mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid ejection head comprising: an element substrate including an energy-generating element that applies energy for ejecting liquid; a first electric wiring board electrically connected to the element substrate ; a second electric wiring board on which an integrated circuit element is mounted, the second electric wiring board being electrically connected to the first electric wiring board , the second electric wiring board being further away from the element substrate than the first electric wiring board , wherein the first electric wiring board is configured to supply therethrough an electric signal to the integrated circuit element mounted on the second electric wiring board , the integrated circuit element is configured to process the electric signal, and the second electric wiring board and the first electric wiring board are configured to supply therethrough the electric signal to the energy-generating element, and a pressure chamber having the energy-generating element inside the pressure chamber; characterised in that liquid in the pressure chamber is circulated between the pressure chamber and an outside of the pressure chamber. an element substrate including an energy-generating element that applies energy for ejecting liquid; a first electric wiring board electrically connected to the element substrate ; a second electric wiring board on which an integrated circuit element is mounted, the second electric wiring board being electrically connected to the first electric wiring board , the second electric wiring board being further away from the element substrate than the first electric wiring board , wherein the first electric wiring board is configured to supply therethrough an electric signal to the integrated circuit element mounted on the second electric wiring board , the integrated circuit element is configured to process the electric signal, and the second electric wiring board and the first electric wiring board are configured to supply therethrough the electric signal to the energy-generating element, and a pressure chamber having the energy-generating element inside the pressure chamber; characterised in that liquid in the pressure chamber is circulated between the pressure chamber and an outside of the pressure chamber.
Storage shelf for a piece of furniture or household appliance , comprising - a support plate arranged stationarily on a carcass of the piece of furniture or household appliance , - a storage tray which is positively guided relative to the support plate and can simultaneously be moved both rotationally and translationally in a pull-out direction (A), characterized in that - mutually facing bearing surfaces of the support plate and of the storage tray have respective at least predominantly closed, all-around rolling element grooves in which rolling elements are guided, - whereby the bearing surfaces of the support plate and of the storage tray have respective shaped elements facing the respective other bearing surface , which, for the movement of the storage tray relative to the support plate from an initial position in the direction of a loading and unloading position, force an at least proportionate rotational movement of the storage tray - whereby shaped elements formed as pins project from one of the bearing surfaces , which shaped elements are positioned in the initial position of the tray in the pull-out direction (A) behind shaped elements formed as cams , which project from the other of the bearing surfaces . - a support plate arranged stationarily on a carcass of the piece of furniture or household appliance , - a storage tray which is positively guided relative to the support plate and can simultaneously be moved both rotationally and translationally in a pull-out direction (A), characterized in that - mutually facing bearing surfaces of the support plate and of the storage tray have respective at least predominantly closed, all-around rolling element grooves in which rolling elements are guided, - whereby the bearing surfaces of the support plate and of the storage tray have respective shaped elements facing the respective other bearing surface , which, for the movement of the storage tray relative to the support plate from an initial position in the direction of a loading and unloading position, force an at least proportionate rotational movement of the storage tray - whereby shaped elements formed as pins project from one of the bearing surfaces , which shaped elements are positioned in the initial position of the tray in the pull-out direction (A) behind shaped elements formed as cams , which project from the other of the bearing surfaces .
Heating apparatus for heating a storage tank for an operating and/or auxiliary substance in an exhaust-gas aftertreatment system of an internal combustion engine, comprising at least one electrically heatable heating resistor and at least one thermally conductive body , characterized in that two thermally conductive bodies delimit a gap in which the heating resistor is arranged, and the two thermally conductive bodies are braced with one another by means of magnets in order to optimize the thermal coupling of the heating resistor to the two thermally conductive bodies .
A method for transmission of a Channel State Information Reference Signal, CSI-RS, comprising: receiving , by a first device, Downlink Control Information, DCI, signaling sent by a second device, wherein the DCI signaling indicates the first device to receive the CSI-RS and comprises resource configuration information of the CSI-RS, and is further configured to schedule data transmitted from the first device to the second device; and the resource configuration information comprises time-domain resource configuration information of the CSI-RS, the time-domain resource configuration information indicates time-domain physical resource information adopted for transmission of the CSI-RS, and the time-domain physical resource information indicates an index of each of time-domain resource units adopted for transmission of the CSI-RS in a predetermined time and a total number of the time-domain resource units; and receiving, by the first device, the CSI-RS sent by the second device according to the resource configuration information comprised in the DCI signaling. receiving , by a first device, Downlink Control Information, DCI, signaling sent by a second device, wherein the DCI signaling indicates the first device to receive the CSI-RS and comprises resource configuration information of the CSI-RS, and is further configured to schedule data transmitted from the first device to the second device; and the resource configuration information comprises time-domain resource configuration information of the CSI-RS, the time-domain resource configuration information indicates time-domain physical resource information adopted for transmission of the CSI-RS, and the time-domain physical resource information indicates an index of each of time-domain resource units adopted for transmission of the CSI-RS in a predetermined time and a total number of the time-domain resource units; and receiving, by the first device, the CSI-RS sent by the second device according to the resource configuration information comprised in the DCI signaling.
- A large-caliber weapon , characterised in that it is equipped with a base deflector at a base ejection opening , in the vicinity of a breech of the weapon , the deflector including a panel attached, by one of its edges, to the weapon , wherein the panel is attached to the weapon by an articulation and the deflector includes an actuator positioned on a rear face of the breech of the weapon and capable of pivoting the panel between a deflection position in which the deflector is positioned on the ejection trajectory of a base in order to deflect it, and a folded position in which the panel is placed over the breech , in a vicinity thereof.
A refrigerator , comprising: an insulated cabinet configured to preserve food; an insulated door mounted on the insulated cabinet, the insulated door being configured to close the insulated cabinet, the insulated door comprising an inner wall, the inner wall comprising one or more recesses ; and an article dispenser for mounting within the one or more recesses of the inner wall of the refrigerator door, the dispenser comprising: a dispensing portion configured to store one or more articles and dispense the articles according to a user's demand, the dispensing portion comprises a bottom wall , a step , and an article dispensing area, the step being elevated from the bottom wall and provided in a rear portion of the dispensing portion, the step preventing articles falling from an upper portion of the dispensing portion into an article holding area to enable retrieval by the user; and a mounting portion on a back side of the dispensing portion, the mounting portion removably mounting the dispensing portion within the recesses, and wherein the mounting portion comprises mounting members extending from the mounting portion that correspond with locations of the recesses characterized in that the mounting members are resting on horizontal rails defining an opening of the recesses and extending from the horizontal rails into the recesses , and comprise curved fasteners such that the article dispenser can be horizontally slidably and removably mounted on the inner wall of the refrigerator door.
A double-shell tank comprising: an inner shell storing liquefied gas; an outer shell surrounding the inner shell , the outer shell forming a vacuum space between the inner shell and the outer shell ; at least one metal sheet mounted to the inner shell , such that at least part of the metal sheet faces a bottom surface of the inner shell ; an adsorbent placed on the metal sheet , the adsorbent adsorbing gas molecules by physisorption; and a thermal insulator covering the inner shell and the metal sheet , wherein the entire inner shell is covered by the thermal insulator , characterized in that the thermal insulator includes a plurality of thermal insulation sheets, wherein each sheet is arranged along an outer surface of the inner shell without gaps between the sheets, and wherein the thermal insulator does not contact the outer shell . an inner shell storing liquefied gas; an outer shell surrounding the inner shell , the outer shell forming a vacuum space between the inner shell and the outer shell ; at least one metal sheet mounted to the inner shell , such that at least part of the metal sheet faces a bottom surface of the inner shell ; an adsorbent placed on the metal sheet , the adsorbent adsorbing gas molecules by physisorption; and a thermal insulator covering the inner shell and the metal sheet , wherein the entire inner shell is covered by the thermal insulator , characterized in that the thermal insulator includes a plurality of thermal insulation sheets, wherein each sheet is arranged along an outer surface of the inner shell without gaps between the sheets, and wherein the thermal insulator does not contact the outer shell .
An exhaust gas treatment device comprising: a scrubber configured to purify an exhaust gas (g1) into a purified gas (g2) by bringing SO 2 contained in the exhaust gas (g1) into contact with cleaning seawater (a1) and for discharging SO 2 -absorbed cleaning seawater (a1) as waste water (a2); a second measurement section configured to measure a concentration (C1) of SO 2 of the exhaust gas (g1) before the exhaust gas (g1) is charged into the scrubber ; and a third measurement section configured to measure a concentration (C2) of SO 2 of the purified gas (g2); characterized by : a first measurement section configured to measure a flow rate (G) of the exhaust gas (g1) before the exhaust gas (g1) is charged into the scrubber ; a control section configured to calculate an amount (S1) of HSO 3 - of the waste water (a2) based on measurement values of the first through third measurement sections and configured to supply an amount of alkaline substance (a3), in accordance with the calculation result, to the waste water (a2). a scrubber configured to purify an exhaust gas (g1) into a purified gas (g2) by bringing SO 2 contained in the exhaust gas (g1) into contact with cleaning seawater (a1) and for discharging SO 2 -absorbed cleaning seawater (a1) as waste water (a2); a second measurement section configured to measure a concentration (C1) of SO 2 of the exhaust gas (g1) before the exhaust gas (g1) is charged into the scrubber ; and a third measurement section configured to measure a concentration (C2) of SO 2 of the purified gas (g2); characterized by : a first measurement section configured to measure a flow rate (G) of the exhaust gas (g1) before the exhaust gas (g1) is charged into the scrubber ; a control section configured to calculate an amount (S1) of HSO 3 - of the waste water (a2) based on measurement values of the first through third measurement sections and configured to supply an amount of alkaline substance (a3), in accordance with the calculation result, to the waste water (a2). a first measurement section configured to measure a flow rate (G) of the exhaust gas (g1) before the exhaust gas (g1) is charged into the scrubber ; a control section configured to calculate an amount (S1) of HSO 3 - of the waste water (a2) based on measurement values of the first through third measurement sections and configured to supply an amount of alkaline substance (a3), in accordance with the calculation result, to the waste water (a2).
Furniture drive with an electric drive motor and a braking device - wherein the drive motor has an output shaft projecting beyond a motor housing , - wherein the braking device comprises at least one braking element and a force accumulator, wherein the force accumulator permanently applies a braking force to a friction surface of the at least one braking element , and wherein the force accumulator and the braking element are formed integrally, characterized in that - static and sliding friction coefficients between the friction surface of the braking element and the output shaft differ by a factor of at least 1.3, and - that an EMF brake is provided for the drive motor . - wherein the drive motor has an output shaft projecting beyond a motor housing , - wherein the braking device comprises at least one braking element and a force accumulator, wherein the force accumulator permanently applies a braking force to a friction surface of the at least one braking element , and wherein the force accumulator and the braking element are formed integrally, - static and sliding friction coefficients between the friction surface of the braking element and the output shaft differ by a factor of at least 1.3, and - that an EMF brake is provided for the drive motor .
A process for the preparation of a glycosaminoglycan-containing nanofiber membrane, comprising: a) providing a water solution containing: - at least a glycosaminoglycan in an amount from 0,01% to 5,00%; - at least a polymer chosen in the group consisting of hydrophilic cellulose derivatives; pullulan: mixtures of pullulan and chitosan; and mixtures of pullulan and hydrophilic cellulose derivatives and gelatins in amount of 1% to 30%; - acetic acid in amount of at least 20%; and - a polycarboxylic acid in an amount of 0,1% to 5,00%; all percentages being by weight with respect to the total weight of the water solution; b) electrospinning said water solution on a collector of an electrospinning apparatus to form nanofibers; and c) crosslinking said nanofibers to obtain a nanofiber membrane. a) providing a water solution containing: - at least a glycosaminoglycan in an amount from 0,01% to 5,00%; - at least a polymer chosen in the group consisting of hydrophilic cellulose derivatives; pullulan: mixtures of pullulan and chitosan; and mixtures of pullulan and hydrophilic cellulose derivatives and gelatins in amount of 1% to 30%; - acetic acid in amount of at least 20%; and - a polycarboxylic acid in an amount of 0,1% to 5,00%; all percentages being by weight with respect to the total weight of the water solution; - at least a glycosaminoglycan in an amount from 0,01% to 5,00%; - at least a polymer chosen in the group consisting of hydrophilic cellulose derivatives; pullulan: mixtures of pullulan and chitosan; and mixtures of pullulan and hydrophilic cellulose derivatives and gelatins in amount of 1% to 30%; - acetic acid in amount of at least 20%; and - a polycarboxylic acid in an amount of 0,1% to 5,00%; b) electrospinning said water solution on a collector of an electrospinning apparatus to form nanofibers; and c) crosslinking said nanofibers to obtain a nanofiber membrane.
A composition comprising a liposome, the liposome comprising an interior, a lipid bilayer, and a pore-forming substance in the lipid bilayer, wherein a binder is disposed in the liposome, wherein the binder has a maximum cross-section that is greater than the inner diameter of the pores or the binder is larger than the exclusion limit of the pores, wherein at least a portion of the binder is disposed in the lipid bilayer, or wherein the binder is disposed entirely within the interior of the liposome. wherein a binder is disposed in the liposome, wherein the binder has a maximum cross-section that is greater than the inner diameter of the pores or the binder is larger than the exclusion limit of the pores, wherein at least a portion of the binder is disposed in the lipid bilayer, or wherein the binder is disposed entirely within the interior of the liposome.
A positive electrode active material pre-dispersion composition comprising a lithium iron phosphate-based positive electrode active material, a dispersant, and a solvent, wherein the dispersant comprises a hydrogenated nitrile butadiene rubber (HNBR), and wherein a hydrogenated butadiene (HBD) ratio in the hydrogenated nitrile butadiene rubber (HNBR) dispersant satisfies Equation 1: 1 % ≤ HBD wt % / BD + HBD wt % × 100 ≤ 30 % wherein, in Equation 1, HBD wt% is weight % of a hydrogenated butadiene (HBD)-derived repeating unit based on a total weight of the hydrogenated nitrile butadiene rubber (HNBR), and (BD+HBD) wt% is weight % of a butadiene (BD)-derived repeating unit and the hydrogenated butadiene (HBD)-derived repeating unit based on the total weight of the hydrogenated nitrile butadiene rubber (HNBR).
Valve for opening and closing an exhaust-gas line, having: - a housing body ; - a plunger which is disposed in the housing body and which at a first end is capable of being coupled to a drive and is configured for being moved along a longitudinal axis of the plunger ; - a valve seat sleeve on which a valve seat which delimits an opening is embodied, wherein the valve seat sleeve is disposed in the housing body , and wherein the valve seat sleeve is produced by means of a deep-drawing method; wherein the valve seat sleeve is disposed in an interior space of the housing body , and the valve seat sleeve at least in portions is in contact with internal walls of the housing body , said internal walls surrounding the interior space ; and wherein the valve seat sleeve extends along a longitudinal axis ; and - a closing member which is connected to the plunger such that the closing member by means of a movement of the plunger is adjustable between an open position in which the opening is released, and a closed position in which the closing member bears on the valve seat and seals the opening , characterized in that the valve seat sleeve on the end thereof having the largest diameter has an oblique flank, wherein the oblique flank is configured such that push-fitting the valve seat sleeve along the longitudinal axis in a first direction into the housing body is possible and, in the event of a force that acts on the valve seat sleeve counter to the first direction, the oblique flank is at least slightly impressed into the internal wall of the housing body so as to fix the valve seat sleeve axially in the housing body by means of a rearward latching mechanism . - a housing body ; - a plunger which is disposed in the housing body and which at a first end is capable of being coupled to a drive and is configured for being moved along a longitudinal axis of the plunger ; - a valve seat sleeve on which a valve seat which delimits an opening is embodied, wherein the valve seat sleeve is disposed in the housing body , and wherein the valve seat sleeve is produced by means of a deep-drawing method; wherein the valve seat sleeve is disposed in an interior space of the housing body , and the valve seat sleeve at least in portions is in contact with internal walls of the housing body , said internal walls surrounding the interior space ; and wherein the valve seat sleeve extends along a longitudinal axis ; and - a closing member which is connected to the plunger such that the closing member by means of a movement of the plunger is adjustable between an open position in which the opening is released, and a closed position in which the closing member bears on the valve seat and seals the opening , characterized in that
An ion mobility separation or manipulation device comprising: a. a single, open, cylindrical, non-planar surface ; b. arrays of electrodes coupled to said surface that include an inner array of electrodes and first and second outer arrays of electrodes ; characterized in that : • RF voltages are applied to a first set of electrodes of the inner array of electrodes and DC voltages are applied to the first and second outer arrays of electrodes , wherein the applied RF and DC voltages create confining and driving fields that move ions through the device ; • the arrays of electrodes extend substantially along the length of the surface; and • the first outer array of DC electrodes is positioned on one side of the inner array of RF electrodes , and the second outer array of DC electrodes is positioned on the other side of the inner array of RF electrodes . a. a single, open, cylindrical, non-planar surface ; b. arrays of electrodes coupled to said surface that include an inner array of electrodes and first and second outer arrays of electrodes ; • RF voltages are applied to a first set of electrodes of the inner array of electrodes and DC voltages are applied to the first and second outer arrays of electrodes , wherein the applied RF and DC voltages create confining and driving fields that move ions through the device ; • the arrays of electrodes extend substantially along the length of the surface; and • the first outer array of DC electrodes is positioned on one side of the inner array of RF electrodes , and the second outer array of DC electrodes is positioned on the other side of the inner array of RF electrodes .