mhurhangee/patent-ind-claim-en huggingface dataset:
A dental floss coating composition comprising one or more polyethylene glycol polymers, a peroxide source, wherein the peroxide source comprises cross-linked polyvinylpyrrolidone (PVP)-hydrogen peroxide, and polyvinylpyrrolidone, wherein the melting temperature of the one or more polyethylene glycol polymers, in combination, is from 38°C to 50°C, and wherein the one or more polyethylene glycol polymers is present in the composition in an amount of from 80 weight % to 97 weight % by total weight of the composition; and wherein the composition has a viscosity of from 1 cm 2 /second to 3 cm 2 /second, as measured at 25 °C with a Brookfield Model LVTDV-11 with Spindle 1.
A deployable mine clearance device comprising a support structure, a chassis and a plurality of blade members mounted to the chassis in a row and movable from a stowed position to a deployed position, said blade members being biased to the deployed position, said blade members comprising a front plate , a top link and a bottom link , each of them being connected to its neighbour by a hinge, creating, together with the chassis , a 4-bar linkage movable between said stowed position and said deployed position, wherein one or more of rows of blade members are arranged as a row assembly to form a straight or V-shaped clearance blade assembly, wherein the blade assembly is attachable to a host vehicle by the support structure, and wherein the support structure allows some movement of the blade assembly relative to the vehicle to enable it to contour the ground.
A method for calibrating a short temperature measuring device using a dry body temperature calibrator , wherein a heat soaking block is placed in a furnace of the dry body temperature calibrator and a first temperature measuring hole and a second temperature measuring hole are provided in the heat soaking block , the method comprising the following steps: Step S1: obtaining a temperature field model library of the heat soaking block and storing the temperature field model library in memory of the dry body temperature calibrator ; Step S2: inserting a probe of a first standard temperature sensor and a probe of the short temperature measuring device into the first temperature measuring hole and the second temperature measuring hole of the heat soaking block in the dry body temperature calibrator , respectively, keeping temperature of the first standard temperature sensor at temperature T1, and obtaining measured temperature T1' of the short temperature measuring device ; Step S3: obtaining a temperature difference value ΔT1 for the heat soaking block at the temperature T1 according to the temperature field model library stored in the dry body temperature calibrator , wherein the temperature difference value ΔT1 is the temperature difference value between position of the probe of the first standard temperature sensor placed in the first temperature measuring hole and position of the probe of the short temperature measuring device placed in the second temperature measuring hole ; and Step S4: calculating actual temperature T1"=T1+ Δ T1 at location of the probe of the short temperature measuring device , and comparing T1" and T1' to calibrate the short temperature measuring device at a single temperature point. Step S1: obtaining a temperature field model library of the heat soaking block and storing the temperature field model library in memory of the dry body temperature calibrator ; Step S2: inserting a probe of a first standard temperature sensor and a probe of the short temperature measuring device into the first temperature measuring hole and the second temperature measuring hole of the heat soaking block in the dry body temperature calibrator , respectively, keeping temperature of the first standard temperature sensor at temperature T1, and obtaining measured temperature T1' of the short temperature measuring device ; Step S3: obtaining a temperature difference value ΔT1 for the heat soaking block at the temperature T1 according to the temperature field model library stored in the dry body temperature calibrator , wherein the temperature difference value ΔT1 is the temperature difference value between position of the probe of the first standard temperature sensor placed in the first temperature measuring hole and position of the probe of the short temperature measuring device placed in the second temperature measuring hole ; and Step S4: calculating actual temperature T1"=T1+ Δ T1 at location of the probe of the short temperature measuring device , and comparing T1" and T1' to calibrate the short temperature measuring device at a single temperature point.
Method for depositing a superhydrophobic coating on a substrate, comprising the steps of: - providing a first precursor comprising fluoro-acrylate monomers, fluoro-alkyl acrylate monomers, fluoro-methacrylate monomers, fluoro-alkyl methacrylate monomers, fluoro-silane monomers, or a combination or derivates thereof; - providing a second precursor comprising cyclosiloxanes; - co-injecting said first and second precursors in a treatment region; and - creating an atmospheric pressure plasma discharge in said treatment region to deposit a superhydrophobic coating derived from said co-injected first and second precursors on said substrate, whereby the plasma discharge comprises a power density of at least 0.05 W.cm -2 and at most 100 W.cm -2 . - providing a first precursor comprising fluoro-acrylate monomers, fluoro-alkyl acrylate monomers, fluoro-methacrylate monomers, fluoro-alkyl methacrylate monomers, fluoro-silane monomers, or a combination or derivates thereof; - providing a second precursor comprising cyclosiloxanes; - co-injecting said first and second precursors in a treatment region; and - creating an atmospheric pressure plasma discharge in said treatment region to deposit a superhydrophobic coating derived from said co-injected first and second precursors on said substrate, whereby the plasma discharge comprises a power density of at least 0.05 W.cm -2 and at most 100 W.cm -2 .
An introducer sheath for endoluminally delivering surgical implements to a treatment site, said introducer sheath comprising: a tubular member having generally opposite first and second ends, the tubular member defining a longitudinally extending lumen, the tubular member having a wall and a reinforcement member for reinforcing the wall, characterized in that the wall of the tubular member comprises a plurality of layers and the reinforcement member is disposed between the plurality of layers of the wall of the tubular member ; and the reinforcement member is separable from the wall and removable in-situ through one of the first and second ends of the tubular member , wherein the reinforcement member extends along one of a helical and a sinusoidal pattern and wherein the wall remains intact upon separation of the reinforcement member therefrom. a tubular member having generally opposite first and second ends, the tubular member defining a longitudinally extending lumen, the tubular member having a wall and a reinforcement member for reinforcing the wall, characterized in that the wall of the tubular member comprises a plurality of layers and the reinforcement member is disposed between the plurality of layers of the wall of the tubular member ; and the reinforcement member is separable from the wall and removable in-situ through one of the first and second ends of the tubular member , wherein the reinforcement member extends along one of a helical and a sinusoidal pattern and wherein the wall remains intact upon separation of the reinforcement member therefrom.
A printer apparatus for performing printing on a print sheet , comprising: a main unit with a front face and a rear face; a print unit having a printing portion configured to perform printing on the print sheet ; a driving unit having a driving portion configured to drive the print unit ; a control unit having a control portion configured to control the driving unit and the print unit ; and a power unit having a power supply portion configured to supply power to the control unit , the driving unit , and the print unit , wherein the print unit is provided on the front face of the main unit , the driving unit is provided on the rear face of the main unit , and the control unit and the power unit are installed to the main unit such that the driving portion , the control portion , and the power supply portion are accessible from the outside, and the control unit has a control unit cover openable and closable with respect to the main unit , the control portion is provided on an inner wall surface of the control unit cover , characterized in that the power unit has a power unit cover openable and closable with respect to the main unit , and the power supply portion is provided on an inner wall surface of the power unit cover . a main unit with a front face and a rear face; a print unit having a printing portion configured to perform printing on the print sheet ; a driving unit having a driving portion configured to drive the print unit ; a control unit having a control portion configured to control the driving unit and the print unit ; and a power unit having a power supply portion configured to supply power to the control unit , the driving unit , and the print unit , wherein the print unit is provided on the front face of the main unit , the driving unit is provided on the rear face of the main unit , and the control unit and the power unit are installed to the main unit such that the driving portion , the control portion , and the power supply portion are accessible from the outside, and the control unit has a control unit cover openable and closable with respect to the main unit , the control portion is provided on an inner wall surface of the control unit cover , characterized in that the power unit has a power unit cover openable and closable with respect to the main unit , and the power supply portion is provided on an inner wall surface of the power unit cover .
Polyisocyanate mixture, characterised in that it comprises: - at least one cycloaliphatic polyisocyanate; - at least one solvent comprising an ester and an ether function; and - a hydrophilic additive of the non reactive-type. - at least one cycloaliphatic polyisocyanate; - at least one solvent comprising an ester and an ether function; and - a hydrophilic additive of the non reactive-type.
A method of removing selenium(VI) cation(s) from water containing selenium(VI) cation(s), the method comprising a) preparing an iron precipitate-containing sludge by electrochemical water treatment in an electrochemical water treatment unit , wherein the water is led through an electrochemical water treatment unit, wherein electricity dissolves iron from an anode to the water, thereby forming an iron precipitate-containing sludge to which cations to be removed are adsorbed/co-precipitated, b) densifying the iron precipitate-containing sludge by further adsorbing selenium(VI) cations contained in the water by enhancing adsorption and co-precipitation in an adsorption and co-precipitation unit , thereby obtaining a very high density sludge having an iron precipitate concentration of 50 - 400 g/l, c) separating, in a solid-liquid separation unit , solids from the obtained very high density sludge, thereby producing treated water having a reduced cation content and solids comprising iron precipitate compounds and adsorbed/co-precipitated cation compounds, wherein the iron precipitate concentration of the very high density sludge is adjusted to a desired level by re-circulating at least a part or all of the solids comprising iron precipitate and adsorbed/co-precipitated cations obtained in step c) back to the adsorption and co-precipitation unit , wherein the pH of the water is 4, and wherein the cations are removed from the water as oxyanions. a) preparing an iron precipitate-containing sludge by electrochemical water treatment in an electrochemical water treatment unit , wherein the water is led through an electrochemical water treatment unit, wherein electricity dissolves iron from an anode to the water, thereby forming an iron precipitate-containing sludge to which cations to be removed are adsorbed/co-precipitated, b) densifying the iron precipitate-containing sludge by further adsorbing selenium(VI) cations contained in the water by enhancing adsorption and co-precipitation in an adsorption and co-precipitation unit , thereby obtaining a very high density sludge having an iron precipitate concentration of 50 - 400 g/l, c) separating, in a solid-liquid separation unit , solids from the obtained very high density sludge, thereby producing treated water having a reduced cation content and solids comprising iron precipitate compounds and adsorbed/co-precipitated cation compounds, wherein the iron precipitate concentration of the very high density sludge is adjusted to a desired level by re-circulating at least a part or all of the solids comprising iron precipitate and adsorbed/co-precipitated cations obtained in step c) back to the adsorption and co-precipitation unit , wherein the pH of the water is 4, and wherein the cations are removed from the water as oxyanions.
A process for producing rejuvenated asphalt granulate, comprising the steps of - milling or crushing asphalt to provide reclaimed asphalt; - comminuting and/or screening said reclaimed asphalt to obtain asphalt granulate; - adding a rejuvenating agent; - storing said asphalt granulate with said rejuvenating agent at less than 60°C for a period of at least 24 hours to obtain rejuvenated asphalt granulate; wherein said adding of the rejuvenating agent is effected before said comminution, after said comminution, or during said comminution of the reclaimed asphalt, or before the screening, after the screening, or during the screening of the reclaimed asphalt, or before the milling, or during the milling. - milling or crushing asphalt to provide reclaimed asphalt; - comminuting and/or screening said reclaimed asphalt to obtain asphalt granulate; - adding a rejuvenating agent; - storing said asphalt granulate with said rejuvenating agent at less than 60°C for a period of at least 24 hours to obtain rejuvenated asphalt granulate;
An electronic device, comprising: a telescopic driving mechanism comprising a housing and a movable assembly , the movable assembly being slidably coupled to the housing , and the movable assembly being driven and movable towards or away from the housing ; and a flexible display screen comprising a first end and a second end arranged oppositely, wherein the first end is coupled to the housing and located at a front surface of the electronic device; and the second end is coupled to the movable assembly and wound to a rear surface of the electronic device via a side surface of the electronic device; and the second end is configure to move towards or away from the first end as the movable assembly is moved relative to the housing , characterized in that the movable assembly comprises: a movable member movably coupled to the housing and abutting against a part of the flexible display screen corresponding to the side surface ; and a telescopic elastic member mounted to the movable member , wherein the telescopic elastic member is configured to apply an acting force to the second end with the acting force pointed to the first end . a telescopic driving mechanism comprising a housing and a movable assembly , the movable assembly being slidably coupled to the housing , and the movable assembly being driven and movable towards or away from the housing ; and a flexible display screen comprising a first end and a second end arranged oppositely, wherein the first end is coupled to the housing and located at a front surface of the electronic device; and the second end is coupled to the movable assembly and wound to a rear surface of the electronic device via a side surface of the electronic device; and the second end is configure to move towards or away from the first end as the movable assembly is moved relative to the housing , characterized in that the movable assembly comprises: a movable member movably coupled to the housing and abutting against a part of the flexible display screen corresponding to the side surface ; and a telescopic elastic member mounted to the movable member , wherein the telescopic elastic member is configured to apply an acting force to the second end with the acting force pointed to the first end . a movable member movably coupled to the housing and abutting against a part of the flexible display screen corresponding to the side surface ; and a telescopic elastic member mounted to the movable member , wherein the telescopic elastic member is configured to apply an acting force to the second end with the acting force pointed to the first end .
A chemical analysis device with improved stirring performance of a sample and a reagent comprising: a plurality of ultrasonic elements; and a waveform generator which generates an ultrasonic waveform, characterized by a determiner which determines positions and a number of ultrasonic elements to be driven from among the plurality of ultrasonic elements; a variable matching circuit which, based on a determination result, matches impedance between the waveform generator and each of the ultrasonic elements to be driven; and a switch which selects the ultrasonic elements to be driven from among the plurality of the ultrasonic elements. a plurality of ultrasonic elements; and a waveform generator which generates an ultrasonic waveform, characterized by a determiner which determines positions and a number of ultrasonic elements to be driven from among the plurality of ultrasonic elements; a variable matching circuit which, based on a determination result, matches impedance between the waveform generator and each of the ultrasonic elements to be driven; and a switch which selects the ultrasonic elements to be driven from among the plurality of the ultrasonic elements.
A transmission system comprising at least two rotational inputs, and at least one rotational output, one of the rotational inputs being transmitted through a harmonic drive, the harmonic drive including a flex-spline , the flex-spline surrounding a drive axle of the other rotational input, the flex-spline being rotationally coupled to a first one-way clutch, the first one-way clutch being mounted around and rotationally coupled to a bracket , and a second one-way clutch being mounted within a housing defined within the bracket, and wherein the second one-way clutch is rotationally coupled to the drive axle characterized in that the flex-spline defines a locus within its interior and wherein the first and/or second one-way clutch are located within that locus.
A system for executing code with blind hypervision mechanism, said system comprising: - at least one addressable physical memory ; - a processor operating in at least two modes, a mode termed initialization making it possible to define at least one partition in the memory and at least one second mode termed nominal; - a memory bus linking the processor to the memory; - a memory partitioning unit positioned on the memory bus , said unit being adapted for restricting memory access to the partition currently executing when the processor is in a mode other than the initialization mode; - a memory partition allocated to a hypervisor and at least one memory partition allocated to at least one virtual machine (VM); - a virtual machine loader making it possible to load into memory a virtual machine with a view to its execution; - in which the processor comprises a hypervisor mode , access to the physical memory only being possible when the virtual machine loader is executed; - a memory management unit MMU and a memory protection unit MPU being positioned between the processor and the memory partitioning unit . - at least one addressable physical memory ; - a processor operating in at least two modes, a mode termed initialization making it possible to define at least one partition in the memory and at least one second mode termed nominal; - a memory bus linking the processor to the memory; - a memory partitioning unit positioned on the memory bus , said unit being adapted for restricting memory access to the partition currently executing when the processor is in a mode other than the initialization mode; - a memory partition allocated to a hypervisor and at least one memory partition allocated to at least one virtual machine (VM); - a virtual machine loader making it possible to load into memory a virtual machine with a view to its execution; - in which the processor comprises a hypervisor mode , access to the physical memory only being possible when the virtual machine loader is executed; - a memory management unit MMU and a memory protection unit MPU being positioned between the processor and the memory partitioning unit .
A suturing system for use with a first suturing needle having a first needle geometry and a second suturing needle having a second needle geometry different than the first needle geometry, the system comprising: a drive unit having a body with a proximal end and a distal end; a first clamp unit mountable near the distal end of the body and including a plurality of clamps , the first clamp unit having a first clamp unit geometry suitable for use with a needle having the first needle geometry, the first needle geometry having a first arc angle; a second clamp unit mountable near the distal end of the body and including a plurality of clamps , the second clamp unit having a second clamp unit geometry suitable for use with a needle having the second needle geometry, the second needle geometry having a second arc angle; a linkage operationally coupling the drive unit to an associated clamp unit mounted thereon, the linkage effecting sequentially alternating grasping and releasing by the clamps of the first clamp unit when the first clamp unit is mounted to the drive unit and the linkage is cycled, the grasping of the first clamp unit corresponding to the geometry of the first needle ; the linkage effecting sequentially alternating grasping and releasing by the clamps of the second clamp unit when the second clamp unit is mounted to the drive unit and the linkage is cycled, the grasping of the second clamp unit corresponding to the geometry of the second needle . a drive unit having a body with a proximal end and a distal end; a first clamp unit mountable near the distal end of the body and including a plurality of clamps , the first clamp unit having a first clamp unit geometry suitable for use with a needle having the first needle geometry, the first needle geometry having a first arc angle; a second clamp unit mountable near the distal end of the body and including a plurality of clamps , the second clamp unit having a second clamp unit geometry suitable for use with a needle having the second needle geometry, the second needle geometry having a second arc angle; a linkage operationally coupling the drive unit to an associated clamp unit mounted thereon, the linkage effecting sequentially alternating grasping and releasing by the clamps of the first clamp unit when the first clamp unit is mounted to the drive unit and the linkage is cycled, the grasping of the first clamp unit corresponding to the geometry of the first needle ; the linkage effecting sequentially alternating grasping and releasing by the clamps of the second clamp unit when the second clamp unit is mounted to the drive unit and the linkage is cycled, the grasping of the second clamp unit corresponding to the geometry of the second needle .
Method for preparing for and carrying out a quality check on brushes , in particular toothbrushes and/or round brushes, during the production of brushes using an AI-based classifier , wherein the classifier is configured to classify brushes to be checked as defective brushes based on images of the brushes to be checked, characterized in that the classifier is trained using a training data set comprising images of defective brushes before carrying out the quality check.