mhurhangee/patent-ind-claim-en huggingface dataset:
A power generation control device for a hybrid vehicle comprising a first electric motor (MG1) that is mechanically coupled to a drive wheel and that is mainly used for travel driving, a second electric motor (MG2) that is mechanically coupled to an internal combustion engine (ICE), and a battery that is electrically coupled to the first electric motor and the second electric motor, the power generation control device comprising: a power generation controller that carries out series power generation in which electric power is generated by the second electric motor by receiving driving force from the internal combustion engine while traveling by using the first electric motor as a drive source, and that carries out idle power generation in which electric power is generated by at least one of the first electric motor and the second electric motor by receiving driving force from the internal combustion engine while the vehicle is stopped, characterized in that the power generation controller sets a series power generation start threshold (SOC1) of a charge capacity of the battery at which the series power generation is started and an idle power generation start threshold (SOC3) of the charge capacity of the battery at which the idle power generation is started to the same value, and the same value is a value that maintains the charge capacity of the battery within a range in which it is not necessary to limit the output of the first electric motor during traveling. a power generation controller that carries out series power generation in which electric power is generated by the second electric motor by receiving driving force from the internal combustion engine while traveling by using the first electric motor as a drive source, and that carries out idle power generation in which electric power is generated by at least one of the first electric motor and the second electric motor by receiving driving force from the internal combustion engine while the vehicle is stopped, characterized in that the power generation controller sets a series power generation start threshold (SOC1) of a charge capacity of the battery at which the series power generation is started and an idle power generation start threshold (SOC3) of the charge capacity of the battery at which the idle power generation is started to the same value, and the same value is a value that maintains the charge capacity of the battery within a range in which it is not necessary to limit the output of the first electric motor during traveling.
A gas nozzle for inert-gas welding torches, the gas nozzle being formed by a sleeve , the gas nozzle having an attachment device at a torch-side end of the sleeve for connecting the gas nozzle to a receiving device of an inert-gas welding torch , the attachment device comprising an inner cone , characterised in that the inner cone is formed at the torch-side end of the sleeve , and in that the attachment device further comprises a cylindrical guide surface which is formed within the sleeve and an internal thread which is formed on the cylindrical guide surface , the internal thread serving to screw the gas nozzle to an inert-gas welding torch .
Circulation pump for swimming pools or swimming baths, having a pump housing in which is arranged a centrifugal pump, an electric motor which is surrounded by a substantially cylindrical motor housing shell , wherein the motor housing shell has on an end face a connecting flange for connecting the electric motor to the pump housing , a ventilator , which is arranged on the end face of the motor housing shell which is opposite the connecting flange , and which is designed to generate a cooling air flow along the outer surface of the motor housing shell , wherein the ventilator has a ventilator impeller which is formed by a ventilator hub and ventilator blades arranged on the ventilator hub , characterised in that the ventilator hub has an end face which is free of ventilator blades and the diameter (D N ) of which is at least 60% of the diameter (D L ) of the ventilator impeller , and that the ventilator blades are arranged on the outer circumference of the ventilator hub and have a radial height (H s ) which is at most 20% of the diameter (D L ) of the ventilator impeller . a pump housing in which is arranged a centrifugal pump, an electric motor which is surrounded by a substantially cylindrical motor housing shell , wherein the motor housing shell has on an end face a connecting flange for connecting the electric motor to the pump housing , a ventilator , which is arranged on the end face of the motor housing shell which is opposite the connecting flange , and which is designed to generate a cooling air flow along the outer surface of the motor housing shell , wherein the ventilator has a ventilator impeller which is formed by a ventilator hub and ventilator blades arranged on the ventilator hub , that the ventilator hub has an end face which is free of ventilator blades and the diameter (D N ) of which is at least 60% of the diameter (D L ) of the ventilator impeller , and that the ventilator blades are arranged on the outer circumference of the ventilator hub and have a radial height (H s ) which is at most 20% of the diameter (D L ) of the ventilator impeller .
A dialysis flow loop, comprising: a dialyzer flow loop having a dialyzer and at least a first dialysate storage container ; a regeneration flow loop having a sorbent cartridge , the regeneration flow loop fluidly connectable to the dialyzer flow loop; at least one valve positioned to control fluid movement between the dialyzer flow loop and the regeneration flow loop; and a controller to control the valve, wherein the controller controls the valve based on an amount of waste solutes in a dialysate in the dialyzer flow loop; preferably further comprising at least a first dialyzer flow loop pump located in the dialyzer flow loop, and at least a one regeneration flow loop pump located in the regeneration flow loop; most preferably further comprising a second dialyzer flow loop pump, wherein the first dialyzer flow loop pump is located on an inlet side of the dialyzer, and wherein the second dialyzer flow loop pump is located on an outlet side of the dialyzer. a dialyzer flow loop having a dialyzer and at least a first dialysate storage container ; a regeneration flow loop having a sorbent cartridge , the regeneration flow loop fluidly connectable to the dialyzer flow loop; at least one valve positioned to control fluid movement between the dialyzer flow loop and the regeneration flow loop; and a controller to control the valve, wherein the controller controls the valve based on an amount of waste solutes in a dialysate in the dialyzer flow loop; preferably further comprising at least a first dialyzer flow loop pump located in the dialyzer flow loop, and at least a one regeneration flow loop pump located in the regeneration flow loop; most preferably further comprising a second dialyzer flow loop pump, wherein the first dialyzer flow loop pump is located on an inlet side of the dialyzer, and wherein the second dialyzer flow loop pump is located on an outlet side of the dialyzer.
An apparatus comprising: circuitry configured to derive at least two output streams, wherein each output stream comprises a sum of at least two intermediate signals, the circuitry being configured to derive each intermediate signal by applying a coefficient (c1A, c2A, c1B, c2B) to a signal received from an antenna element , each output stream corresponding to an antenna beam , the apparatus being a mobile communications apparatus, wherein the apparatus further comprises at least one processing core configured to determine an operating condition relating to the apparatus, select, based at least in part on the operating condition, from a preconfigured plurality of coefficient sets, a first set of coefficients (c1A, c2A, c1B, c2B) designated as optimal for the operating condition, and to provide the selected first set of coefficients (c1A, c2A, c1B, c2B) to the circuitry for use in deriving the intermediate signals to thereby reduce correlation between the output streams, wherein the operating condition comprises at least one of: a frequency being used and a frequency band being used, the operating condition not comprising a direction of arrival of an incoming signal. circuitry configured to derive at least two output streams, wherein each output stream comprises a sum of at least two intermediate signals, the circuitry being configured to derive each intermediate signal by applying a coefficient (c1A, c2A, c1B, c2B) to a signal received from an antenna element , each output stream corresponding to an antenna beam , the apparatus being a mobile communications apparatus, wherein the apparatus further comprises at least one processing core configured to determine an operating condition relating to the apparatus, select, based at least in part on the operating condition, from a preconfigured plurality of coefficient sets, a first set of coefficients (c1A, c2A, c1B, c2B) designated as optimal for the operating condition, and to provide the selected first set of coefficients (c1A, c2A, c1B, c2B) to the circuitry for use in deriving the intermediate signals to thereby reduce correlation between the output streams, wherein the operating condition comprises at least one of: a frequency being used and a frequency band being used, the operating condition not comprising a direction of arrival of an incoming signal.
A method for creating a silicone shell for an implantable prosthesis, the shell having a posterior face and an anterior face , the method comprising: a) providing a mandrel suitably sized and shaped for forming a desired shell; b) rotating the mandrel; c) applying a coating silicone dispersion to the rotating mandrel by spraying the silicone dispersion at low pressure to create a shell having a desired thickness, wherein the dispersion is sprayed by one of: atomizing the dispersion using a flow of air below 138 kPa (20 psi); or rotary atomization, wherein the dispersion is fed into a rotary atomizer at or below 207 kPa (30 psi); d) at least partially curing the silicone shell; and e) removing the silicone shell from the mandrel, wherein the spray volume or speed at which the mandrel is rotated is adjusted as the dispersion is applied such that the dispersion is applied more heavily to one or more parts of the mandrel, such that the average thickness of the formed shell in the region where the posterior and anterior faces meet is one of at least 25%, 50%, 75% or 100% greater than the thickness of the shell in the region of the anterior face . a) providing a mandrel suitably sized and shaped for forming a desired shell; b) rotating the mandrel; c) applying a coating silicone dispersion to the rotating mandrel by spraying the silicone dispersion at low pressure to create a shell having a desired thickness, wherein the dispersion is sprayed by one of: atomizing the dispersion using a flow of air below 138 kPa (20 psi); or rotary atomization, wherein the dispersion is fed into a rotary atomizer at or below 207 kPa (30 psi); atomizing the dispersion using a flow of air below 138 kPa (20 psi); or rotary atomization, wherein the dispersion is fed into a rotary atomizer at or below 207 kPa (30 psi); d) at least partially curing the silicone shell; and e) removing the silicone shell from the mandrel, wherein the spray volume or speed at which the mandrel is rotated is adjusted as the dispersion is applied such that the dispersion is applied more heavily to one or more parts of the mandrel, such that the average thickness of the formed shell in the region where the posterior and anterior faces meet is one of at least 25%, 50%, 75% or 100% greater than the thickness of the shell in the region of the anterior face .
A seat support frame of a motor vehicle seat, - with a seat frame having a left and a right side part and a cross tube connecting the two side parts to one another at the front, - with a seat shell , which is supported by the seat frame, is composed of two sheet metal parts firmly connected to one another and arranged at a distance from one another, namely an upper shell and a lower shell , wherein the upper shell and the lower shell together form a channel , which extends parallel to the cross tube and delimits a channel space , and - with an adjusting device , which, on the one hand, is connected to a front region of one of the side parts and, on the other hand, is connected in an articulated manner to the end region of the channel adjacent to this side part, and which allows an adjustment of the distance of the seat shell relative to the cross tube . - with a seat frame having a left and a right side part and a cross tube connecting the two side parts to one another at the front, - with a seat shell , which is supported by the seat frame, is composed of two sheet metal parts firmly connected to one another and arranged at a distance from one another, namely an upper shell and a lower shell , wherein the upper shell and the lower shell together form a channel , which extends parallel to the cross tube and delimits a channel space , and - with an adjusting device , which, on the one hand, is connected to a front region of one of the side parts and, on the other hand, is connected in an articulated manner to the end region of the channel adjacent to this side part, and which allows an adjustment of the distance of the seat shell relative to the cross tube .
A staple comprising: a crown section including a crown portion having an outer crown width and at least one radiused portion extending from either end of the crown portion, the crown portion has a substantially arcuate or semi-circular shape; a leg section including a pair of leg portions extending from the crown section and each having a distal end opposite the crown section, the leg portions being arranged in parallel and defining an inner leg width therebetween; and at least one barb protruding from each of the leg portions, the at least one barb having a projecting point that defines a distal edge of the barb, the distance between the distal edge of the barbs on opposing leg portions defining an outer leg width, characterised in that the outer crown width is greater than the outer leg width and wherein the crown portion has an inner crown width that is less than the outer crown width and greater than an inner leg width, wherein the distal end of each leg portion has an inclined or tapered surface, and wherein each barb is distanced from said inclined or tapered surface. a crown section including a crown portion having an outer crown width and at least one radiused portion extending from either end of the crown portion, the crown portion has a substantially arcuate or semi-circular shape; a leg section including a pair of leg portions extending from the crown section and each having a distal end opposite the crown section, the leg portions being arranged in parallel and defining an inner leg width therebetween; and at least one barb protruding from each of the leg portions, the at least one barb having a projecting point that defines a distal edge of the barb, the distance between the distal edge of the barbs on opposing leg portions defining an outer leg width, characterised in that the outer crown width is greater than the outer leg width and wherein the crown portion has an inner crown width that is less than the outer crown width and greater than an inner leg width, wherein the distal end of each leg portion has an inclined or tapered surface, and wherein each barb is distanced from said inclined or tapered surface.
A battery device comprising: at least one assembled battery (BT); a first main switch (MCP, MCM) configured to switch an electrical connection state of a main circuit (C1P, C1M) connected between the assembled battery and a load; a second main switch (RP, RM) configured to switch an electrical connection state of a second main circuit (C2P, C2M), the main circuit (C1P, C1M) including a first power line branch including the first main switch (MCP, MCM), the second main circuit (C2P, C2M) including a second power line branch including the second main switch (RP, RM) and being parallel to the first power line branch, the first power line branch and the second power line branch being connected to different parts of the load, the first power line branch and the second power line branch being connected to an output terminal of the assembled battery (BT); a battery management circuit configured to control an operation of the first main switch (MCP, MCM) based on an operation command supplied from the load; and a power supply circuit configured to supply power to the battery management circuit and the second main switch (RP, RM) when a start command supplied from the outside is ON, wherein the second main switch (RP, RM) is configured to connect the second main circuit (C2P, C2M) and the load through being supplied with power. at least one assembled battery (BT); a first main switch (MCP, MCM) configured to switch an electrical connection state of a main circuit (C1P, C1M) connected between the assembled battery and a load; a second main switch (RP, RM) configured to switch an electrical connection state of a second main circuit (C2P, C2M), the main circuit (C1P, C1M) including a first power line branch including the first main switch (MCP, MCM), the second main circuit (C2P, C2M) including a second power line branch including the second main switch (RP, RM) and being parallel to the first power line branch, the first power line branch and the second power line branch being connected to different parts of the load, the first power line branch and the second power line branch being connected to an output terminal of the assembled battery (BT); a battery management circuit configured to control an operation of the first main switch (MCP, MCM) based on an operation command supplied from the load; and a power supply circuit configured to supply power to the battery management circuit and the second main switch (RP, RM) when a start command supplied from the outside is ON, wherein the second main switch (RP, RM) is configured to connect the second main circuit (C2P, C2M) and the load through being supplied with power.
A method of dicing a semiconductor wafer comprising a plurality of integrated circuits , the method comprising: forming a mask above the semiconductor wafer , the mask comprising a layer covering and protecting the integrated circuits ; patterning the mask with a uniform rotating laser beam laser scribing process to provide a patterned mask with gaps exposing regions of the semiconductor wafer between the integrated circuits , the uniform rotating laser beam laser scribing process comprising passing the laser beam through a rotating telescope or a rotating prism ; and plasma etching the semiconductor wafer through the gaps in the patterned mask to singulate the integrated circuits. forming a mask above the semiconductor wafer , the mask comprising a layer covering and protecting the integrated circuits ; patterning the mask with a uniform rotating laser beam laser scribing process to provide a patterned mask with gaps exposing regions of the semiconductor wafer between the integrated circuits , the uniform rotating laser beam laser scribing process comprising passing the laser beam through a rotating telescope or a rotating prism ; and plasma etching the semiconductor wafer through the gaps in the patterned mask to singulate the integrated circuits.
Method for purifying and liquefying a gas mixture comprising a main gas consisting of methane and accompanying substances, wherein at least a first accompanying substance comprising or consisting of H 2 O and a second accompanying substance comprising or consisting of CO 2 and higher hydrocarbons have a higher condensation temperature than the main gas, the method comprising the steps of: - cooling the gas mixture by means of a first cooling stage to a first temperature below a condensation temperature of a first accompanying substance of the plurality of accompanying substances and above the condensation temperature of the main gas in such a way that the first accompanying substance at least partially condenses; - separating at least a portion of the condensed first accompanying substance in such a way that the first accompanying substance is at least partially removed from the gas mixture; - cooling the gas mixture by means of a second cooling stage to a second temperature below a condensation temperature of a second accompanying substance of the plurality of accompanying substances and above the condensation temperature of the main gas such that the second accompanying substance at least partially condenses; - separating at least a portion of the condensed second accompanying substance in such a way that the second accompanying substance is at least partially removed from the gas mixture; wherein the first temperature is higher than the second temperature, which in turn is higher than the condensation temperature of the main gas, wherein H 2 O and CO 2 can be separated without completely separating the higher hydrocarbons, and wherein the first cooling stage and the second cooling stage each comprise a heat exchanger with an integrated purification element, and wherein the gas mixture is cooled downstream of the first and the second cooling stages in a condenser stage to a temperature below the condensation temperature of the main gas. - cooling the gas mixture by means of a first cooling stage to a first temperature below a condensation temperature of a first accompanying substance of the plurality of accompanying substances and above the condensation temperature of the main gas in such a way that the first accompanying substance at least partially condenses; - separating at least a portion of the condensed first accompanying substance in such a way that the first accompanying substance is at least partially removed from the gas mixture; - cooling the gas mixture by means of a second cooling stage to a second temperature below a condensation temperature of a second accompanying substance of the plurality of accompanying substances and above the condensation temperature of the main gas such that the second accompanying substance at least partially condenses; - separating at least a portion of the condensed second accompanying substance in such a way that the second accompanying substance is at least partially removed from the gas mixture;