS) exhaust gas analysis system having an exhaust gas source via which exhaust gas is introduced into an exhaust gas duct which opens into a mixing channel a dilution air channel into which dilution air is conveyed and which opens into the mixing channel a first mass flow meter in the mixing channel , in which an exhaust gas-air mixture flows, and with which a mass flow ( ṁ Mix ) of the exhaust gas-air mixture in the mixing channel of the exhaust gas analysis system is measured, a second mass flow meter to be calibrated in the dilution air channel , with which a mass flow ( ṁ dil ) of the air sucked into the exhaust gas analysis system is measured, a first gas analyzer , in which a carbon dioxide concentration ( c mix CO 2 ) of the exhaust gas-air mixture in the mixing channel is measured continuously and/or discontinuously via sample bags for a defined measurement cycle, a second gas analyzer in which the carbon dioxide concentration ( c exh CO 2 ) of the raw exhaust gas in the exhaust gas channel is continuously measured, wherein a calibration factor ( F Kal ) for the second mass flow meter is determined by comparing a first carbon dioxide mass ( m mix CO 2 ) determined via the measured carbon dioxide concentration ( c mix CO 2 ) in the first gas analyzer with a second carbon dioxide mass ( m exh CO 2 ) being determined as a function of the measured carbon dioxide concentration ( c exh CO 2 ) of the second gas analyzer and the mass flows ( ṁ Mix , ṁ dil ) of the two mass flow meters . an exhaust gas source via which exhaust gas is introduced into an exhaust gas duct which opens into a mixing channel a dilution air channel into which dilution air is conveyed and which opens into the mixing channel a first mass flow meter in the mixing channel , in which an exhaust gas-air mixture flows, and with which a mass flow ( ṁ Mix ) of the exhaust gas-air mixture in the mixing channel of the exhaust gas analysis system is measured, a second mass flow meter to be calibrated in the dilution air channel , with which a mass flow ( ṁ dil ) of the air sucked into the exhaust gas analysis system is measured, a first gas analyzer , in which a carbon dioxide concentration ( c mix CO 2 ) of the exhaust gas-air mixture in the mixing channel is measured continuously and/or discontinuously via sample bags for a defined measurement cycle, a second gas analyzer in which the carbon dioxide concentration ( c exh CO 2 ) of the raw exhaust gas in the exhaust gas channel is continuously measured, wherein a calibration factor ( F Kal ) for the second mass flow meter is determined by comparing a first carbon dioxide mass ( m mix CO 2 ) determined via the measured carbon dioxide concentration ( c mix CO 2 ) in the first gas analyzer with a second carbon dioxide mass ( m exh CO 2 ) being determined as a function of the measured carbon dioxide concentration ( c exh CO 2 ) of the second gas analyzer and the mass flows ( ṁ Mix , ṁ dil ) of the two mass flow meters .
A method for wireless communication, comprising: identifying at a user equipment, UE, a multiple-comb pattern to use for a transmission of one or more reference signals, wherein each comb of the multiple-comb pattern comprising a set of subcarriers within a set of resources allocated for reference signal transmission; identifying, at the UE, a number of antenna ports to use for transmission of one or more reference signals in a symbol of the multiple-comb pattern , determining, at the UE, for each antenna port, a number of combs to use for transmission of at least one of the one or more reference signals based at least in part on the number of antenna ports ; and transmitting , using each antenna port, at least one of the one or more reference signals based at least in part on the determined number of combs. identifying at a user equipment, UE, a multiple-comb pattern to use for a transmission of one or more reference signals, wherein each comb of the multiple-comb pattern comprising a set of subcarriers within a set of resources allocated for reference signal transmission; identifying, at the UE, a number of antenna ports to use for transmission of one or more reference signals in a symbol of the multiple-comb pattern , determining, at the UE, for each antenna port, a number of combs to use for transmission of at least one of the one or more reference signals based at least in part on the number of antenna ports ; and transmitting , using each antenna port, at least one of the one or more reference signals based at least in part on the determined number of combs.
A pixel structure (100A and 100B), disposed on a substrate , and comprising: a bump , disposed on the substrate ; a first insulating layer , disposed on the substrate and covering the bump , wherein the first insulating layer has a protruding portion where the first insulating layer covers the bump ; a semiconductive layer , disposed on the protruding portion ; a second insulating layer , disposed on the first insulating layer and the semiconductive layer , wherein the second insulating layer has a via positioned above the protruding portion and exposing the semiconductive layer ; a metal layer , disposed on the second insulating layer and electrically connected to the semiconductive layer through the via , wherein the bump is present within a vertical projection of the metal layer on the substrate ; and a pixel electrode , electrically connected to the semiconductive layer and characterized in that the bump is formed of a light-shielding material. a bump , disposed on the substrate ; a first insulating layer , disposed on the substrate and covering the bump , wherein the first insulating layer has a protruding portion where the first insulating layer covers the bump ; a semiconductive layer , disposed on the protruding portion ; a second insulating layer , disposed on the first insulating layer and the semiconductive layer , wherein the second insulating layer has a via positioned above the protruding portion and exposing the semiconductive layer ; a metal layer , disposed on the second insulating layer and electrically connected to the semiconductive layer through the via , wherein the bump is present within a vertical projection of the metal layer on the substrate ; and a pixel electrode , electrically connected to the semiconductive layer and characterized in that the bump is formed of a light-shielding material.
A washer nozzle arrangement structure comprising: a rear spoiler arranged on a portion of a body above a rear window and including a recess part formed on a side of the rear window ; a wiper arm , wherein a rotation center axis (P) disposed on one end side of the wiper arm is supported on the vehicle; a wiper blade , supported on the other end side of the wiper arm , and configured to be stored in the recess part when the wiper arm is in a stop position; and a washer nozzle configured to eject a washer liquid toward the rear window , wherein the washer nozzle is arranged in an inside of a portion of the recess part which exists on a front side of the vehicle than the rotation center axis (P) of the wiper blade , characterized in that the washer nozzle is mounted on a rear gate panel of the body. a rear spoiler arranged on a portion of a body above a rear window and including a recess part formed on a side of the rear window ; a wiper arm , wherein a rotation center axis (P) disposed on one end side of the wiper arm is supported on the vehicle; a wiper blade , supported on the other end side of the wiper arm , and configured to be stored in the recess part when the wiper arm is in a stop position; and a washer nozzle configured to eject a washer liquid toward the rear window , wherein the washer nozzle is arranged in an inside of a portion of the recess part which exists on a front side of the vehicle than the rotation center axis (P) of the wiper blade , characterized in that the washer nozzle is mounted on a rear gate panel of the body.
A spray system comprising: a first fluid source configured to provide a first fluid; a second fluid source configured to provide a second fluid; a sprayer configured to combine and spray the first and second fluids; a first pump configured to pump the first fluid at a variable first pumping speed from the first fluid source to the sprayer ; a second pump configured to pump the second fluid at a variable second pumping speed from the second fluid source to the sprayer ; a first pressure sensor disposed to sense a first output pressure of the first pump ; a second pressure sensor disposed to sense a second output pressure of the second pump ; and a controller configured to control the first and second pumps based on the first output pressure, wherein the controller is configured to control the second pump to follow the first pump at a target primary-to-secondary spray component flow ratio, characterized in that : the controller is configured to identify a pump failure condition if the second output pressure differs from a target spray pressure by more than a material-specific pressure factor margin for more than a threshold duration, and the spray system further comprises a local operator interface configured to accept inputs of the target spray pressure, the material-specific pressure factor margin, and the threshold duration from a user. a first fluid source configured to provide a first fluid; a second fluid source configured to provide a second fluid; a sprayer configured to combine and spray the first and second fluids; a first pump configured to pump the first fluid at a variable first pumping speed from the first fluid source to the sprayer ; a second pump configured to pump the second fluid at a variable second pumping speed from the second fluid source to the sprayer ; a first pressure sensor disposed to sense a first output pressure of the first pump ; a second pressure sensor disposed to sense a second output pressure of the second pump ; and a controller configured to control the first and second pumps based on the first output pressure, wherein the controller is configured to control the second pump to follow the first pump at a target primary-to-secondary spray component flow ratio, characterized in that : the controller is configured to identify a pump failure condition if the second output pressure differs from a target spray pressure by more than a material-specific pressure factor margin for more than a threshold duration, and the spray system further comprises a local operator interface configured to accept inputs of the target spray pressure, the material-specific pressure factor margin, and the threshold duration from a user. the controller is configured to identify a pump failure condition if the second output pressure differs from a target spray pressure by more than a material-specific pressure factor margin for more than a threshold duration, and the spray system further comprises a local operator interface configured to accept inputs of the target spray pressure, the material-specific pressure factor margin, and the threshold duration from a user.
A microfilter consisting of a single layer including a plurality of apertures characterized by : said single layer being a single polymer layer formed from an epoxy-based negative photo-definable dry film; said plurality of apertures being formed by exposing said single polymer layer to a UV light via an optical mask , each of said apertures extending through said single flexible polymer layer; and said single polymer layer being a freestanding microfilter structure. wherein the single polymer layer has sufficient strength and flexibility to filter liquid, and wherein the apertures are sized to allow passage of at least one type of a bodily fluid cell and to prevent passage of a second type of bodily fluid cell, and wherein the single polymer layer having said flexibility comprises a thickness, and the apertures have a width that is approximately the same as the thickness of the single polymer layer having said flexibility. said single layer being a single polymer layer formed from an epoxy-based negative photo-definable dry film; said plurality of apertures being formed by exposing said single polymer layer to a UV light via an optical mask , each of said apertures extending through said single flexible polymer layer; and said single polymer layer being a freestanding microfilter structure. wherein the single polymer layer has sufficient strength and flexibility to filter liquid, and wherein the apertures are sized to allow passage of at least one type of a bodily fluid cell and to prevent passage of a second type of bodily fluid cell, and wherein the single polymer layer having said flexibility comprises a thickness, and the apertures have a width that is approximately the same as the thickness of the single polymer layer having said flexibility.
A ship's propulsion arrangement, which comprises a propulsion unit which is supported in a reversible manner to a ship's hull , wherein an electric motor driving the ship's propeller is fitted inside a housing of the propulsion unit, whereby the electric motor's rotor is attached on a propeller shaft and the propeller shaft is supported onto a propulsion unit's housing with a first bearing between the rotor's first end and the propeller and with a second bearing between the rotor's second end and a shaft end opposite to the propeller, whereby the first and the second bearing are executed by radial bearings, and at least one bearing supporting the shaft in an axial direction is fitted on the propeller shaft in the connection of the first or the second bearing, whereby the first and the second bearing are rolling bearings, characterised in that the bearing supporting in the axial direction is a slide bearing comprising slide pieces which are supported against a bearing body and stop faces perpendicular to the propeller shaft , which stop faces comprise a radially protruding support shoulder on the shaft, and the bearing supporting the shaft axially and the first or second bearing fitted in its connection are integrated, and the first bearing has support surfaces against axial forces and the radial bearing has support surfaces against radial forces.
An electric vehicle with front access, comprising: • a chassis , containing at least one front seat , provided with a front door for accessing said at least one front seat through a front of the vehicle; • front wheels and rear wheels ; • at least one electric motor operating said rear wheels and/or front wheels and connected to a set of electric batteries fixed to the chassis; wherein said chassis further comprises: • a front portion , supporting the front wheels , said front door , and at least one side door for accessing the inside of the chassis through a side of the vehicle, and • a rear portion , supporting the rear wheels ; • wherein said front portion and rear portion of the chassis are partially overlapped and are telescopically movable between a retracted position, to make it easier to park the vehicle, and an extended position increasing the separation between the front wheels and rear wheels , to increase an inner space of the chassis behind said at least one front seat ; and wherein • said at least one side door and the rear portion of the chassis are partially superimposed in the retracted position of the chassis , disabling the opening of the mentioned at least one side door , and are not superimposed in the extended position of the chassis , enabling the opening of the mentioned at least one side door , providing access to the interior space of the chassis behind said at least one front seat and also optionally to said at least one front seat . • a chassis , containing at least one front seat , provided with a front door for accessing said at least one front seat through a front of the vehicle; • front wheels and rear wheels ; • at least one electric motor operating said rear wheels and/or front wheels and connected to a set of electric batteries fixed to the chassis; • a front portion , supporting the front wheels , said front door , and at least one side door for accessing the inside of the chassis through a side of the vehicle, and • a rear portion , supporting the rear wheels ; • wherein said front portion and rear portion of the chassis are partially overlapped and are telescopically movable between a retracted position, to make it easier to park the vehicle, and an extended position increasing the separation between the front wheels and rear wheels , to increase an inner space of the chassis behind said at least one front seat ; and wherein • said at least one side door and the rear portion of the chassis are partially superimposed in the retracted position of the chassis , disabling the opening of the mentioned at least one side door , and are not superimposed in the extended position of the chassis , enabling the opening of the mentioned at least one side door , providing access to the interior space of the chassis behind said at least one front seat and also optionally to said at least one front seat .