mhurhangee/patent-ind-claim-en huggingface dataset:
A wound therapy system, comprising: a dressing ; an instillation pump fluidly communicable with the dressing and configured to provide instillation fluid to the dressing ; a negative pressure pump fluidly communicable with the dressing (1040 and configured to remove air from the dressing ; and a control circuit communicably coupled to the instillation pump and the negative pressure pump and configured to: control the instillation pump to provide an amount of the instillation fluid to the dressing; provide a soak period; and control the negative pressure pump to provide a cyclic variation of negative pressure at the dressing ; characterized by the dressing comprising a perforated layer comprising a plurality of holes extending therethrough; wherein the dressing is coupleable to a wound bed; and wherein the cyclic variation of negative pressure deforms the wound bed at the holes ; wherein the cyclic variation of negative pressure comprises a plurality of cycles; and wherein each cycle does an amount of work of within a range between 2 mJ and 30 mJ for each of the plurality of holes . a dressing ; an instillation pump fluidly communicable with the dressing and configured to provide instillation fluid to the dressing ; a negative pressure pump fluidly communicable with the dressing (1040 and configured to remove air from the dressing ; and a control circuit communicably coupled to the instillation pump and the negative pressure pump and configured to: control the instillation pump to provide an amount of the instillation fluid to the dressing; provide a soak period; and control the negative pressure pump to provide a cyclic variation of negative pressure at the dressing ; characterized by control the instillation pump to provide an amount of the instillation fluid to the dressing; provide a soak period; and control the negative pressure pump to provide a cyclic variation of negative pressure at the dressing ; characterized by the dressing comprising a perforated layer comprising a plurality of holes extending therethrough; wherein the dressing is coupleable to a wound bed; and wherein the cyclic variation of negative pressure deforms the wound bed at the holes ; wherein the cyclic variation of negative pressure comprises a plurality of cycles; and wherein each cycle does an amount of work of within a range between 2 mJ and 30 mJ for each of the plurality of holes .
A noise removal method of removing high-frequency noise from raw data corresponding to time-series data of a test force value detected by a force detector during a material test of applying a test force to a test object (TP) by a testing machine, wherein the testing machine includes a testing machine body , the method comprising: by a data divider , a data dividing step of detecting a change point where the test force value suddenly changes from the raw data and dividing the raw data before and after the change point, wherein the change point is a point where the test force value starts to increase after the test starts and/or a point where the test force value starts to decrease due to the breakage of the test object (TP); by a low-pass filter , a low-pass filtering step of removing high-frequency noise comprising a natural frequency of the testing machine body from each data divided in the data dividing step; and by a data combiner , a data combining step of combining the divided data subjected to the removal of the high-frequency noise in the low-pass filtering step according to the original time series. by a data divider , a data dividing step of detecting a change point where the test force value suddenly changes from the raw data and dividing the raw data before and after the change point, wherein the change point is a point where the test force value starts to increase after the test starts and/or a point where the test force value starts to decrease due to the breakage of the test object (TP); by a low-pass filter , a low-pass filtering step of removing high-frequency noise comprising a natural frequency of the testing machine body from each data divided in the data dividing step; and by a data combiner , a data combining step of combining the divided data subjected to the removal of the high-frequency noise in the low-pass filtering step according to the original time series.
A method for aligning a stress sensor with a conductive target material , said method comprising: inducing a first magnetic flux in the conductive target material to generate a first magnetic field state; receiving a first signal at a first signal output level from a first detector of the stress sensor and a second signal at a second signal output level from a second detector of the stress sensor at the first magnetic field state; inducing a second magnetic flux in the conductive target material to generate a second magnetic field state; receiving a third signal at a third signal output level from the first detector of the stress sensor and a fourth signal at a fourth signal output level from the second detector of the stress sensor at the second magnetic field state; and based on changes in the signal output levels adjusting a position of the stress sensor relative to the conductive target material to adjust the signal output levels to desired levels. inducing a first magnetic flux in the conductive target material to generate a first magnetic field state; receiving a first signal at a first signal output level from a first detector of the stress sensor and a second signal at a second signal output level from a second detector of the stress sensor at the first magnetic field state; inducing a second magnetic flux in the conductive target material to generate a second magnetic field state; receiving a third signal at a third signal output level from the first detector of the stress sensor and a fourth signal at a fourth signal output level from the second detector of the stress sensor at the second magnetic field state; and based on changes in the signal output levels adjusting a position of the stress sensor relative to the conductive target material to adjust the signal output levels to desired levels.
Flap device for an internal combustion engine comprising a flow housing in which a channel through which a flow can pass is configured, a flap body which is arranged rotatably in the channel a shaft on which the flap body is attached, bearings which are arranged in bearing spaces of the flow housing projecting into the duct through which flow can take place and in which the shaft is rotatably mounted, characterized in that each bearing comprises at least one projection which extends over a partial circumference of the respective bearing , which projection projects axially into the channel over a region of an outer flap edge of the flap body close to the shaft and, viewed in the circumferential direction, is arranged outside the region through which the flap body can pass, wherein a gap between an inner wall of the flow housing and the flap body is closed by the projections . a flap body which is arranged rotatably in the channel a shaft on which the flap body is attached, bearings which are arranged in bearing spaces of the flow housing projecting into the duct through which flow can take place and in which the shaft is rotatably mounted, characterized in that each bearing comprises at least one projection which extends over a partial circumference of the respective bearing , which projection projects axially into the channel over a region of an outer flap edge of the flap body close to the shaft and, viewed in the circumferential direction, is arranged outside the region through which the flap body can pass, wherein a gap between an inner wall of the flow housing and the flap body is closed by the projections .
A heat transfer system comprising a reaction vessel and one or more heat transfer baffles comprising at least one distribution channel , wherein heat transfer media circulates through the at least one distribution channel , the or each heat transfer baffle being adjoined to the interior surface of the reaction vessel , wherein the or each heat transfer baffle is adjoined to at least one heat transfer media inlet header and at least one heat transfer media outlet header , characterised in that each heat transfer baffle further comprises at least one relief channel , wherein the heat transfer media does not circulate in the at least one relief channel , and that the relief channel of each heat transfer baffle is vented to the vessel exterior.
A welding assembly with a welding device and a welding component connected to the welding device and with a HF ignition unit for generating a HF ignition voltage (u Z ) for HF ignition of an arc for welding, a data line being provided between the welding device and the welding component, and data communication between the welding device and the welding component being implemented via the data line , characterized in that a decoupling apparatus is provided in which a first data line portion of the data line is connected to a first coupling element and a second data line portion of the data line is connected to a second coupling element , and the first coupling element and the second coupling element being interconnected via a wireless coupling path for galvanic separation of the data line , and in that a separate power supply is provided for each of the first coupling element and the second coupling element , and the power supplies of the first coupling element and of the second coupling element are decoupled from one another for a HF voltage on the data line as a result of the HF ignition voltage (u Z ).
An airflow control valve for use in a breathing apparatus to control a flow of air from a pressurised air supply to a respirator, wherein the valve comprises an inlet port for connection to a pressurised air supply, and first and second outlets , the valve being configurable between a first position in which the inlet port is in restricted fluid communication with the first outlet to allow a restricted flow of air from the inlet port to the first outlet wherein in the first position of the valve, the second outlet is sealed from the inlet port and, the valve is configurable to a second position in which the inlet port is in substantially unrestricted fluid communication with the second outlet to allow an unrestricted flow of air from the inlet port to the second outlet , characterized in that the first outlet is sealed from the inlet port when the valve is configured in the second position.
A code construction method, applied to a binary audit of a code, comprising: generating (S110) at least two test construction commands according to different environment variables in a code construction command; respectively executing (S120) the at least two test construction commands on a code, and adjusting (S120), in response to execution results being different indicating that binary inconsistency of the execution results, the code construction command according to the environment variables in the code construction command and a corresponding adjustment rule; and executing (S130) the adjusted code construction command on the code, until binary consistency of execution results is realized. generating (S110) at least two test construction commands according to different environment variables in a code construction command; respectively executing (S120) the at least two test construction commands on a code, and adjusting (S120), in response to execution results being different indicating that binary inconsistency of the execution results, the code construction command according to the environment variables in the code construction command and a corresponding adjustment rule; and executing (S130) the adjusted code construction command on the code, until binary consistency of execution results is realized.
A network element comprising a data interface for connecting to a data transfer network, a signal interface for receiving one or more satellite signals transmitted by a satellite system that is a Global Navigation Satellite System, and a processing system adapted to: - produce timing information based on the one or more satellite signals and on assistance information received from the data transfer network, - control the network element to request a dynamic host configuration protocol server of the data transfer network to send host configuration data containing a protocol address to be associated with the network element, and - control the network element to transmit the timing information to the data transfer network in accordance with a timing transfer protocol used in the data transfer network, characterized in that the processing system is further adapted to read, from the host configuration data, information enabling the network element to get aware of the assistance information, and to obtain the assistance information in accordance with the information read from the host configuration data, wherein the timing information enables the network element to operate as a timing source, and the assistance information is based on Assisted Global Positioning System, A-GPS, assistance data. - produce timing information based on the one or more satellite signals and on assistance information received from the data transfer network, - control the network element to request a dynamic host configuration protocol server of the data transfer network to send host configuration data containing a protocol address to be associated with the network element, and - control the network element to transmit the timing information to the data transfer network in accordance with a timing transfer protocol used in the data transfer network,
A device, comprising a crosstalk equalizer and a plurality of transceivers (11-13) connected to a plurality of lines (17-19), arranged to transmit data in a discontinuous operation network, the device configured to: transmit on any of the plurality of lines (17-19) symbols corresponding to the data to be transmitted during a transmission opportunity of a time division duplex, TDD, frame; transmit on any one of the plurality of lines (17-19) in a discontinuous operation mode idle symbols when no data is available for transmission on that one of the plurality of lines (17-19); the crosstalk equalizer configured to perform crosstalk reduction of a plurality of lines (17-19) in a vectored group by canceling crosstalk after receiving signals from the lines (17-19) of the vectored group; and modify the crosstalk reduction based on a previous crosstalk reduction in case of a change of composition of the vectored group in the discontinuous operation mode. transmit on any of the plurality of lines (17-19) symbols corresponding to the data to be transmitted during a transmission opportunity of a time division duplex, TDD, frame; transmit on any one of the plurality of lines (17-19) in a discontinuous operation mode idle symbols when no data is available for transmission on that one of the plurality of lines (17-19); the crosstalk equalizer configured to perform crosstalk reduction of a plurality of lines (17-19) in a vectored group by canceling crosstalk after receiving signals from the lines (17-19) of the vectored group; and modify the crosstalk reduction based on a previous crosstalk reduction in case of a change of composition of the vectored group in the discontinuous operation mode.
A receiver comprising a receiver coil and a receive circuit conductively coupled to the receiver coil, the receiver for wirelessly receiving power, when the receiver coil is located in a magnetic field produced by a transmitter and generating a current in response to the magnetic field generated by the transmitter, wherein the receive circuit connected to the receiver coil is configured to power or charge a load based at least in part on the generated current, the receiver coil comprising: a first loop portion ; a second loop portion ; a third loop portion , characterized in that the second and third loop portions are at least partially enclosed by the first loop portion , the second and third loop portions are co-planar and non-overlapping with each other; and the first, second and third portions being joined to form a single winding of conductive material, the second loop portion having a first portion adjacent to a first portion of the first loop portion, and the third loop portion having a first portion adjacent to a second portion of the first loop portion and a second portion adjacent to a second portion of the second loop portion and wherein the generated current flows through the first portion of the first loop portion and the first portion of the second loop portion in a first direction and flows through the second portion of the first loop portion and the first portion of the third loop portion in a second direction and wherein the generated current flows through the second portion of the second loop portion and the second portion of the third loop portion in opposite directions to create a magnetic field cancelling effect in an area between the second loop portion and the third loop portion. a first loop portion ; a second loop portion ; a third loop portion , characterized in that the second and third loop portions are at least partially enclosed by the first loop portion , the second and third loop portions are co-planar and non-overlapping with each other; and the first, second and third portions being joined to form a single winding of conductive material, the second loop portion having a first portion adjacent to a first portion of the first loop portion, and the third loop portion having a first portion adjacent to a second portion of the first loop portion and a second portion adjacent to a second portion of the second loop portion and wherein the generated current flows through the first portion of the first loop portion and the first portion of the second loop portion in a first direction and flows through the second portion of the first loop portion and the first portion of the third loop portion in a second direction and wherein the generated current flows through the second portion of the second loop portion and the second portion of the third loop portion in opposite directions to create a magnetic field cancelling effect in an area between the second loop portion and the third loop portion.
A display device, comprising: a substrate ; a light-emitting element disposed on the substrate; an encapsulation stack disposed on the light-emitting element, the encapsulation stack including a plurality of inorganic encapsulation layers and an organic encapsulation layer disposed between the inorganic encapsulation layers; a touch sensor including a touch-sensing line and a touch-driving line disposed on the encapsulation stack, the touch-driving line including first touch electrodes arranged in a first direction, and a first bridge for interconnecting the first touch electrodes, the touch-sensing line including second touch electrodes arranged in a second direction that intersects the first direction, and a second bridge for interconnecting the second touch electrodes, the second bridge intersecting the first bridge ; an organic touch dielectric film disposed between the encapsulation stack and the first and second electrodes ; an inorganic touch dielectric film disposed between a top surface of the organic touch dielectric film and the first and second electrodes ; a first routing line electrically coupled to the touch-driving line, the first routing line extending from the touch-driving line; and a second routing line electrically coupled to the touch-sensing line, the second routing line extending from the touch-sensing line, and wherein each of the organic touch dielectric film and the inorganic touch dielectric film includes a portion between the first bridge and the second bridge . a substrate ; a light-emitting element disposed on the substrate; an encapsulation stack disposed on the light-emitting element, the encapsulation stack including a plurality of inorganic encapsulation layers and an organic encapsulation layer disposed between the inorganic encapsulation layers; a touch sensor including a touch-sensing line and a touch-driving line disposed on the encapsulation stack, the touch-driving line including first touch electrodes arranged in a first direction, and a first bridge for interconnecting the first touch electrodes, the touch-sensing line including second touch electrodes arranged in a second direction that intersects the first direction, and a second bridge for interconnecting the second touch electrodes, the second bridge intersecting the first bridge ; an organic touch dielectric film disposed between the encapsulation stack and the first and second electrodes ; an inorganic touch dielectric film disposed between a top surface of the organic touch dielectric film and the first and second electrodes ; a first routing line electrically coupled to the touch-driving line, the first routing line extending from the touch-driving line; and a second routing line electrically coupled to the touch-sensing line, the second routing line extending from the touch-sensing line, and wherein each of the organic touch dielectric film and the inorganic touch dielectric film includes a portion between the first bridge and the second bridge .
A coated cutting tool comprising a substrate with a coating comprising a layer of Ti x Al y Cr z Si v N, x is 0.30-0.50, y is 0.25-0.45, z is 0.05-0.15, and v is 0.10-0.20, x+y+z+v=1, which comprises a cubic phase comprising a distribution of unit cell lengths within the range 3.96 to 4.22 Å for the cubic cell and within the unit cell length range 3.96 to 4.22 Å comprises more than one intensity maximum in an averaged radial intensity profile of an electron diffraction pattern.
An ink composition comprising: (component A) a high-molecular-weight polymerization initiator having a weight-average molecular weight of equal to or greater than 1,000; (component B) a polymerizable compound; and (component C) a colorant, wherein the component A is a hyperbranched polymer which is a dendrimer, a dendritic polymer or a star polymer having a thioether bond and three to ten of acylphosphine oxide structures, and the acylphosphine oxide structures are linked to a core of the dendrimer, the dendritic polymer or the star polymer on the side of an acyl group thereof which means that the acyl moiety of the acylphosphine oxide structure is bonded to a core of the component A through a linking group. (component A) a high-molecular-weight polymerization initiator having a weight-average molecular weight of equal to or greater than 1,000; (component B) a polymerizable compound; and (component C) a colorant,
A polymerization process comprising: melt polymerizing a carbonate and a dihydroxy compound in the presence of an amount of a beta organic catalyst so as to give rise to a polycarbonate product, wherein the amount of beta organic catalyst comprises at least one onium salt and also comprises tetraphenyl phosphonium oxide (TPPO), and wherein the TPPO represents less than 0.3 weight% of the sum of the weights of the at least one onium salt and the TPPO in the amount of beta organic catalyst. melt polymerizing a carbonate and a dihydroxy compound in the presence of an amount of a beta organic catalyst so as to give rise to a polycarbonate product, wherein the amount of beta organic catalyst comprises at least one onium salt and also comprises tetraphenyl phosphonium oxide (TPPO), and wherein the TPPO represents less than 0.3 weight% of the sum of the weights of the at least one onium salt and the TPPO in the amount of beta organic catalyst.