mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communications for a base station, comprising: determining a time-division duplex, TDD, frame structure of a group of TDD frame structures for narrowband communications; determining a first set of subframes in the TDD frame structure used for transmitting a downlink control channel to a user equipment, UE, a last subframe in the first set of subframes being subframe n; determining a second set of subframes in the TDD frame structure used for transmitting a downlink data channel to the UE, a first subframe in the second set of subframes being delayed based on k 0 number of subframes after the subframe n, a last subframe in the second set of subframes being subframe n + k 0 + x, x being an integer number; determining an uplink subframe in the TDD frame structure used by the UE for reporting an acknowledgement, ACK, / negative ACK, NACK, associated with the downlink data channel, the uplink subframe being delayed m 0 number of subframes after the subframe n + k 0 + x , the m 0 number of subframes including at least one of a number of downlink subframes or a number of uplink subframes; and signaling first information associated with the k 0 number of subframes to the UE in a first delay field in a downlink control information, DCI, transmission and signaling second information associated with the m 0 number of subframes to the UE in a second delay field in the DCI transmission. determining a time-division duplex, TDD, frame structure of a group of TDD frame structures for narrowband communications; determining a first set of subframes in the TDD frame structure used for transmitting a downlink control channel to a user equipment, UE, a last subframe in the first set of subframes being subframe n; determining a second set of subframes in the TDD frame structure used for transmitting a downlink data channel to the UE, a first subframe in the second set of subframes being delayed based on k 0 number of subframes after the subframe n, a last subframe in the second set of subframes being subframe n + k 0 + x, x being an integer number; determining an uplink subframe in the TDD frame structure used by the UE for reporting an acknowledgement, ACK, / negative ACK, NACK, associated with the downlink data channel, the uplink subframe being delayed m 0 number of subframes after the subframe n + k 0 + x , the m 0 number of subframes including at least one of a number of downlink subframes or a number of uplink subframes; and signaling first information associated with the k 0 number of subframes to the UE in a first delay field in a downlink control information, DCI, transmission and signaling second information associated with the m 0 number of subframes to the UE in a second delay field in the DCI transmission.
Electrical circuit for charging a secondary battery having a dc-converter , the dc-converter comprising - an input connector , connectable to an input dc voltage , - an output connector , connectable to the positive terminal of the secondary battery for applying a charging current to the secondary battery and - a voltage feedback connector for sensing a feedback voltage, wherein the dc-converter is adapted to regulate the output voltage by adjusting the output current at the output connector depending on the sensed feedback voltage; and a feedback-sub-circuit connected to the output connector and to the voltage feedback connector of the dc-converter , characterized in that the feedback-sub-circuit comprises a positive temperature coefficient resistor connectable in series to the secondary battery in the electrical circuit between the negative terminal of the secondary battery and a ground connector of the dc-converter such that an increasing resistance of the positive temperature coefficient resistor results in an increasing voltage at the voltage feedback connector . - an input connector , connectable to an input dc voltage , - an output connector , connectable to the positive terminal of the secondary battery for applying a charging current to the secondary battery and - a voltage feedback connector for sensing a feedback voltage, wherein the dc-converter is adapted to regulate the output voltage by adjusting the output current at the output connector depending on the sensed feedback voltage;
A prosthetic heart valve , comprising: an expandable support stent having a first end portion, a second end portion and a mid-portion, wherein the support stent is configured to be radially expandable from a first, crimped configuration for catheterization into a patient's body to a second, expanded configuration; and a valve assembly having an inlet end, an outlet end, and a plurality of leaflets , wherein the valve assembly is supported in the support stent, wherein the leaflets are configured to permit blood to flow through the valve assembly in a direction from the first end portion to the second end portion of the frame and block the flow of blood in the reverse direction; characterised in that the first and second end portions are narrow as compared to the mid-portion, the valve is positioned in the mid-portion and is attached to stent supports by a connecting membrane , and an annular space is defined between an interior of the support stent and the valve assembly when the support stent is in the second configuration, the annular space being filled with sealing material to prevent flow around the valve assembly. an expandable support stent having a first end portion, a second end portion and a mid-portion, wherein the support stent is configured to be radially expandable from a first, crimped configuration for catheterization into a patient's body to a second, expanded configuration; and a valve assembly having an inlet end, an outlet end, and a plurality of leaflets , wherein the valve assembly is supported in the support stent, wherein the leaflets are configured to permit blood to flow through the valve assembly in a direction from the first end portion to the second end portion of the frame and block the flow of blood in the reverse direction; characterised in that the first and second end portions are narrow as compared to the mid-portion, the valve is positioned in the mid-portion and is attached to stent supports by a connecting membrane , and an annular space is defined between an interior of the support stent and the valve assembly when the support stent is in the second configuration, the annular space being filled with sealing material to prevent flow around the valve assembly.
A rubber composition production method for obtaining a rubber composition containing a liquid hydrocarbon, comprising heating a crosslinked rubber in a reaction solvent containing a primary alcohol having 2 or more carbon atoms, at 0.1 to 2.0 MPa and at 300°C or lower, wherein the primary alcohol is an aliphatic alcohol having 5 to 8 carbon atoms.
A composition comprising water clusters for use in the treatment of a bacterial infection in a subject, wherein the water clusters are present at a concentration of at least 150 million water clusters per drop of water with a water droplet size of 500 microns in diameter.
Device for recovering heat from an exhaust gas, which flows through an exhaust gas system during operation of a waste heat source generating the exhaust gas, the exhaust gas system has at least one exhaust gas aftertreatment unit and at least one heat exchanger arrangement , in this case, the heat exchanger arrangement is arranged downstream of a component of the exhaust gas aftertreatment unit and within the exhaust gas aftertreatment unit , and the heat exchanger arrangement having one main flow channel surrounding a secondary flow channel is flowed through, during operation of the waste heat source for the transfer of heat into a working fluid, by the exhaust gas and the working fluid, characterized in that the heat exchanger arrangement additionally has a heat exchanger element arranged inside the secondary flow channel , wherein, downstream of an outlet of the main flow channel and thereby outside the exhaust gas aftertreatment unit , a channel closing element is arranged which serves to regulate the volumetric flow through the main flow channel and/or the secondary flow channel .
A clothing treatment apparatus comprising a clothing treatment drum and an air washing device, wherein the air washing device comprises a water supply valve , a connection mechanism and an atomization generator ; the water supply valve is connected with the atomization generator through the connection mechanism, the atomization generator being an ultrasonic atomization generator or a compressed atomization generator, characterized in that the connection mechanism is provided with a one-way check structure , the one-way check structure is arranged to be isolated from the atmosphere when the water supply valve is opened and to communicate with the atmosphere when the water supply valve is closed, and an outlet of the atomization generator is arranged facing an inner cavity of the clothing treatment drum, wherein when the water supply valve is opened, water is accumulated in the connection mechanism, and when the water supply valve is closed, the accumulated water can be sprayed into the clothing treatment drum in the form of atomized water droplets from the atomization generator . characterized in that the connection mechanism is provided with a one-way check structure , the one-way check structure is arranged to be isolated from the atmosphere when the water supply valve is opened and to communicate with the atmosphere when the water supply valve is closed, and an outlet of the atomization generator is arranged facing an inner cavity of the clothing treatment drum, wherein when the water supply valve is opened, water is accumulated in the connection mechanism, and when the water supply valve is closed, the accumulated water can be sprayed into the clothing treatment drum in the form of atomized water droplets from the atomization generator .
A scroll compressor with a suction fitting coupled to the scroll compressor , the scroll compressor including an outer housing having an inside diameter and a suction port defined in a wall of the outer housing , and a suction duct disposed inside the outer housing a spaced distance from the wall of the outer housing , with the suction duct defining an entrance port aligned with the suction port , characterized in that the suction fitting comprising: a first member being generally cylindrical and a second member being generally cylindrical, with the second member disposed inside the first member with a portion of the second member extending into the outer housing through the suction port and spanning the spaced distance to the suction duct and coupling with the entrance port of the suction duct ; wherein neither the first member nor the second member includes a suction screen for filtering out solid contaminants in a flow of refrigerant. a first member being generally cylindrical and a second member being generally cylindrical, with the second member disposed inside the first member with a portion of the second member extending into the outer housing through the suction port and spanning the spaced distance to the suction duct and coupling with the entrance port of the suction duct ; wherein neither the first member nor the second member includes a suction screen for filtering out solid contaminants in a flow of refrigerant.
A method of a User Equipment, in the following also referred to as UE, comprising: triggering a first scheduling request, in the following also referred to as SR, by a first logical channel, in the following also referred to as LCH, wherein the first LCH is associated with a first SR configuration ; and triggering a second SR by a second LCH while the first SR is pending, wherein the second LCH is associated with a second SR configuration, and the first SR configuration and the second SR configuration are configured for the same serving cell ; characterized by further comprising: using a first SR opportunity and a second SR opportunity to transmit SRs to a network node until the SRs are cancelled, wherein the first SR opportunity corresponds to the first SR configuration and the second SR opportunity corresponds to the second SR configuration . triggering a first scheduling request, in the following also referred to as SR, by a first logical channel, in the following also referred to as LCH, wherein the first LCH is associated with a first SR configuration ; and triggering a second SR by a second LCH while the first SR is pending, wherein the second LCH is associated with a second SR configuration, and the first SR configuration and the second SR configuration are configured for the same serving cell ; characterized by further comprising: using a first SR opportunity and a second SR opportunity to transmit SRs to a network node until the SRs are cancelled, wherein the first SR opportunity corresponds to the first SR configuration and the second SR opportunity corresponds to the second SR configuration .
A surface enhanced luminescence (SELS) sensor comprising: a substrate ; nano fingers projecting from the substrate, each of the nano fingers comprising: a polymer pillar having a sidewall and a top; a coating layer covering the sidewall; and a metal cap supported by and in contact with the top of the pillar , and wherein the coating layer is not covered by the metal cap and wherein the metal cap has an exposed top surface not covered by the coating layer . a substrate ; nano fingers projecting from the substrate, each of the nano fingers comprising: a polymer pillar having a sidewall and a top; a coating layer covering the sidewall; and a metal cap supported by and in contact with the top of the pillar , and wherein the coating layer is not covered by the metal cap and wherein the metal cap has an exposed top surface not covered by the coating layer . a polymer pillar having a sidewall and a top; a coating layer covering the sidewall; and a metal cap supported by and in contact with the top of the pillar , and wherein the coating layer is not covered by the metal cap and wherein the metal cap has an exposed top surface not covered by the coating layer .
A method of generating a motor neuron from a pluripotent stem cell, comprising the following steps in order from to : introducing one or more nucleic acids encoding Lhx3, Ngn2, and Isll genes into a pluripotent stem cell followed by an induction of the expression of the Lhx3, Ngn2, and Isll genes in the pluripotent stem cell; and maintaining expression of the Lhx3, Ngn2, and Isll for three days or more. introducing one or more nucleic acids encoding Lhx3, Ngn2, and Isll genes into a pluripotent stem cell followed by an induction of the expression of the Lhx3, Ngn2, and Isll genes in the pluripotent stem cell; and maintaining expression of the Lhx3, Ngn2, and Isll for three days or more.
Structure tor an organised container, particularly for hydraulic connectors and similar, comprising a prismatic boxed body made up of side walls joined to a bottom and defining an internal space; said structure for a container in which the internal part of said walls includes supporting means suitable to hold a plurality of parts in an organised way: said supporting means comprise a series of contoured shapes having a T-shaped cross-section and fixed in the internal part of said walls, in such way as to define a plurality of guides suitable to receive flanged portions of hydraulic connectors; said walls comprise windows with elongated openings that extend in correspondence of said guides in such way as to allow one to inspect the content from the outside characterised by the fact that each of said windows includes a graduated scale that allows one to identify the precise number of parts present for each guide. said supporting means comprise a series of contoured shapes having a T-shaped cross-section and fixed in the internal part of said walls, in such way as to define a plurality of guides suitable to receive flanged portions of hydraulic connectors; said walls comprise windows with elongated openings that extend in correspondence of said guides in such way as to allow one to inspect the content from the outside characterised by the fact that each of said windows includes a graduated scale that allows one to identify the precise number of parts present for each guide.
A method for making a composite polyamide membrane comprising a porous support and a thin film polyamide layer, wherein the method comprises the step of applying a polar solution comprising a polyfunctional amine monomer and a non-polar solution comprising a polyfunctional acyl halide monomer to a surface of the porous support and interfacially polymerizing the monomers to form a thin film polyamide layer, wherein the method is characterized by including at least one of the following steps: i) conducting the interfacial polymerization in the presence of a subject monomer, where the subject monomer is added to the non-polar solution prior to the application step of coating the non-polar solution upon the porous support and the non-polar solution comprises from 0.001 to 0.1 weight/volume of the subject monomer; and/or, ii) applying the subject monomer to the thin film polyamide layer, where the subject monomer is separately applied to the surface of the porous support before, during or after the completion of the interfacial polymerization and the coating solution is a non-polar solution and comprises a concentration of the subject monomer from 0.5 to 5% weight/volume, wherein the subject monomer, which is distinct from the polyfunctional amine and acyl halide monomers, is represented by Formula (III): wherein X is selected from: oxygen, amino, amide, carbonyl, sulfonyl or is not present; n is an integer from 1 to 6; Z is selected from acyl halide and anhydride; and Z' is selected from acyl halide, anhydride, hydrogen and carboxylic acid. i) conducting the interfacial polymerization in the presence of a subject monomer, where the subject monomer is added to the non-polar solution prior to the application step of coating the non-polar solution upon the porous support and the non-polar solution comprises from 0.001 to 0.1 weight/volume of the subject monomer; and/or, ii) applying the subject monomer to the thin film polyamide layer, where the subject monomer is separately applied to the surface of the porous support before, during or after the completion of the interfacial polymerization and the coating solution is a non-polar solution and comprises a concentration of the subject monomer from 0.5 to 5% weight/volume, wherein the subject monomer, which is distinct from the polyfunctional amine and acyl halide monomers, is represented by Formula (III): wherein X is selected from: oxygen, amino, amide, carbonyl, sulfonyl or is not present; n is an integer from 1 to 6; Z is selected from acyl halide and anhydride; and Z' is selected from acyl halide, anhydride, hydrogen and carboxylic acid.
A method for controlling a dosing of reductant for an internal combustion engine system including a catalyst , the method comprising: measuring a value indicative of inlet temperature of the catalyst ; determining whether the inlet temperature is less than or equal to a first temperature threshold; and upon determining that the inlet temperature is less than or equal to the first temperature threshold, adjusting the dosing of reductant according to a first process, wherein the first process includes: adjusting a desired storage of reductant in the catalyst , wherein the desired storage is a target amount of reductant that is absorbed by the catalyst; and adjusting the dosing of reductant based on the adjusted desired storage; or upon determining that the inlet temperature is greater than the first temperature threshold, adjusting the dosing of reductant according to a second process, wherein the second process includes: adjusting the dosing of reductant based on a difference between a measured value indicative of nitrogen oxide (NOx) conversion downstream of the catalyst and a target value of NOx conversion. measuring a value indicative of inlet temperature of the catalyst ; determining whether the inlet temperature is less than or equal to a first temperature threshold; and upon determining that the inlet temperature is less than or equal to the first temperature threshold, adjusting the dosing of reductant according to a first process, wherein the first process includes: adjusting a desired storage of reductant in the catalyst , wherein the desired storage is a target amount of reductant that is absorbed by the catalyst; and adjusting the dosing of reductant based on the adjusted desired storage; or adjusting a desired storage of reductant in the catalyst , wherein the desired storage is a target amount of reductant that is absorbed by the catalyst; and adjusting the dosing of reductant based on the adjusted desired storage; or upon determining that the inlet temperature is greater than the first temperature threshold, adjusting the dosing of reductant according to a second process, wherein the second process includes: adjusting the dosing of reductant based on a difference between a measured value indicative of nitrogen oxide (NOx) conversion downstream of the catalyst and a target value of NOx conversion.
Process for transporting and assembling at least one silo (10a-10d, 25, 30) for storage of granulated or powdery material, comprising: providing a body of silo (11a-11d), the body of silo (11a-11d) being a freight container; providing inside the body of silo (11a-11d): a hopper (12a-12d) or components for making the hopper (12a-12d); and a supporting structure of the at least one silo (10a-10d, 25, 30); transporting, to an installation location of the at least one silo (10a-10d, 25, 30), the body of silo (11a-11d) with the supporting structure and the hopper (12a-12d) or components for making the hopper (12a-12d) arranged inside the body of silo (11a-11d); assembling, at the installation location of the at least one silo (10a-10d, 25, 30), the hopper (12a-12d) and the body of silo (11a-11d) at a first end thereof; and providing, at the installation location of the at least one silo (10a-10d, 25, 30), the body of silo (11a-11d) on the supporting structure . providing a body of silo (11a-11d), the body of silo (11a-11d) being a freight container; providing inside the body of silo (11a-11d): a hopper (12a-12d) or components for making the hopper (12a-12d); and a supporting structure of the at least one silo (10a-10d, 25, 30); a hopper (12a-12d) or components for making the hopper (12a-12d); and a supporting structure of the at least one silo (10a-10d, 25, 30); transporting, to an installation location of the at least one silo (10a-10d, 25, 30), the body of silo (11a-11d) with the supporting structure and the hopper (12a-12d) or components for making the hopper (12a-12d) arranged inside the body of silo (11a-11d); assembling, at the installation location of the at least one silo (10a-10d, 25, 30), the hopper (12a-12d) and the body of silo (11a-11d) at a first end thereof; and providing, at the installation location of the at least one silo (10a-10d, 25, 30), the body of silo (11a-11d) on the supporting structure .