mhurhangee/patent-ind-claim-en huggingface dataset:
Underwater cleaning machine with a suction unit for generating a suction flow to suck in dirt through at least one suction inlet , which is flow-connected to a dirty water outlet for the connection of a hose or for the connection of a separating device , in particular a filter device, for the separation of dirt sucked in with the suction flow, wherein the cleaning machine has a loosening brush arrangement for the loosening of dirt from a surface to be cleaned (O), characterised in that , in addition to the loosening brush arrangement , for suction of the loosening brush arrangement on the surface to be cleaned (O) there is provided at least one separately-acting suction device giving suction additional to the suction flow through the suction inlet or inlets and which is designed to generate a suction flow or a flow and/or a vacuum, which do or does not contribute to the suction flow provided for the sucking in of dirt.
A sintered product exhibiting a relative density of greater than 97% and composed of: - more than 92% by weight of silicon carbide, - between 0.5% and 8% by weight of an amorphous secondary phase comprising the elements O, Si and one or two elements chosen from Al and Y, - less than 2% of other elements, present in said product in the form of an additional phase or of unavoidable impurities, in which the silicon carbide is present in the form of crystalline grains and in which said secondary phase is amorphous and located essentially at the boundaries of the silicon carbide grains. - more than 92% by weight of silicon carbide, - between 0.5% and 8% by weight of an amorphous secondary phase comprising the elements O, Si and one or two elements chosen from Al and Y, - less than 2% of other elements, present in said product in the form of an additional phase or of unavoidable impurities,
A surgical evacuation system , comprising: a housing comprising a motor and a pump configured to generate a flowrate; an evacuation flow path through said housing; an external sensor positioned on an external side of said housing, wherein said external sensor is configured to monitor a parameter of a fluid exiting said flow path; a control circuit configured to: interrogate said external sensor over time to determine the parameter; analyze the parameter over time; and adjust the flowrate over time based on the parameter; and wherein the surgical evacuation system further comprises a situational awareness module communicatively coupled to said control circuit to determine or infer information related to a surgical procedure from data received from databases and/or instruments, wherein said control circuit is configured to predict the parameter based on input from said situational awareness module. a housing comprising a motor and a pump configured to generate a flowrate; an evacuation flow path through said housing; an external sensor positioned on an external side of said housing, wherein said external sensor is configured to monitor a parameter of a fluid exiting said flow path; a control circuit configured to: interrogate said external sensor over time to determine the parameter; analyze the parameter over time; and adjust the flowrate over time based on the parameter; and wherein the surgical evacuation system further comprises a situational awareness module communicatively coupled to said control circuit to determine or infer information related to a surgical procedure from data received from databases and/or instruments, wherein said control circuit is configured to predict the parameter based on input from said situational awareness module. interrogate said external sensor over time to determine the parameter; analyze the parameter over time; and adjust the flowrate over time based on the parameter; and wherein the surgical evacuation system further comprises a situational awareness module communicatively coupled to said control circuit to determine or infer information related to a surgical procedure from data received from databases and/or instruments, wherein said control circuit is configured to predict the parameter based on input from said situational awareness module.
A bag stocker for holding a plurality of bags (B) to be supplied to a bag supply device , the bag stocker comprising: a body portion provided to be movable; a plurality of bag accommodating units supported by the body portion ; and a holding member which is provided in each of the plurality of bag accommodating units and adapted to support a bag bundle (B1) including two or more bags (B), wherein each of the plurality of bag accommodating units is supported by the body portion to be movable in a horizontal direction in the body portion between an accommodating position (Pa) and a withdrawing position (Pb) where each of the plurality of bag accommodating units protrudes in comparison with each of the plurality of bag accommodating units arranged at the accommodating position (Pa) and where the bag bundle (B1) is taken out of each of the plurality of bag accommodating units , wherein the plurality of bag accommodating units arranged at the accommodating position (Pa) are arranged at positions overlapping with each other in a vertical direction, and wherein the plurality of bag accommodating units arranged at the withdrawing position (Pb) are arranged at positions overlapping with each other in the vertical direction. a body portion provided to be movable; a plurality of bag accommodating units supported by the body portion ; and a holding member which is provided in each of the plurality of bag accommodating units and adapted to support a bag bundle (B1) including two or more bags (B), wherein each of the plurality of bag accommodating units is supported by the body portion to be movable in a horizontal direction in the body portion between an accommodating position (Pa) and a withdrawing position (Pb) where each of the plurality of bag accommodating units protrudes in comparison with each of the plurality of bag accommodating units arranged at the accommodating position (Pa) and where the bag bundle (B1) is taken out of each of the plurality of bag accommodating units , wherein the plurality of bag accommodating units arranged at the accommodating position (Pa) are arranged at positions overlapping with each other in a vertical direction, and wherein the plurality of bag accommodating units arranged at the withdrawing position (Pb) are arranged at positions overlapping with each other in the vertical direction.
Fluid tank for an electrohydrodynamic atomizer, wherein the fluid tank comprises a data memory , in order to permit an exchange of data with the electrohydrodynamic atomizer, characterized in that the fluid tank comprises an at least partially elastically deformable valve system , wherein the valve system comprises an elastic valve body with a conical sealing section and a plurality of fluid channels , wherein the elastic valve body comprises a spring disk and a valve cone which is arranged on the spring disk , wherein the valve cone comprises the fluid channels , and the fluid channels penetrate the spring disk in the edge region of the valve cone .
A protective cover for an electronic device, the protective cover comprising: a first protective layer including a flat region and a curved region and having a specified transparency, the curved region being disposed at at least part of an edge of the flat region and having a specified curvature; a second protective layer disposed below the first protective layer , wherein the second protective layer is formed to be thicker than the first protective layer; a bonding layer configured to bond the first protective layer and the second protective layer ; and an adhesive layer disposed below the second protective layer . a first protective layer including a flat region and a curved region and having a specified transparency, the curved region being disposed at at least part of an edge of the flat region and having a specified curvature; a second protective layer disposed below the first protective layer , wherein the second protective layer is formed to be thicker than the first protective layer; a bonding layer configured to bond the first protective layer and the second protective layer ; and an adhesive layer disposed below the second protective layer .
A toner consumption calculator, comprising: a plurality of line memories ; a processor that is configured to sequentially record image data including a plurality of pixels into the line memories and to process the image data by sequentially reading the image data from the line memories ; an exposing unit that is configured to perform exposure in accordance with the processed image data and to form a latent image based on the image data on an image carrier ; and a counter that is configured to sequentially read the image data from the line memories and to count toner consumption of a target (A) pixel of the image data on the basis of light amounts of surrounding pixels of the target pixel (A), wherein the processor is configured to read the image data from the line memories L times, wherein L is a natural number, and to read M pixels, wherein M is a natural number, per line memory and per clock, M being equal to or larger than the number of surrounding pixels of the target pixel (A) in a main-scanning direction and wherein L = 4 and M = 8, and the counter is configured to read the image data from the line memories L times, to read the M pixels per line memory and per clock, and to count the toner consumption of N target pixels (A), wherein N ≤ M. a plurality of line memories ; a processor that is configured to sequentially record image data including a plurality of pixels into the line memories and to process the image data by sequentially reading the image data from the line memories ; an exposing unit that is configured to perform exposure in accordance with the processed image data and to form a latent image based on the image data on an image carrier ; and a counter that is configured to sequentially read the image data from the line memories and to count toner consumption of a target (A) pixel of the image data on the basis of light amounts of surrounding pixels of the target pixel (A), wherein the processor is configured to read the image data from the line memories L times, wherein L is a natural number, and to read M pixels, wherein M is a natural number, per line memory and per clock, M being equal to or larger than the number of surrounding pixels of the target pixel (A) in a main-scanning direction and wherein L = 4 and M = 8, and the counter is configured to read the image data from the line memories L times, to read the M pixels per line memory and per clock, and to count the toner consumption of N target pixels (A), wherein N ≤ M.
A computer-implemented method comprising: processing model data depicting at least one structure that contains or is near a target delivery location ; determining one or more privacy-sensitive features of the at least one structure, wherein the one or more privacy-sensitive features include one or more windows , one or more openings, or a combination thereof; calculating line-of-sight data between a route of an aerial drone and the one or more privacy- sensitive features; generating map data comprising privacy scores for the one or more privacy-sensitive features based on the line-of-sight data, the model data , indoor mapping data , or a combination thereof; and configuring a routing of the aerial drone based on the line-of sight data and the map data when the aerial drone is traveling near the at least one structure. processing model data depicting at least one structure that contains or is near a target delivery location ; determining one or more privacy-sensitive features of the at least one structure, wherein the one or more privacy-sensitive features include one or more windows , one or more openings, or a combination thereof; calculating line-of-sight data between a route of an aerial drone and the one or more privacy- sensitive features; generating map data comprising privacy scores for the one or more privacy-sensitive features based on the line-of-sight data, the model data , indoor mapping data , or a combination thereof; and configuring a routing of the aerial drone based on the line-of sight data and the map data when the aerial drone is traveling near the at least one structure.
A method for reducing electromagnetic interference (EMI) in a system that periodically operates with a fixed sampling frequency, the method comprising: reading a digital signal to which an analog signal received from a sensor is converted; generating a time delay that is modulated in each cycle of the fixed sampling frequency by an execution of software; starting to process the digital signal with an execution of a digital signal processing algorithm by applying the time delay that is modulated; and transmitting the digital signal to another device or chip through writing the digital signal. reading a digital signal to which an analog signal received from a sensor is converted; generating a time delay that is modulated in each cycle of the fixed sampling frequency by an execution of software; starting to process the digital signal with an execution of a digital signal processing algorithm by applying the time delay that is modulated; and transmitting the digital signal to another device or chip through writing the digital signal.
Pyrotechnic protective switch having a one-piece conductor plate with at least two connection elements and with at least one fuse conductor connecting the at least two connection elements , a pyrotechnic unit and a separating element for severing the at least one fuse conductor in the event of actuation, and a housing , characterized in that the conductor plate has a fuse contour which is connected in parallel with the fuse conductor and is designed as a safety fuse, wherein the fuse contour is designed as a conductor strip, wherein the conductor strip has a plurality of cross-sectional tapers which are spaced apart from one another, and wherein each of these cross-sectional tapers forms its own separate, simple safety fuse as it were, so that the fuse contour consists of a plurality of simple safety fuses connected in series, and the fuse contour is retained for the pyrotechnical unit in the event of actuation and is subsequently the only electrical connection which connects the at least two connection elements .
A glass tank furnace having a high melting rate, a length (L) to width (W) ratio of the glass tank furnace having a high melting rate is 2.3 to 2.8, wherein pure oxygen burners are provided in the glass tank furnace having a high melting rate, and electrodes are provided on the bottom of the glass tank furnace having a high melting rate, characterized in that the pure oxygen burners are mounted in more than one of the following ways: mounted on a crown, horizontally mounted on breast walls, and obliquely mounted on the breast walls.
A process for the production of a polyurethane foam by mixing the following to give a reaction mixture: (a) polymeric MDI with less than 40% by weight content of difunctional MDI (b) compounds having at least two hydrogen atoms reactive toward isocyanate groups, comprising (b1) at least one polyester polyol and (b2) at least one polyether polyol (c) optionally flame retardant (d) blowing agent, comprising at least one aliphatic halogenated hydrocarbon compound (d1) composed of 2 to 5 carbon atoms and of at least one hydrogen atom and of at least one fluorine and/or chlorine atom, where the compound (d1) comprises at least one carbon-carbon double bond, (e) optionally catalyst and (f) optionally auxiliaries and additional substances, spraying the reaction mixture onto a substrate and allowing said reaction mixture to harden to give the polyurethane foam, where an isocyanate component (A) comprising polyisocyanates (a) and blowing agent (d1), and a polyol component (B) comprising compounds (b) having at least two hydrogen atoms reactive toward isocyanate groups are produced, and then isocyanate component (A) and polyol component (B), and also optionally other compounds (c), (e) and (f) are mixed to give the reaction mixture, where the ratio by mass of isocyanate component (A) to polyol component (B) is at least 1.2. (a) polymeric MDI with less than 40% by weight content of difunctional MDI (b) compounds having at least two hydrogen atoms reactive toward isocyanate groups, comprising (b1) at least one polyester polyol and (b2) at least one polyether polyol (c) optionally flame retardant (d) blowing agent, comprising at least one aliphatic halogenated hydrocarbon compound (d1) composed of 2 to 5 carbon atoms and of at least one hydrogen atom and of at least one fluorine and/or chlorine atom, where the compound (d1) comprises at least one carbon-carbon double bond, (e) optionally catalyst and (f) optionally auxiliaries and additional substances, spraying the reaction mixture onto a substrate and allowing said reaction mixture to harden to give the polyurethane foam, where an isocyanate component (A) comprising polyisocyanates (a) and blowing agent (d1), and a polyol component (B) comprising compounds (b) having at least two hydrogen atoms reactive toward isocyanate groups are produced, and then isocyanate component (A) and polyol component (B), and also optionally other compounds (c), (e) and (f) are mixed to give the reaction mixture, where the ratio by mass of isocyanate component (A) to polyol component (B) is at least 1.2. an isocyanate component (A) comprising polyisocyanates (a) and blowing agent (d1), and a polyol component (B) comprising compounds (b) having at least two hydrogen atoms reactive toward isocyanate groups are produced, and then isocyanate component (A) and polyol component (B), and also optionally other compounds (c), (e) and (f) are mixed to give the reaction mixture, where the ratio by mass of isocyanate component (A) to polyol component (B) is at least 1.2.
Shed-forming module for selective movement of shed-forming elements using non-selectively movable lifting elements, comprising at least two sets of lifting elements which are movable up and down in antiphase in a movement zone according to an adjustable movement amplitude, wherein the movement zone is defined by the smallest possible enveloping rectangle of the projections of the lifting elements on a horizontal plane, and a drive system, comprising: - transfer means for transferring the movement according to a constant transfer ratio from a first driven shaft , the axis (A) of which extends in a first direction, to a second shaft , the axis (B) of which extends in a second direction, in which the first direction differs from the second direction; - conversion means for converting the movement of the second shaft into an oscillating movement around a third axis (C) which extends at a distance from and in the same direction as the second direction, wherein the conversion means comprise at least the following components: • at least one drive component attached to the second shaft ; • at least one follower component which is movable in oscillation around the third axis (C), and • one or more coupling components for the connection between the drive component and the follower component ; - connecting means which create the connection between said follower component and the lifting elements in the movement zone, wherein the conversion means are provided in a closable housing , wherein the housing comprises at least one opening which forms a passage for the connecting means, characterised in that said connecting means extend fluid-tightly through said opening, and wherein the drive system comprises only a first adjustment means and a second adjustment means for adjusting the movement amplitude of the lifting elements. - transfer means for transferring the movement according to a constant transfer ratio from a first driven shaft , the axis (A) of which extends in a first direction, to a second shaft , the axis (B) of which extends in a second direction, in which the first direction differs from the second direction; - conversion means for converting the movement of the second shaft into an oscillating movement around a third axis (C) which extends at a distance from and in the same direction as the second direction, wherein the conversion means comprise at least the following components: • at least one drive component attached to the second shaft ; • at least one follower component which is movable in oscillation around the third axis (C), and • one or more coupling components for the connection between the drive component and the follower component ; • at least one drive component attached to the second shaft ; • at least one follower component which is movable in oscillation around the third axis (C), and • one or more coupling components for the connection between the drive component and the follower component ; - connecting means which create the connection between said follower component and the lifting elements in the movement zone,
A fluid collection assembly , comprising: a fluid impermeable barrier including at least one interior surface defining a chamber , the fluid impermeable barrier defining at least one opening and a barrier outlet; and at least one wicking material disposed in the chamber; characterized by : a sample port defining at least one channel extending between at least a port inlet and an attachment port thereof, the attachment port being configured to switch between a closed state when a flow of bodily fluids through the attachment port is restricted and an open state when the flow of the bodily fluids through the attachment port is permitted; and a sample container defining a sample compartment and a sample inlet configured to couple with the attachment port, the sample container including a check valve between the sample inlet and the sample compartment. a fluid impermeable barrier including at least one interior surface defining a chamber , the fluid impermeable barrier defining at least one opening and a barrier outlet; and at least one wicking material disposed in the chamber; a sample port defining at least one channel extending between at least a port inlet and an attachment port thereof, the attachment port being configured to switch between a closed state when a flow of bodily fluids through the attachment port is restricted and an open state when the flow of the bodily fluids through the attachment port is permitted; and a sample container defining a sample compartment and a sample inlet configured to couple with the attachment port, the sample container including a check valve between the sample inlet and the sample compartment.
A system including: a vessel mount; a pressure vessel supported on the vessel mount; a boss attached to the pressure vessel and having a first bore therein, characterized in that the system further comprises a bearing disposed at least partially within the first bore and having a second bore therethrough; and an attachment element configured to be affixed to the vessel mount, wherein a portion of the attachment element extends through the second bore and is slidable within the first and second bores substantially along a longitudinal axis of the pressure vessel . a vessel mount; a pressure vessel supported on the vessel mount; a boss attached to the pressure vessel and having a first bore therein, characterized in that the system further comprises a bearing disposed at least partially within the first bore and having a second bore therethrough; and an attachment element configured to be affixed to the vessel mount, wherein a portion of the attachment element extends through the second bore and is slidable within the first and second bores substantially along a longitudinal axis of the pressure vessel .