mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a wireless power transmitter in a wireless power transfer operation in which power is transferred wirelessly via a magnetic field generated by an inductor of the transmitter and inducing an AC current in an inductor of a wireless power receiver , the method comprising: the transmitter being arranged to cause the receiver to provide output power POUT at a desired level, wherein causing the receiver to provide the output power POUT at the desired level comprises: the transmitter communicating with the receiver to set operating parameters for a wireless power transfer operation; based on said communicating, the transmitter performing operations A and B in the wireless power transfer operation, wherein: in operation A, the transmitter causes the receiver's inductor's AC current I_Rx_coil to be reduced to a minimal receive coil current at which the receiver does not provide the output power POUT at the desired level; in operation B, which is performed after operation A, the transmitter increases an output power of the transmitter's inductor to serve to increase the output power POUT of the receiver , wherein the increase of the output power POUT of the receiver will be at least partially due to the transmitter causing an increased voltage V_Rx_coil across the receiver's inductor . the transmitter communicating with the receiver to set operating parameters for a wireless power transfer operation; based on said communicating, the transmitter performing operations A and B in the wireless power transfer operation, wherein: in operation A, the transmitter causes the receiver's inductor's AC current I_Rx_coil to be reduced to a minimal receive coil current at which the receiver does not provide the output power POUT at the desired level; in operation B, which is performed after operation A, the transmitter increases an output power of the transmitter's inductor to serve to increase the output power POUT of the receiver , wherein the increase of the output power POUT of the receiver will be at least partially due to the transmitter causing an increased voltage V_Rx_coil across the receiver's inductor . in operation A, the transmitter causes the receiver's inductor's AC current I_Rx_coil to be reduced to a minimal receive coil current at which the receiver does not provide the output power POUT at the desired level; in operation B, which is performed after operation A, the transmitter increases an output power of the transmitter's inductor to serve to increase the output power POUT of the receiver , wherein the increase of the output power POUT of the receiver will be at least partially due to the transmitter causing an increased voltage V_Rx_coil across the receiver's inductor .
A flooring system, comprising: a top floor layer comprising a plurality of luxury vinyl tiles , wherein respective tile joints are formed between adjacent luxury vinyl tiles; a sub-floor ; and an underlayment material comprising a cross-linked, polyolefin foam disposed between the sub-floor and the top floor layer , wherein the underlayment material is configured with a density in a range of about 20 kilograms per cubic meter to about 200 kilograms per cubic meter and a thickness in a range of a bout 0.5 millimeter to about 6 millimeter and wherein the underlayment material has a compressive creep of less than fifty percent of an original thickness associated with the underlayment material over a period of about twelve hours at a load of 21,37 kPa (3.1 psi), wherein said underlayment material is affixed to said luxury vinyl tiles by an adhesive being applied at space between them. a top floor layer comprising a plurality of luxury vinyl tiles , wherein respective tile joints are formed between adjacent luxury vinyl tiles; a sub-floor ; and an underlayment material comprising a cross-linked, polyolefin foam disposed between the sub-floor and the top floor layer , wherein the underlayment material is configured with a density in a range of about 20 kilograms per cubic meter to about 200 kilograms per cubic meter and a thickness in a range of a bout 0.5 millimeter to about 6 millimeter and wherein the underlayment material has a compressive creep of less than fifty percent of an original thickness associated with the underlayment material over a period of about twelve hours at a load of 21,37 kPa (3.1 psi), wherein said underlayment material is affixed to said luxury vinyl tiles by an adhesive being applied at space between them.
Converter assembly comprising a converter , which has converter valves, which each comprise power semiconductor switches, characterized in that the converter assembly comprises three modular converter units (12-14), wherein each converter unit comprises exactly two converter valves of the converter which extend in each case between a first or a second DC voltage pole of the converter and an AC voltage terminal of the converter for connecting the converter to components of the converter assembly that are on the AC voltage side, wherein at least some of the modular converter units (12-14) are connected to one another by means of gas-insulated or liquid-insulated electrical lines to form the converter , wherein provision is made of a separate fluid-tight encapsulation housing (17-19) for each of the modular converter units, in which at least some of the power semiconductor switches are arranged to form the respective modular converter unit (12-14), and the encapsulation housing (17-19) is filled with an electrically insulating insulation fluid in order to electrically insulate the power semiconductor switches arranged in said encapsulation housing, wherein the at least one encapsulation housing (17-19) is insulated in a liquid-tight manner and the insulation fluid is an insulation liquid comprising an ester, wherein the converter assembly furthermore comprises at least one further high-voltage component (3-6) which is a transformer or a switchgear installation, wherein the modular converter unit is electrically connected to the high-voltage component (3-6) by means of at least one gas-insulated or liquid-insulated electrical line (23-26) .
Knitted garment with three-dimensional textile shaping for body curves (2, 2', 2"), wherein the three-dimensional textile shaping on the knitted part with the body curve (2, 2', 2") or body curves (2, 2', 2") is achieved whereby in the region of a body curve (2, 2', 2") within the knitted part covering this body curve, an increase in stitches takes place according to the curve over a plurality of knitting rows on the outer side of the central piece of the knitted fabric determined previously as a result of the body measurements, then the number of stitches is maintained and then a decrease in stitches, here also on the outer side of the previously determined central piece of the knitted fabric, so that as a result trapezoidal side parts are knitted in which ensure the three-dimensional shaping, wherein the knitting process is continued continuously without a temporary interruption of the knitting process for individual rows of stitches as in the case of the gusset or wedge-shaping technique, wherein the increases and decreases in stitches take place in superposed positions of the knitting rows so that they extend along two or four lines which run in the direction of the highest point or highest region of the body curve (2, 2', 2"), characterized in that the increases and decreases in stitches are not made in directly successive knitting rows. wherein the three-dimensional textile shaping on the knitted part with the body curve (2, 2', 2") or body curves (2, 2', 2") is achieved whereby in the region of a body curve (2, 2', 2") within the knitted part covering this body curve, an increase in stitches takes place according to the curve over a plurality of knitting rows on the outer side of the central piece of the knitted fabric determined previously as a result of the body measurements, then the number of stitches is maintained and then a decrease in stitches, here also on the outer side of the previously determined central piece of the knitted fabric, so that as a result trapezoidal side parts are knitted in which ensure the three-dimensional shaping, wherein the knitting process is continued continuously without a temporary interruption of the knitting process for individual rows of stitches as in the case of the gusset or wedge-shaping technique, wherein the increases and decreases in stitches take place in superposed positions of the knitting rows so that they extend along two or four lines which run in the direction of the highest point or highest region of the body curve (2, 2', 2"), characterized in that the increases and decreases in stitches are not made in directly successive knitting rows.
A single-mode, single-frequency laser system , comprising: - a frequency-tunable diode seed laser configured to generate a linearly-polarized single-frequency seed laser signal at a fundamental frequency; - an optical amplifier configured to amplify the seed laser signal; - two or more spaced mirrors defining a mechanically-fixed external resonant cavity , which is being configured to couple the amplified seed laser signal into the cavity; - a diode seed laser driver being configured to tune the frequency of the frequency-tunable diode seed laser by varying the diode driving current to keep the frequency of the seed laser locked to the resonance frequency of the external cavity in order to enhance the amplified seed laser signal coupled into the cavity ; and - a non-linear crystal placed in a beam path inside the cavity , the cavity being configured to convert the frequency of the enhanced signal to a desired wavelength range. - a frequency-tunable diode seed laser configured to generate a linearly-polarized single-frequency seed laser signal at a fundamental frequency; - an optical amplifier configured to amplify the seed laser signal; - two or more spaced mirrors defining a mechanically-fixed external resonant cavity , which is being configured to couple the amplified seed laser signal into the cavity; - a diode seed laser driver being configured to tune the frequency of the frequency-tunable diode seed laser by varying the diode driving current to keep the frequency of the seed laser locked to the resonance frequency of the external cavity in order to enhance the amplified seed laser signal coupled into the cavity ; and - a non-linear crystal placed in a beam path inside the cavity , the cavity being configured to convert the frequency of the enhanced signal to a desired wavelength range.
A method performed at least in part on at least one machine, comprising: receiving , at a view model (102; 222A; 334), a request from a view (106; 224A; 332) for view-specified data; at the view model, making one or more asynchronous requests to a data model (110; 220; 340) for information corresponding to the view-specified data; returning a promise from the view model to the view in response to the request for the view-specified data; performing, by the view, prior to the view receiving the view-specified data, one or more other operations related to the view creating a display; obtaining a dataset including the information at the data model; providing the information from the data model to the view model in response to the one or more asynchronous requests; and returning the view-specified data, based upon the information returned to the view model, from the view model to the view to fulfill the promise. receiving , at a view model (102; 222A; 334), a request from a view (106; 224A; 332) for view-specified data; at the view model, making one or more asynchronous requests to a data model (110; 220; 340) for information corresponding to the view-specified data; returning a promise from the view model to the view in response to the request for the view-specified data; performing, by the view, prior to the view receiving the view-specified data, one or more other operations related to the view creating a display; obtaining a dataset including the information at the data model; providing the information from the data model to the view model in response to the one or more asynchronous requests; and returning the view-specified data, based upon the information returned to the view model, from the view model to the view to fulfill the promise.
A method for screening alpha-amylases having high wash performance at low temperature of 5-35°C, wherein the alpha-amylases have at least 80% sequence identity to SEQ ID NO: 2; and comprising the steps of: a) determining the binding of the alpha-amylases to solid or immobilized starch; b) selecting alpha-amylases having a low binding to starch; wherein the alpha-amylases have less than 90% of the binding to starch than the alpha-amylase having SEQ ID NO: 2. a) determining the binding of the alpha-amylases to solid or immobilized starch; b) selecting alpha-amylases having a low binding to starch;
A rear view device for a vehicle , said rear view device comprising: • a base adapted to be mounted to a side of the vehicle , wherein said base has a first attachment end disposed at the side of the vehicle and a second attachment end disposed opposite the first attachment end; • a head for supporting at least one means for providing a rearward field of view to a driver of the vehicle and being disposed at said second attachment end of said base , wherein said head comprises an aperture through which said base can be accessed; • an actuator comprising a foot and/or at least one extension to be connected to the base , a first attachment means, like protrusions , and a tilt axle ; • a shroud comprising second attachment means, like clips or protrusions , adapted to attach to said first attachment means of the actuator to fixedly attach said shroud to said actuator ; • a case lower , wherein the actuator rests on the case lower , via the shroud ; and • a case frame mounted on the case lower ; characterized in that the actuator comprises a hinge ; and the case frame comprises a complementary hinge , wherein the hinge of the actuator is adapted to be engaged by the complementary hinge provided by the case frame . • a base adapted to be mounted to a side of the vehicle , wherein said base has a first attachment end disposed at the side of the vehicle and a second attachment end disposed opposite the first attachment end; • a head for supporting at least one means for providing a rearward field of view to a driver of the vehicle and being disposed at said second attachment end of said base , wherein said head comprises an aperture through which said base can be accessed; • an actuator comprising a foot and/or at least one extension to be connected to the base , a first attachment means, like protrusions , and a tilt axle ; • a shroud comprising second attachment means, like clips or protrusions , adapted to attach to said first attachment means of the actuator to fixedly attach said shroud to said actuator ; • a case lower , wherein the actuator rests on the case lower , via the shroud ; and • a case frame mounted on the case lower ; the actuator comprises a hinge ; and the case frame comprises a complementary hinge , wherein the hinge of the actuator is adapted to be engaged by the complementary hinge provided by the case frame .
A method comprising, by a server: generating a first bit stream representing a target content element , the target content element based on the decoded first bit stream; selecting a predesignated frame of the content element for generating a tracking message based on a computational complexity of decoding of the predesignated frame being greater than a predetermined threshold; sending the first bit stream to a target client device including a designation indicator for identifying the predesignated frame ; receiving a tracking message purporting to relate to delivery of the content element ; determining whether the tracking message contains an identifier of a sending device that sent the tracking message; determining whether the sending device and the target client device are the same device; if the sending client device and the target client device are not the same device, disregarding the tracking message; if the sending client device and the target client device are the same device: recovering, from the tracking message, information about at least a portion of a frame of a content element processed by a trusted platform module of the client device ; and comparing the at least a portion of the frame of the content element processed by a trusted platform module of the client device with the predesignated frame of the target content element . generating a first bit stream representing a target content element , the target content element based on the decoded first bit stream; selecting a predesignated frame of the content element for generating a tracking message based on a computational complexity of decoding of the predesignated frame being greater than a predetermined threshold; sending the first bit stream to a target client device including a designation indicator for identifying the predesignated frame ; receiving a tracking message purporting to relate to delivery of the content element ; determining whether the tracking message contains an identifier of a sending device that sent the tracking message; determining whether the sending device and the target client device are the same device; if the sending client device and the target client device are not the same device, disregarding the tracking message; if the sending client device and the target client device are the same device: recovering, from the tracking message, information about at least a portion of a frame of a content element processed by a trusted platform module of the client device ; and comparing the at least a portion of the frame of the content element processed by a trusted platform module of the client device with the predesignated frame of the target content element . recovering, from the tracking message, information about at least a portion of a frame of a content element processed by a trusted platform module of the client device ; and comparing the at least a portion of the frame of the content element processed by a trusted platform module of the client device with the predesignated frame of the target content element .
A method for preparing diamino-dicyclohexyl methane, characterized in that said method comprises the following steps: 1) 4,4'-diamino-diphenyl methane feed is hydrogenated in a reactor packed with catalyst to prepare 4,4'- diamino-dicyclohexyl methane at the conversion of 98-99.99%; 2) when the conversion in step 1) is 90-98%, the feed is switched from 4,4'-diamino-diphenyl methane to a mixture of 2,4'-diamino-diphenyl methane and 4,4'-diamino-diphenyl methane, and the hydrogenation reaction is continued to prepare 2,4'-diamino-dicyclohexyl methane and 4,4'-diamino-dicyclohexyl methane; 3) after the conversion of the mixture of 2,4'-diamino-diphenyl methane and 4,4'-diamino-diphenyl methane in step 2) is ≥90% and the reaction is lasted at said conversion for 20-40 h, the feed is switched from the mixture of 2,4'-diamino-diphenyl methane and 4,4'-diamino-diphenyl methane to 4,4'-diamino-diphenyl methane, and the hydrogenation reaction is continued to prepare 4,4'-diamino-dicyclohexyl methane, wherein the 4,4'-diamino-diphenyl methane feed is composed of 98-100 wt% 4,4'-diamino-diphenyl methane, 0-2 wt% 2,4'-diamino-diphenyl methane, 0-1 wt% N-methyl-4,4'-diamino diphenyl methane, and 0-1 wt% other impurities, based on the total weight of the 4,4'-diamino-diphenyl methane feed; the mixture of 2,4'-diamino-diphenyl methane and 4,4'-diamino-diphenyl methane is composed of 83-95 wt% 4,4'-diamino-diphenyl methane, 3-16 wt% 2,4'-diamino-diphenyl methane, 0-1 wt% N-methyl-4,4'-diamino-diphenyl methane, and 0-1 wt% other impurities, based on the total weight of the mixture; said catalyst is a mixture of Rh/Al 2 O 3 and RU/Al 2 O 3 , wherein the weight ratio of Rh/Ru is 1-50:1, the content of Rh is 1-10 wt%, based on the weight of Rh/Al 2 O 3 ; and the content of Ru is 1-10 wt%, based on the weight of Ru/Al 2 O 3 . 1) 4,4'-diamino-diphenyl methane feed is hydrogenated in a reactor packed with catalyst to prepare 4,4'- diamino-dicyclohexyl methane at the conversion of 98-99.99%; 2) when the conversion in step 1) is 90-98%, the feed is switched from 4,4'-diamino-diphenyl methane to a mixture of 2,4'-diamino-diphenyl methane and 4,4'-diamino-diphenyl methane, and the hydrogenation reaction is continued to prepare 2,4'-diamino-dicyclohexyl methane and 4,4'-diamino-dicyclohexyl methane; 3) after the conversion of the mixture of 2,4'-diamino-diphenyl methane and 4,4'-diamino-diphenyl methane in step 2) is ≥90% and the reaction is lasted at said conversion for 20-40 h, the feed is switched from the mixture of 2,4'-diamino-diphenyl methane and 4,4'-diamino-diphenyl methane to 4,4'-diamino-diphenyl methane, and the hydrogenation reaction is continued to prepare 4,4'-diamino-dicyclohexyl methane,
A method for use with an aerosol-generating device having a power source , the method comprising: receiving at least one acceleration value; detecting a fall or shock based on the at least one acceleration value; and initiating, using a controller of the aerosol-generating device , at least one response procedure in response to detecting the fall or shock , wherein the at least one response procedure comprises storing data associated with the fall or shock in persistent or non-volatile memory of the controller . receiving at least one acceleration value; detecting a fall or shock based on the at least one acceleration value; and initiating, using a controller of the aerosol-generating device , at least one response procedure in response to detecting the fall or shock , wherein the at least one response procedure comprises storing data associated with the fall or shock in persistent or non-volatile memory of the controller .