mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for encoding data for communications with improved privacy, the method comprising: obtaining , by a computing system comprising one or more computing devices , input data comprising one or more input data points; constructing , by the computing system, a net tree comprising potential representatives of the one or more input data points, the potential representatives arranged in a plurality of levels, the net tree comprising a hierarchical data structure comprising a plurality of hierarchically organized nodes; determining , by the computing system, a representative of each of the one or more input data points from the potential representatives of the net tree, the representative comprising one of the plurality of hierarchically organized nodes; encoding , by the computing system, the representative of each of the one or more input data points for communication. obtaining , by a computing system comprising one or more computing devices , input data comprising one or more input data points; constructing , by the computing system, a net tree comprising potential representatives of the one or more input data points, the potential representatives arranged in a plurality of levels, the net tree comprising a hierarchical data structure comprising a plurality of hierarchically organized nodes; determining , by the computing system, a representative of each of the one or more input data points from the potential representatives of the net tree, the representative comprising one of the plurality of hierarchically organized nodes; encoding , by the computing system, the representative of each of the one or more input data points for communication.
An inert time delay device, comprising: a housing having a first axial end and a second axial end and defining a chamber extending from the first axial end to the second axial end ; an ignition configured to generate a pressure front event disposed at the first axial end ; a primer disposed at the second axial end ; and a damper system disposed in the housing, the damper system comprising: a firing pin spaced apart axially from the primer ; a moveable housing disposed within the chamber and spaced apart axially from the ignition ; a fixed piston comprising a piston head disposed in the moveable housing and a first rod extending from the piston head axially, and outward from, the moveable housing , in the direction of the second axial end of the housing to a second rod , the second rod extending radially through the chamber and being fixedly coupled to the housing , so that the piston is fixedly coupled to the housing ; a first spring and a second spring each being disposed axially between the moveable housing and the firing pin , the damper system configured to initiate an inert time delay from the ignition receiving a pyrotechnic input to the primer sending a pyrotechnic output. a housing having a first axial end and a second axial end and defining a chamber extending from the first axial end to the second axial end ; an ignition configured to generate a pressure front event disposed at the first axial end ; a primer disposed at the second axial end ; and a damper system disposed in the housing, the damper system comprising: a firing pin spaced apart axially from the primer ; a moveable housing disposed within the chamber and spaced apart axially from the ignition ; a fixed piston comprising a piston head disposed in the moveable housing and a first rod extending from the piston head axially, and outward from, the moveable housing , in the direction of the second axial end of the housing to a second rod , the second rod extending radially through the chamber and being fixedly coupled to the housing , so that the piston is fixedly coupled to the housing ; a first spring and a second spring each being disposed axially between the moveable housing and the firing pin , the damper system configured to initiate an inert time delay from the ignition receiving a pyrotechnic input to the primer sending a pyrotechnic output. a firing pin spaced apart axially from the primer ; a moveable housing disposed within the chamber and spaced apart axially from the ignition ; a fixed piston comprising a piston head disposed in the moveable housing and a first rod extending from the piston head axially, and outward from, the moveable housing , in the direction of the second axial end of the housing to a second rod , the second rod extending radially through the chamber and being fixedly coupled to the housing , so that the piston is fixedly coupled to the housing ; a first spring and a second spring each being disposed axially between the moveable housing and the firing pin , the damper system configured to initiate an inert time delay from the ignition receiving a pyrotechnic input to the primer sending a pyrotechnic output.
Slip ring assembly, which has a slip ring carrier and at least one slip ring arranged thereon and a contact module having contact elements, in particular contact springs , wherein the contact elements contact a slideway of the slip ring and wherein a cleaning device is provided for cleaning the slideway and has a cleaning brush with a brush filling contacting the slideway , characterised in that the cleaning brush has a base body having a rear web and a brush carrier , and the cleaning brush is secured to a carrier board of the contact module via the rear web and connecting elements .
A method of fabricating a curved display panel, comprising: forming a protective layer at least on a bending region (C), the bending region (C) being in a non-display region (B) containing peripheral circuits of the display panel, to cover the peripheral circuits; and folding the display panel at the bending region (C) towards a back surface of the display panel, wherein: the protective layer is made of a material including a photosensitive adhesive; characterised in that after forming the protective layer at least on the bending region (C), the method further includes: half-curing at least a portion of the protective layer corresponding to the bending region (C) in an exposure process using a mask plate ; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region (C) towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer . forming a protective layer at least on a bending region (C), the bending region (C) being in a non-display region (B) containing peripheral circuits of the display panel, to cover the peripheral circuits; and folding the display panel at the bending region (C) towards a back surface of the display panel, wherein: the protective layer is made of a material including a photosensitive adhesive; characterised in that after forming the protective layer at least on the bending region (C), the method further includes: half-curing at least a portion of the protective layer corresponding to the bending region (C) in an exposure process using a mask plate ; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region (C) towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer . the protective layer is made of a material including a photosensitive adhesive; characterised in that after forming the protective layer at least on the bending region (C), the method further includes: half-curing at least a portion of the protective layer corresponding to the bending region (C) in an exposure process using a mask plate ; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region (C) towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer . half-curing at least a portion of the protective layer corresponding to the bending region (C) in an exposure process using a mask plate ; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region (C) towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer .
A method for controlling the motion of a fluid jet cutting head of a fluid jet cutting system comprising a fluid jet cutting head drive and a control unit configured to operate the motion of the fluid jet cutting head from a predetermined inclination angle value (PIA) and from fluid pressure data and/or abrasive medium data and/or fluid jet cutting head data and/or fluid jet cutting focusing tube data and/or sand granular size and/or surface finish requirement data and/or geometric entity data and/or workpiece material quality data and/or workpiece thickness, wherein the predetermined inclination angle value (PIA) is determined by a value defined by the actual taper angle and/or actual trail back angle, the method comprises the steps of: - measuring an angular displacement value (AD) for determining said predetermined inclination angle value (PIA); - feeding data regarding the predetermined inclination angle value (PIA) to the control unit ; - cutting the workpiece in accordance with said predetermined inclination angle value (PIA) and said data and/or workpiece thickness; the method characterised by - cutting a calibration portion having the same material property as the workpiece to be cut; and - automatically adapting the speed of the fluid jet cutting head by means of the control unit in accordance with the predetermined inclination angle value (PIA). - measuring an angular displacement value (AD) for determining said predetermined inclination angle value (PIA); - feeding data regarding the predetermined inclination angle value (PIA) to the control unit ; - cutting the workpiece in accordance with said predetermined inclination angle value (PIA) and said data and/or workpiece thickness; the method characterised by - cutting a calibration portion having the same material property as the workpiece to be cut; and - automatically adapting the speed of the fluid jet cutting head by means of the control unit in accordance with the predetermined inclination angle value (PIA).
A froth flotation arrangement for treating mineral ore particles suspended in slurry, comprising a flotation cell for separating the slurry into an underflow and an overflow , wherein the arrangement comprises: - a primary line comprising at least three flotation cells connected in series, wherein each subsequent flotation cell is arranged to receive the underflow from the previous flotation cell , - the flotation cell comprising a tank , and the flotation cell comprising an impeller within the tank , and - the flotation cell comprising g a gas supply within the tank , - the tank comprising a volume of at least 200 m 3 , - the flotation cell comprising a froth collection launder capable to receive the overflow , - the froth collection launder comprising a froth overflow lip , - the flotation cell having an available froth surface area (A froth ), - the flotation cell having a pulp area (A pulp ), where the pulp area (A pulp ) is calculated as an average from the cross sectional areas of the tank at the height (h1) of the impeller , - a ratio between a height (h) from a bottom of the tank to the froth overflow lip of the froth collection launder and the diameter (D) of the tank at the height (h1) of the impeller (h/D) is less than 1,5, - characterized in that the third flotation cell or subsequent flotation cell in the series has a ratio between an available froth surface area and the pulp area (A froth /A pulp ) less than 0,45; and that the froth collection launders are positioned in radial direction (r) of the tank and an average froth transport distance (d tr ) is less than 100 cm. - a primary line comprising at least three flotation cells connected in series, wherein each subsequent flotation cell is arranged to receive the underflow from the previous flotation cell , - the flotation cell comprising a tank , and the flotation cell comprising an impeller within the tank , and - the flotation cell comprising g a gas supply within the tank , - the tank comprising a volume of at least 200 m 3 , - the flotation cell comprising a froth collection launder capable to receive the overflow , - the froth collection launder comprising a froth overflow lip , - the flotation cell having an available froth surface area (A froth ), - the flotation cell having a pulp area (A pulp ), where the pulp area (A pulp ) is calculated as an average from the cross sectional areas of the tank at the height (h1) of the impeller , - a ratio between a height (h) from a bottom of the tank to the froth overflow lip of the froth collection launder and the diameter (D) of the tank at the height (h1) of the impeller (h/D) is less than 1,5, - characterized in that the third flotation cell or subsequent flotation cell in the series has a ratio between an available froth surface area and the pulp area (A froth /A pulp ) less than 0,45; and that
A method for producing a test instrument used to evaluate decontamination process that includes at least one of a cleaning, disinfection or drying process of internal flexible channels , comprising: obtaining a medical instrument having a flexible probe section configured for insertion into a body, the flexible probe section including at least one internal flexible channel and at least one external device port ; and attaching an access device between the at least one external device port and the at least one internal flexible channel to enable selective access into the internal flexible channel , characterized in that attaching the access device comprises removing an exterior sheath from the flexible probe section to expose the at least one external device port and the at least one internal flexible channel of the medical instrument. obtaining a medical instrument having a flexible probe section configured for insertion into a body, the flexible probe section including at least one internal flexible channel and at least one external device port ; and attaching an access device between the at least one external device port and the at least one internal flexible channel to enable selective access into the internal flexible channel , characterized in that attaching the access device comprises removing an exterior sheath from the flexible probe section to expose the at least one external device port and the at least one internal flexible channel of the medical instrument.
A space-time channel modulation method comprising the steps: - mapping incoming amplitude and/or phase information bits to two complex data symbols and employment of MIMO transmission with two reconfigurable transmit antennas and two time slots by an Alamouti space-time block encoder , - mapping incoming channel information bits to channel states according to a number of available RF mirrors at the reconfigurable transmit antennas wherein channel states are selected through a channel state configurator , - processing of received signals by the conditional maximum likelihood detector to perform reduced complexity detection of the transmitted complex data symbols and channel states . - demapping of the detected complex data symbols and channel states by a demapper to obtain amplitude and/or phase information and channel information bits at the receiver, wherein, the - channel information bits are transmitted by changing the channel state for each reconfigurable transmit antenna in each time slot, wherein the channel state is determined for each reconfigurable transmit antenna by using the RF mirrors at each of the transmit antenna . - mapping incoming amplitude and/or phase information bits to two complex data symbols and employment of MIMO transmission with two reconfigurable transmit antennas and two time slots by an Alamouti space-time block encoder , - mapping incoming channel information bits to channel states according to a number of available RF mirrors at the reconfigurable transmit antennas wherein channel states are selected through a channel state configurator , - processing of received signals by the conditional maximum likelihood detector to perform reduced complexity detection of the transmitted complex data symbols and channel states . - demapping of the detected complex data symbols and channel states by a demapper to obtain amplitude and/or phase information and channel information bits at the receiver, wherein, the - channel information bits are transmitted by changing the channel state for each reconfigurable transmit antenna in each time slot, wherein the channel state is determined for each reconfigurable transmit antenna by using the RF mirrors at each of the transmit antenna .
A vehicle comprising: two side rails constituting a ladder frame of the vehicle , and a vehicle battery housing mounted on the vehicle , the vehicle battery housing comprising: a first battery accommodating portion arranged in a first space between the two side rails , characterized in that the vehicle battery housing comprises a second battery accommodating portion greater in vehicle-widthwise dimension than the first battery accommodating portion and connected to the first battery accommodating portion to be located in a second space vehicle-heightwise below the first space, wherein the vehicle-widthwise dimension of the second battery accommodating portion is greater than a distance (D1) between the two side rails and, wherein the vehicle-widthwise dimension of the second battery accommodating portion is smaller than a distance (D2) between webs of the two side rails . two side rails constituting a ladder frame of the vehicle , and a vehicle battery housing mounted on the vehicle , the vehicle battery housing comprising: a first battery accommodating portion arranged in a first space between the two side rails , characterized in that the vehicle battery housing comprises a second battery accommodating portion greater in vehicle-widthwise dimension than the first battery accommodating portion and connected to the first battery accommodating portion to be located in a second space vehicle-heightwise below the first space, wherein the vehicle-widthwise dimension of the second battery accommodating portion is greater than a distance (D1) between the two side rails and, wherein the vehicle-widthwise dimension of the second battery accommodating portion is smaller than a distance (D2) between webs of the two side rails . a first battery accommodating portion arranged in a first space between the two side rails , characterized in that the vehicle battery housing comprises a second battery accommodating portion greater in vehicle-widthwise dimension than the first battery accommodating portion and connected to the first battery accommodating portion to be located in a second space vehicle-heightwise below the first space, wherein the vehicle-widthwise dimension of the second battery accommodating portion is greater than a distance (D1) between the two side rails and, wherein the vehicle-widthwise dimension of the second battery accommodating portion is smaller than a distance (D2) between webs of the two side rails .
A method of condition monitoring a WTG (Wind Turbine Generator) comprising acts of: - collecting at least the following data sets with time stamps: A) generator power production measurements; B) mechanical status measurements; C) nacelle direction measurements; D) meteorological conditions measurement including at least wind condition measurements; E) and torque measurement - synchronizing and Processing the data sets to provide at least i) Rotor/blade status information ii) Generator power production information iii) Tower status information - classifying the information i), ii) and iii) in at least the following states of operation: ∘ Normal state of operation or ∘ Non-normal state of operation, and the said act of synchronization is performed in at least one synchronization system for synchronizing collected and time stamped data. - collecting at least the following data sets with time stamps: A) generator power production measurements; B) mechanical status measurements; C) nacelle direction measurements; D) meteorological conditions measurement including at least wind condition measurements; E) and torque measurement A) generator power production measurements; B) mechanical status measurements; C) nacelle direction measurements; D) meteorological conditions measurement including at least wind condition measurements; E) and torque measurement - synchronizing and Processing the data sets to provide at least i) Rotor/blade status information ii) Generator power production information iii) Tower status information i) Rotor/blade status information ii) Generator power production information iii) Tower status information - classifying the information i), ii) and iii) in at least the following states of operation: ∘ Normal state of operation or ∘ Non-normal state of operation, ∘ Normal state of operation or ∘ Non-normal state of operation,
A modular panel made of plastic material for manufacturing pool walls, comprising: • a generally rectangular main body of which a first surface is intended for being oriented towards the inside of the pool, the lengths of the main body defining a reference plane (P); • a complementary body capable of being attached to a second surface of the main body and defining a hollow column intended for receiving concrete; the panel being characterised in that the first surface has an initial convex transverse curve on the width of the main body in a plastic injection mould, the maximum amplitude of the transverse curve relative to the reference plane (P) being selected to compensate for all or part of the deformations that occur between the removal from the mould and the setting of the concrete, in the transverse and longitudinal directions. • a generally rectangular main body of which a first surface is intended for being oriented towards the inside of the pool, the lengths of the main body defining a reference plane (P); • a complementary body capable of being attached to a second surface of the main body and defining a hollow column intended for receiving concrete;