mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical stapler , comprising: a drive system; an electric motor mechanically coupled to the drive system; a battery electrically couplable to the electric motor ; and a control system electrically connected to the electric motor, characterized by the control system comprising: an H-bridge circuit comprising a plurality of switching devices , wherein the H-bridge circuit comprises a high side and a low side, wherein the low side of the H-bridge circuit comprises first and second legs; a first current mirror circuit electrically connected to one of the first and second legs of the low side of the H-bridge circuit; and a current sensor , wherein the control system is configured to control a first force applied to the drive system based on a first current measured at a node (B) of the first current mirror circuit by the current sensor , and wherein the node (B) is electrically connected in parallel with the H-bridge circuit, and in series with the current sensor and the battery , wherein the electric motor is electrically couplable to the battery via the H-bridge circuit and the first current mirror circuit . a drive system; an electric motor mechanically coupled to the drive system; a battery electrically couplable to the electric motor ; and a control system electrically connected to the electric motor, characterized by the control system comprising: an H-bridge circuit comprising a plurality of switching devices , wherein the H-bridge circuit comprises a high side and a low side, wherein the low side of the H-bridge circuit comprises first and second legs; a first current mirror circuit electrically connected to one of the first and second legs of the low side of the H-bridge circuit; and a current sensor , wherein the control system is configured to control a first force applied to the drive system based on a first current measured at a node (B) of the first current mirror circuit by the current sensor , and wherein the node (B) is electrically connected in parallel with the H-bridge circuit, and in series with the current sensor and the battery , wherein an H-bridge circuit comprising a plurality of switching devices , wherein the H-bridge circuit comprises a high side and a low side, wherein the low side of the H-bridge circuit comprises first and second legs; a first current mirror circuit electrically connected to one of the first and second legs of the low side of the H-bridge circuit; and a current sensor , wherein the control system is configured to control a first force applied to the drive system based on a first current measured at a node (B) of the first current mirror circuit by the current sensor , and wherein the node (B) is electrically connected in parallel with the H-bridge circuit, and in series with the current sensor and the battery , wherein the electric motor is electrically couplable to the battery via the H-bridge circuit and the first current mirror circuit .
Hand orthosis capable of immobilising two contiguous metacarpal bones enabling the immobilisation of two contiguous metacarpals chosen from the 2 nd to the 5 th , in a removeable and adjustable manner and comprising rigid palmar and dorsal supports, each comprising a rigid blade curved at the end thereof, said orthosis comprising a flexible body having a so-called inner face in contact with the skin of the hand and an opposite so-called outer face with a gripping surface, said flexible body comprising a first zone capable of covering the palmar surface of the hand and a second zone capable of covering the dorsal surface of the hand and comprising the gripping face, the first and second zones being connected by a connection zone ; characterised in that - the rigid dorsal support is capable of being attached on the gripping face of the second zone , said rigid blade protruding from the flexible body; - said rigid blade of the rigid palmar support being configured to protrude from the flexible body in the continuation of the affected metacarpal.
Speaking valve comprising at least a housing and an actuation means for actuating the speaking valve , wherein the actuation means has a distal pressure surface comprising a first partial surface and a second partial surface , characterized in that the first partial surface has a first average roughness (R a 1) and the second partial surface has a second average roughness (R a 2), wherein the first average roughness (R a 1) and the second average roughness (R a 2) differ by at least about 0.1 μm.
A non-isolated bidirectional DC-DC converter , which performs bidirectional voltage conversion between a high-voltage power source and a low-voltage power source comprising: a DC-DC converter unit including a pair of switching elements composed of a high-voltage switch and a low-voltage switch , which are switched to a boost mode or a buck mode as a response to a switching signal and an inductor connected to the high-voltage switch and the low-voltage switch , a first protection switch disposed between the high-voltage switch of the DC-DC converter unit and the high-voltage power source to serve as a back-to-back switch together with the high-voltage switch or a second protection switch ; the second protection switch disposed between the inductor of the DC-DC converter unit and the low-voltage power source to serve as a back-to-back switch together with the low-voltage switch or the first protection switch ; characterized by comprising: a first logic element configured to calculate a logic product of a switching signal of the first protection switch and a switching signal of the high-voltage switch and apply the switching signal with the calculated logic product to the high-voltage switch ; and a second logic element configured to calculate a logic product of a switching signal of the second protection switch and a switching signal of the low-voltage switch and apply the switching signal with the calculated logic product to the low-voltage switch , wherein the first logic element and the second logic element perform the logic AND function. a DC-DC converter unit including a pair of switching elements composed of a high-voltage switch and a low-voltage switch , which are switched to a boost mode or a buck mode as a response to a switching signal and an inductor connected to the high-voltage switch and the low-voltage switch , a first protection switch disposed between the high-voltage switch of the DC-DC converter unit and the high-voltage power source to serve as a back-to-back switch together with the high-voltage switch or a second protection switch ; the second protection switch disposed between the inductor of the DC-DC converter unit and the low-voltage power source to serve as a back-to-back switch together with the low-voltage switch or the first protection switch ; characterized by comprising: a first logic element configured to calculate a logic product of a switching signal of the first protection switch and a switching signal of the high-voltage switch and apply the switching signal with the calculated logic product to the high-voltage switch ; and a second logic element configured to calculate a logic product of a switching signal of the second protection switch and a switching signal of the low-voltage switch and apply the switching signal with the calculated logic product to the low-voltage switch , wherein the first logic element and the second logic element perform the logic AND function.
A method of generating a one time password, including: at a first time, changing a value of a time and event-based counter, TEC, in response to a passage of time; at a second time, changing the value of the TEC in response to an occurrence of an event other than the passage of time, wherein at least one of the changing of the value in response to the passage of time or the changing of the value in response to the occurrence of the event comprises incrementing the value of the TEC by a negative number; and - determining the one time password based upon the TEC, wherein the one time password is computed after the TEC being incremented due to the event; and is not computed after the TEC being incremented due to the passage of time. at a first time, changing a value of a time and event-based counter, TEC, in response to a passage of time; at a second time, changing the value of the TEC in response to an occurrence of an event other than the passage of time, wherein at least one of the changing of the value in response to the passage of time or the changing of the value in response to the occurrence of the event comprises incrementing the value of the TEC by a negative number; and - determining the one time password based upon the TEC, wherein the one time password is computed after the TEC being incremented due to the event; and is not computed after the TEC being incremented due to the passage of time. - determining the one time password based upon the TEC, wherein the one time password is computed after the TEC being incremented due to the event; and is not computed after the TEC being incremented due to the passage of time.
Electrical device comprising an electrical component assembly having at least one first discrete semiconductor component , which first discrete semiconductor component has a first housing with a first housing outer surface , wherein the first housing outer surface is designed as an electrical contact of the first semiconductor component , wherein the first housing outer surface is electrically conductively connected to an electrically conductive plate of the electrical component assembly , and wherein the electrically conductive plate is connected in an electrically insulating manner to a heat sink of the electrical component assembly , wherein the electrical component assembly further comprises a second discrete semiconductor component , which second discrete semiconductor component has a second housing with a second housing outer surface formed as an electrical contact of the second semiconductor component , wherein the second housing outer surface is arranged in an electrically conductive manner adjacent to the first housing outer surface on the same electrically conductive plate , wherein the first housing and the second housing are formed as a standard semiconductor housing, wherein the electrical device comprises at least one electrical circuit , wherein the electrical circuit comprises the first discrete semiconductor component and the second discrete semiconductor component , characterized in that an electrically insulating layer or insulating film, having low heat transfer resistance with good electrical insulating ability, is arranged between the plate and the heat sink .
A method for executing a plurality of computing tasks , the method comprising: receiving as containers, by an orchestration engine , task requests over a network from a plurality of process engines corresponding to respective machinery, each task request indicating at least one real-time task requirement for executing a respective computing task of the plurality of computing tasks , the orchestration engine being included in a computing platform , the computing platform being located remotely as compared to the process engines ; selecting a plurality of computing instances from a set of computing instances , the selected computing instances each having available computing resources, the computing instances being included in the computing platform and being in communication with the orchestration engine ; collecting performance data associated with the network ; generating a predicted runtime for each of the computing tasks based on the performance data associated with the network ; based on the predicted runtimes, task requirements, and available computing resources, determining a schedule and allocation scheme, the schedule and allocation scheme defining when each of the plurality of computing tasks is performed, and which of the plurality of selected computing instances performs each of the plurality of computing tasks ; and executing , by the plurality of selected computing instances , the plurality of computing tasks according to the schedule and allocation scheme. receiving as containers, by an orchestration engine , task requests over a network from a plurality of process engines corresponding to respective machinery, each task request indicating at least one real-time task requirement for executing a respective computing task of the plurality of computing tasks , the orchestration engine being included in a computing platform , the computing platform being located remotely as compared to the process engines ; selecting a plurality of computing instances from a set of computing instances , the selected computing instances each having available computing resources, the computing instances being included in the computing platform and being in communication with the orchestration engine ; collecting performance data associated with the network ; generating a predicted runtime for each of the computing tasks based on the performance data associated with the network ; based on the predicted runtimes, task requirements, and available computing resources, determining a schedule and allocation scheme, the schedule and allocation scheme defining when each of the plurality of computing tasks is performed, and which of the plurality of selected computing instances performs each of the plurality of computing tasks ; and executing , by the plurality of selected computing instances , the plurality of computing tasks according to the schedule and allocation scheme.
A system , comprising: a first image sensor (732 ) configured to capture at least a first strobe image and a first ambient image, each of which includes a plurality of chrominance values; an image processing subsystem configured to generate a first resulting image by combining the plurality of chrominance values of at least the first strobe image and the first ambient image; a second image sensor (732 ) configured to capture at least a second strobe image and a second ambient image, each of which includes a plurality of luminance values; the image processing subsystem configured to generate a second resulting image by combining the plurality of luminance values of at least the second strobe image and the second ambient image; and the image processing subsystem configured to generate a resulting image by combining the first resulting image with the second resulting image. a first image sensor (732 ) configured to capture at least a first strobe image and a first ambient image, each of which includes a plurality of chrominance values; an image processing subsystem configured to generate a first resulting image by combining the plurality of chrominance values of at least the first strobe image and the first ambient image; a second image sensor (732 ) configured to capture at least a second strobe image and a second ambient image, each of which includes a plurality of luminance values; the image processing subsystem configured to generate a second resulting image by combining the plurality of luminance values of at least the second strobe image and the second ambient image; and the image processing subsystem configured to generate a resulting image by combining the first resulting image with the second resulting image.
A deodorizing apparatus with a smart cover plate comprising: a reaction chamber , having a reaction cavity ; an air extraction unit , configured for extracting an odor in or near a toilet into the reaction cavity ; a water supply unit, configured for supplying a water to the reaction cavity ; the air extraction unit is configured to extract the odor into the reaction cavity , wherein the odor is mixed with the water in the reaction cavity to be converted into a purified gas and then discharged from the reaction cavity ; further comprising a base fixedly mountable on a toilet seat body , wherein the cover plate is rotatably connected to the base , and the reaction chamber is mounted in the base ; the water in the reaction cavity is discharged to a sewage pipe of a toilet or a water tank of the toilet; the reaction chamber is provided with a water inlet channel , the water supply unit has a water supply channel communicating with the water inlet channel , the reaction chamber is further provided with an air intake channel , and the air extraction unit is provided with an air extraction channel communicating with the air intake channel ; characterized in that : a water outlet end of the water inlet channel is provided with a plurality of water outlet holes configured for forming a sprinkling water, and the sprinkling water flows into the reaction cavity . an air extraction unit , configured for extracting an odor in or near a toilet into the reaction cavity ; a water supply unit, configured for supplying a water to the reaction cavity ; the air extraction unit is configured to extract the odor into the reaction cavity , wherein the odor is mixed with the water in the reaction cavity to be converted into a purified gas and then discharged from the reaction cavity ; further comprising a base fixedly mountable on a toilet seat body , wherein the cover plate is rotatably connected to the base , and the reaction chamber is mounted in the base ; the water in the reaction cavity is discharged to a sewage pipe of a toilet or a water tank of the toilet; the reaction chamber is provided with a water inlet channel , the water supply unit has a water supply channel communicating with the water inlet channel , the reaction chamber is further provided with an air intake channel , and the air extraction unit is provided with an air extraction channel communicating with the air intake channel ; characterized in that : a water outlet end of the water inlet channel is provided with a plurality of water outlet holes configured for forming a sprinkling water, and the sprinkling water flows into the reaction cavity .
Pressure measuring device, with - a carrier , particularly a carrier made of a metal, particularly stainless steel, - a base connected to the carrier , and - a pressure sensor mounted on the base , wherein the basic surface of said sensor is greater than a basic surface of the base , - wherein an end of the base facing away from the pressure sensor is stuck into a recess in the carrier by means of a bonded joint , - wherein the pressure measuring device is a differential pressure measuring device or an absolute or relative pressure measuring device designed to measure higher pressures, wherein the base is made from ceramic, particularly aluminum oxide (Al 2 O 3 ), silicon nitride (Si 3 N 4 ), silicon carbide (SiC) or aluminum nitride (AiN), which has an elasticity module greater than or equal to 200,000 MPa, and - wherein a centering device is provided in the recess to center the base , particularly a centering device which is formed by a basic surface of the recess which tapers in the direction of a floor area of the recess on which the base is located. - a carrier , particularly a carrier made of a metal, particularly stainless steel, - a base connected to the carrier , and - a pressure sensor mounted on the base , wherein the basic surface of said sensor is greater than a basic surface of the base , - wherein an end of the base facing away from the pressure sensor is stuck into a recess in the carrier by means of a bonded joint , - wherein the pressure measuring device is a differential pressure measuring device or an absolute or relative pressure measuring device designed to measure higher pressures, wherein the base is made from ceramic, particularly aluminum oxide (Al 2 O 3 ), silicon nitride (Si 3 N 4 ), silicon carbide (SiC) or aluminum nitride (AiN), which has an elasticity module greater than or equal to 200,000 MPa, and - wherein a centering device is provided in the recess to center the base , particularly a centering device which is formed by a basic surface of the recess which tapers in the direction of a floor area of the recess on which the base is located.
A ball bearing on rollers comprising a rotating outer ring having a spherical rolling track , the bearing comprising first and second annular rows of rollers , respectively associated with first and second rotary cages for holding said rollers, the first cage has an outer surface provided with at least one baffle for discharging lubricant to a first side of the bearing in a first axial direction from the second cage to the first cage , said baffle extending beyond the rollers associated with the first cage , in a second axial direction opposite the first, characterized in that said baffle extends in the second axial direction also beyond the first cage , so as to cover a portion of the second cage .
A bandwidth extension (BWE) method, performed by an electronic device, the method comprising: determining parameters of a low-frequency spectrum of a to-be-processed narrowband signal, the parameters of the low-frequency spectrum comprising a low-frequency amplitude spectrum, wherein the narrowband signal is a speech frame; inputting the parameters of the low-frequency spectrum into a neural network model, and obtaining a correlation parameter based on an output of the neural network model, the correlation parameter representing a correlation between a high-frequency part and a low-frequency part of a target broadband spectrum and comprising a high-frequency spectrum envelope; obtaining a target high-frequency amplitude spectrum based on the correlation parameter and the low-frequency amplitude spectrum; generating a corresponding high-frequency phase spectrum based on a low-frequency phase spectrum of the narrowband signal; obtaining a high-frequency spectrum according to the target high-frequency amplitude spectrum and the high-frequency phase spectrum; and obtaining a broadband signal after BWE based on the low-frequency spectrum and the high-frequency spectrum, wherein the broadband signal comprises a signal of a low-frequency part in the narrowband signal and a signal of a high-frequency part after extension. determining parameters of a low-frequency spectrum of a to-be-processed narrowband signal, the parameters of the low-frequency spectrum comprising a low-frequency amplitude spectrum, wherein the narrowband signal is a speech frame; inputting the parameters of the low-frequency spectrum into a neural network model, and obtaining a correlation parameter based on an output of the neural network model, the correlation parameter representing a correlation between a high-frequency part and a low-frequency part of a target broadband spectrum and comprising a high-frequency spectrum envelope; obtaining a target high-frequency amplitude spectrum based on the correlation parameter and the low-frequency amplitude spectrum; generating a corresponding high-frequency phase spectrum based on a low-frequency phase spectrum of the narrowband signal; obtaining a high-frequency spectrum according to the target high-frequency amplitude spectrum and the high-frequency phase spectrum; and obtaining a broadband signal after BWE based on the low-frequency spectrum and the high-frequency spectrum, wherein the broadband signal comprises a signal of a low-frequency part in the narrowband signal and a signal of a high-frequency part after extension.