mhurhangee/patent-ind-claim-en huggingface dataset:
A MEMS microphone , comprising: an output interface for providing an output signal of the MEMS microphone , and a memory , a clock configured to provide a clock signal having a clock frequency, a clock divider configured to divide the clock frequency of the clock signal by two in order to obtain a clock divided by two signal, wherein the output interface is configured to provide, in a normal mode of operation, a microphone signal as the output signal of the MEMS microphone , wherein the output interface is configured to provide, in an initialization mode of operation, a data signal as the output signal of the MEMS microphone , wherein the data signal carries an information stored in the memory , wherein the data signal is a binary signal, wherein the output interface is configured to provide, in the initialization mode of operation, during one time interval of the initialization mode of operation the data signal as the output signal and during at least one other time interval of the initialization mode of operation the clock divided by two signal as the output signal , wherein the information stored in the memory comprises an ID of the MEMS microphone , and/or wherein the information stored in the memory comprises at least one parameter dependent on an acoustic characteristic of the MEMS microphone , wherein the MEMS microphone comprises a MEMS microphone unit , wherein the microphone signal depends on a signal provided by the MEMS microphone unit . an output interface for providing an output signal of the MEMS microphone , and a memory , a clock configured to provide a clock signal having a clock frequency, a clock divider configured to divide the clock frequency of the clock signal by two in order to obtain a clock divided by two signal, wherein the output interface is configured to provide, in a normal mode of operation, a microphone signal as the output signal of the MEMS microphone , wherein the output interface is configured to provide, in an initialization mode of operation, a data signal as the output signal of the MEMS microphone , wherein the data signal carries an information stored in the memory , wherein the data signal is a binary signal, wherein the output interface is configured to provide, in the initialization mode of operation, during one time interval of the initialization mode of operation the data signal as the output signal and during at least one other time interval of the initialization mode of operation the clock divided by two signal as the output signal , wherein the information stored in the memory comprises an ID of the MEMS microphone , and/or wherein the information stored in the memory comprises at least one parameter dependent on an acoustic characteristic of the MEMS microphone , wherein the MEMS microphone comprises a MEMS microphone unit , wherein the microphone signal depends on a signal provided by the MEMS microphone unit .
A vectoring controller for configuring a vectoring processor that jointly processes Discrete Multi-Tone DMT communication signals (u 1 ..u N ; y 1 ..y N ) to be transmitted over, respectively received from, a plurality of N subscriber lines (L 1 ..L N ) according to a vectoring matrix ( P k ; Q k ), and adapted, for given ones (k) of a plurality of tones: - to enable the given tone for direct data communication over a first set of N-Mk targeted lines (A k ) out of the N subscriber lines, and to disable the given tone for direct data communication over a second disjoint set of Mk supporting lines (B k ) out of the N subscriber lines, M k denoting a non-null positive integer, - to configure the vectoring matrix to use an available transmit power, respectively an available receive power, at the given tone over the second set of M k supporting lines for enhancement of data signal gains at the given tone over the first set of N-M k targeted lines, charachterized in that the vectoring controller is further adapted to distribute targeted and supporting roles across the N subscriber lines while iterating through the plurality of tones in sequence in order to achieve respective target data rates over the N subscriber lines, and wherein the vectoring controller is further adapted, during the respective iterations, to update respective data rates achievable over the N subscriber lines given the so-enabled and so-disabled tones and the vectoring matrices configured so far, and to determine the first and second sets of lines based on the updated data rates. - to enable the given tone for direct data communication over a first set of N-Mk targeted lines (A k ) out of the N subscriber lines, and to disable the given tone for direct data communication over a second disjoint set of Mk supporting lines (B k ) out of the N subscriber lines, M k denoting a non-null positive integer, - to configure the vectoring matrix to use an available transmit power, respectively an available receive power, at the given tone over the second set of M k supporting lines for enhancement of data signal gains at the given tone over the first set of N-M k targeted lines,
A method of producing a phosphor comprising a composition represented by a composition formula: Na x RM y S z O a where R represents at least one element selected from the group consisting of Y, La, Gd, and Lu, M represents at least one element selected from the group consisting of Bi, Ce, Eu, and Pr, x is an atomic ratio satisfying 0.93 < x < 1.07, y is an atomic ratio satisfying 0.00002 < y < 0.01, z is an atomic ratio satisfying 1.9 < z < 2.1, and a is an atomic ratio satisfying 0.001 < a < 0.05, the method comprising: preparing a raw material mixture by mixing at least one first compound selected from the group consisting of an oxide, an oxoacid, and a halide of sodium, at least one second compound selected from the group consisting of an oxide, an oxoacid, and a halide of the element R, and at least one third compound selected from the group consisting of an oxide, an oxoacid, and a halide of the element M, at such a desired ratio for the resultant phosphor to have the composition represented by the composition formula; producing a first burned product by burning the raw material mixture, which is filled in a boron nitride vessel, in a hydrogen sulfide atmosphere at a temperature of 1000°C or lower; and producing a second burned product as the phosphor by burning the first burned product, which is filled in a quartz glass vessel, in a hydrogen sulfide atmosphere at a temperature that is equal to or higher than 900°C and is higher than the burning temperature of the first burning. preparing a raw material mixture by mixing at least one first compound selected from the group consisting of an oxide, an oxoacid, and a halide of sodium, at least one second compound selected from the group consisting of an oxide, an oxoacid, and a halide of the element R, and at least one third compound selected from the group consisting of an oxide, an oxoacid, and a halide of the element M, at such a desired ratio for the resultant phosphor to have the composition represented by the composition formula; producing a first burned product by burning the raw material mixture, which is filled in a boron nitride vessel, in a hydrogen sulfide atmosphere at a temperature of 1000°C or lower; and producing a second burned product as the phosphor by burning the first burned product, which is filled in a quartz glass vessel, in a hydrogen sulfide atmosphere at a temperature that is equal to or higher than 900°C and is higher than the burning temperature of the first burning.
A method for determining information about accuracy variation over temperature of a solenoid fluid control valve, the method comprising: performing a current sweep at a first temperature, the current sweep comprising supplying, by a variable current source, a first current to a coil of the solenoid fluid control valve, changing the first current, and recording at least one resulting control pressure (step 100); for at least one command pressure, determining an error in a control pressure at the first temperature based on the current sweep by determining a command current corresponding to the at least one command pressure based on the current sweep, supplying the command current to the solenoid fluid control valve, and measuring a resulting control pressure (step 102); calculating a metric based on the current sweep (step 104); and determining a pressure error offset for a second temperature based on the metric (step 110). performing a current sweep at a first temperature, the current sweep comprising supplying, by a variable current source, a first current to a coil of the solenoid fluid control valve, changing the first current, and recording at least one resulting control pressure (step 100); for at least one command pressure, determining an error in a control pressure at the first temperature based on the current sweep by determining a command current corresponding to the at least one command pressure based on the current sweep, supplying the command current to the solenoid fluid control valve, and measuring a resulting control pressure (step 102); calculating a metric based on the current sweep (step 104); and determining a pressure error offset for a second temperature based on the metric (step 110).
A heat exchange assembly comprising: a heat exchanger , the heating exchanger being one of a curved plate-shaped structure, a U-shaped heat exchanger, a V-shaped heat exchanger, a W-shaped heat exchanger, and a wave-shaped heat exchanger, and surrounding to form a heat exchanging region ; a fan , wherein the heat exchanger and the fan are spaced apart, and the heat exchanger is located in an air intake direction or in an air outgoing direction of the fan ; the fan has an air opening defining an air intake area S2; an air outgoing area S1 of the heat exchanger is greater than the air intake area S2 of the air opening of the fan ; characterized in that the air opening faces the heat exchanger and is located in the heat exchanging region ; and a shortest distance H in an axial direction of the fan , within the air intake area (S2) and between the air opening of the fan and a portion of the heat exchanger , and a diameter D of an impeller of the fan satisfy 2 H D > 1.05 . a heat exchanger , the heating exchanger being one of a curved plate-shaped structure, a U-shaped heat exchanger, a V-shaped heat exchanger, a W-shaped heat exchanger, and a wave-shaped heat exchanger, and surrounding to form a heat exchanging region ; a fan , wherein the heat exchanger and the fan are spaced apart, and the heat exchanger is located in an air intake direction or in an air outgoing direction of the fan ; the fan has an air opening defining an air intake area S2; an air outgoing area S1 of the heat exchanger is greater than the air intake area S2 of the air opening of the fan ; characterized in that the air opening faces the heat exchanger and is located in the heat exchanging region ; and a shortest distance H in an axial direction of the fan , within the air intake area (S2) and between the air opening of the fan and a portion of the heat exchanger , and a diameter D of an impeller of the fan satisfy 2 H D > 1.05 .
A process for treating a solid waste containing material, comprising: separating the solid waste containing material to produce at least a plastics fraction , an organic fraction , and a residual fraction ; subjecting at least a portion of the plastics fraction to plastics processing to produce at least one hydrocarbon product; subjecting a first portion of the organics fraction to bio-ethanol production; subjecting a second portion of the organics fraction to bio-coal production; and supplying at least a portion of the residual fraction to a thermal reactor to produce an inert material and heat energy , wherein said bio-ethanol production comprises: enzymatically treating the first portion of the organics fraction to produce a sugar-enriched stream ; fermenting at least a portion of the sugar-enriched stream to produce an ethanol containing stream ; and separating ethanol from the ethanol containing stream to produce a bio-ethanol product , and wherein said bio-coal production comprises: subjecting the second portion of the organics fraction to hydrothermal carbonization to produce a thermally treated stream such as coal sludge; and removing water from the thermally treated stream to produce a bio-coal product . separating the solid waste containing material to produce at least a plastics fraction , an organic fraction , and a residual fraction ; subjecting at least a portion of the plastics fraction to plastics processing to produce at least one hydrocarbon product; subjecting a first portion of the organics fraction to bio-ethanol production; subjecting a second portion of the organics fraction to bio-coal production; and supplying at least a portion of the residual fraction to a thermal reactor to produce an inert material and heat energy , wherein said bio-ethanol production comprises: enzymatically treating the first portion of the organics fraction to produce a sugar-enriched stream ; fermenting at least a portion of the sugar-enriched stream to produce an ethanol containing stream ; and separating ethanol from the ethanol containing stream to produce a bio-ethanol product , enzymatically treating the first portion of the organics fraction to produce a sugar-enriched stream ; fermenting at least a portion of the sugar-enriched stream to produce an ethanol containing stream ; and separating ethanol from the ethanol containing stream to produce a bio-ethanol product , and wherein said bio-coal production comprises: subjecting the second portion of the organics fraction to hydrothermal carbonization to produce a thermally treated stream such as coal sludge; and removing water from the thermally treated stream to produce a bio-coal product . subjecting the second portion of the organics fraction to hydrothermal carbonization to produce a thermally treated stream such as coal sludge; and removing water from the thermally treated stream to produce a bio-coal product .
A liquid jet head comprising: a jet section configured to jet liquid; a base member which is configured to support the jet section, and which is installed on an installation surface of an installation target; and a positioning mechanism configured to adjust a position of the base member in a direction (X, Y) along the installation surface with respect to a protruding part disposed on the installation surface, wherein the positioning mechanism is supported by the base member, and at least a part of the positioning mechanism is arranged inside an outer shape of the base member in a plan view of the installation surface viewed from a vertical direction thereof, characterized in that the positioning mechanism includes: a preloading mechanism configured to apply a preload to the protruding part in a direction (X, Y) along the installation surface, a contact member having contact with the protruding part from an opposite side to a side at which the preloading mechanism is arranged in a direction in which the preloading mechanism applies the preload, and a displacement mechanism configured to displace the contact member along a displacement axis (O2) extending in an oblique direction crossing a direction (Z) perpendicular to the installation surface . a jet section configured to jet liquid; a base member which is configured to support the jet section, and which is installed on an installation surface of an installation target; and a positioning mechanism configured to adjust a position of the base member in a direction (X, Y) along the installation surface with respect to a protruding part disposed on the installation surface, wherein the positioning mechanism is supported by the base member, and at least a part of the positioning mechanism is arranged inside an outer shape of the base member in a plan view of the installation surface viewed from a vertical direction thereof, characterized in that the positioning mechanism includes: a preloading mechanism configured to apply a preload to the protruding part in a direction (X, Y) along the installation surface, a contact member having contact with the protruding part from an opposite side to a side at which the preloading mechanism is arranged in a direction in which the preloading mechanism applies the preload, and a displacement mechanism configured to displace the contact member along a displacement axis (O2) extending in an oblique direction crossing a direction (Z) perpendicular to the installation surface . a preloading mechanism configured to apply a preload to the protruding part in a direction (X, Y) along the installation surface, a contact member having contact with the protruding part from an opposite side to a side at which the preloading mechanism is arranged in a direction in which the preloading mechanism applies the preload, and a displacement mechanism configured to displace the contact member along a displacement axis (O2) extending in an oblique direction crossing a direction (Z) perpendicular to the installation surface .
A system for controlling garden equipment by operating a garden equipment control device , the system comprising: a first module configured to pair with the garden equipment control device over a first network (N1), where the first module is configured to control the garden equipment control device when paired therewith; a second module configured to wirelessly communicate with the garden equipment control device over a second network (N2), wherein the second module is connected to the garden equipment control device through a gateway ; and a controller associated with the garden equipment control device , wherein the controller is configured to check whether the garden equipment control device is paired with the gateway ; wherein when the controller determines that the garden equipment control device is paired with the gateway : the second module is enabled to control the garden equipment control device , and the first module is disabled to control the garden equipment control device . a first module configured to pair with the garden equipment control device over a first network (N1), where the first module is configured to control the garden equipment control device when paired therewith; a second module configured to wirelessly communicate with the garden equipment control device over a second network (N2), wherein the second module is connected to the garden equipment control device through a gateway ; and a controller associated with the garden equipment control device , wherein the controller is configured to check whether the garden equipment control device is paired with the gateway ; wherein when the controller determines that the garden equipment control device is paired with the gateway : the second module is enabled to control the garden equipment control device , and the first module is disabled to control the garden equipment control device . the second module is enabled to control the garden equipment control device , and the first module is disabled to control the garden equipment control device .
Fixed window of a motor vehicle with opening hatch , comprising a glass window pane , fixed to close a corresponding opening of a door of a motor vehicle and having an opening with peripheral edge (12.1), which is closed by means of said hatch , which has a peripheral edge (21.1) and is arranged sliding with respect to sliding guide means , characterized in that it comprises: - a continuous bevelling of said edge (12.1) of said opening , forming a flared continuous chamfer (12.2) increasing toward the inner surface of said glass pane ; - a continuous bevelling of said edge (21.1) of said hatch , forming a flared continuous chamfer (21.2) decreasing toward the outer surface of said hatch , so that said hatch , arranged to close said opening , produces with the same opening a positive fit coupling in mutual interpenetration; - a sealing gasket surrounding said edge (21.1) of said hatch , which ensures, when said hatch is arranged to close said opening , the impermeability of said opening of the window , as a result of its elastic compression between said opposed chamfers (12.2, 21.2); - elastic shoe means , integral with respect to said hatch , which rest on a corresponding surface (13.4) of said sliding guide means and which elastically stress said hatch to maintain said sealed closing position of said opening of said fixed glass pane , while they allow movement of said hatch to the disengaged position of said opening , through sliding along a part of said sliding guide means , in opposition to the elastic force of said shoe means , and maintain said hatch in said disengaged position of said opening by means of their elastic force. - a continuous bevelling of said edge (12.1) of said opening , forming a flared continuous chamfer (12.2) increasing toward the inner surface of said glass pane ; - a continuous bevelling of said edge (21.1) of said hatch , forming a flared continuous chamfer (21.2) decreasing toward the outer surface of said hatch , so that said hatch , arranged to close said opening , produces with the same opening a positive fit coupling in mutual interpenetration; - a sealing gasket surrounding said edge (21.1) of said hatch , which ensures, when said hatch is arranged to close said opening , the impermeability of said opening of the window , as a result of its elastic compression between said opposed chamfers (12.2, 21.2); - elastic shoe means , integral with respect to said hatch , which rest on a corresponding surface (13.4) of said sliding guide means and which elastically stress said hatch to maintain said sealed closing position of said opening of said fixed glass pane , while they allow movement of said hatch to the disengaged position of said opening , through sliding along a part of said sliding guide means , in opposition to the elastic force of said shoe means , and maintain said hatch in said disengaged position of said opening by means of their elastic force.
Oral cosmetic use of a combination of active agents comprising at least one polyunsaturated fatty acid and at least one carotenoid, for improving the quality of the nails wherein - the at least one polyunsaturated fatty acid is used in the form of a blackcurrant seed oil and a fish oil, - the carotenoid used is lycopene, - the combination also comprises, as additional active agent, vitamins, said vitamins being vitamin C and vitamin E, and - the improvement of the quality of nails consists in reducing and/or preventing brittle, fragile, soft, split or cracked nails, in which the combination of active agents is used in a cosmetic composition that is suitable for oral administration, the said composition being selected from a coated tablet, a gel capsule, a suspension, a gel, an emulsion, a drinkable solution, a tablet to be swallowed or chewed, a capsule, a granule to be dissolved, a syrup, a lozenge and a food supplement. - the at least one polyunsaturated fatty acid is used in the form of a blackcurrant seed oil and a fish oil, - the carotenoid used is lycopene, - the combination also comprises, as additional active agent, vitamins, said vitamins being vitamin C and vitamin E, and - the improvement of the quality of nails consists in reducing and/or preventing brittle, fragile, soft, split or cracked nails,