mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for operating a fuel cell unit , comprising: - an operating medium container , which is configured to store an operating medium kept under high pressure for operating the fuel cell unit , - a fuel cell system , which comprises the fuel cell unit and a fuel cell line , wherein the operating medium container is fluidically coupled to the fuel cell unit by means of a high-pressure line , a supply line and the fuel cell line for guiding the operating medium, and - two transfer units (61, 63; 62, 64, 65), which are in each case fluidically arranged between the operating medium container and the fuel cell unit and are coupled to the high-pressure line , the supply line and/or the fuel cell line and which are embodied such that, when the operating medium passes through the transfer unit (61, 63; 62, 64, 65), state energy of the operating medium can be transferred to a component of the transfer unit (61, 63; 62, 64, 65), wherein the transfer units (61, 63; 62, 64, 65) each comprise a turbine and an output coupled to the turbine , such that when the operating medium passes through the turbine , state energy of the operating medium can be converted into mechanical and/or electrical energy by means of the turbine and the output , wherein the turbine of one transfer unit is fluidically arranged between the high-pressure line and the supply line and the associated output is embodied as a generator, and wherein the turbine of the other transfer unit is fluidically arranged between the supply line and the fuel cell line and the output is embodied as a compressor. - an operating medium container , which is configured to store an operating medium kept under high pressure for operating the fuel cell unit , - a fuel cell system , which comprises the fuel cell unit and a fuel cell line , wherein the operating medium container is fluidically coupled to the fuel cell unit by means of a high-pressure line , a supply line and the fuel cell line for guiding the operating medium, and - two transfer units (61, 63; 62, 64, 65), which are in each case fluidically arranged between the operating medium container and the fuel cell unit and are coupled to the high-pressure line , the supply line and/or the fuel cell line and which are embodied such that, when the operating medium passes through the transfer unit (61, 63; 62, 64, 65), state energy of the operating medium can be transferred to a component of the transfer unit (61, 63; 62, 64, 65), wherein the transfer units (61, 63; 62, 64, 65) each comprise a turbine and an output coupled to the turbine , such that when the operating medium passes through the turbine , state energy of the operating medium can be converted into mechanical and/or electrical energy by means of the turbine and the output , wherein the turbine of one transfer unit is fluidically arranged between the high-pressure line and the supply line and the associated output is embodied as a generator, and wherein the turbine of the other transfer unit is fluidically arranged between the supply line and the fuel cell line and the output is embodied as a compressor.
A stent insertable into a patient's body, said stent comprising a wire member coated with a coating having an electret structure; wherein said electret coating comprises a tantalum pentoxide layer blanketing an entire surface of said wire member.
An image processing system comprising: a first display means for displaying an image of a 3D space; a first rendering means for rendering display data of the 3D space; a second display means for displaying an image of a material placed in the 3D space; and a second rendering means for rendering display data of an image of the material, wherein the second rendering means is configured to render the display data of the material based on illumination information, material information on the texture of the material, and the relative positional relationship of a light fixture, a display surface of the second display means, and the viewer, and the orientation of the display surface of the second display means, the second display means is configured to display the image of the material using the rendered display data of the material, the first rendering means is configured to render the display data of the 3D space in which the material is placedin response to an indication to place the material to the 3D space, based on spatial illumination information of the 3D space and the material information on the texture of the material, and the first display means is configured to display the image of the 3D space using the rendered display data of the 3D space.
Corner or centre arrangement of an outer frame, comprising a horizontally aligned and a vertically aligned frame profile having identically stepped frame profile surfaces each facing towards the inside of the frame, and having a profile connector arranged between the frame profile surface of the horizontal frame profile and that cut face of the vertical frame profile that is perpendicular to the direction of longitudinal extent, characterized in that the profile connector a. has a stepped lower face composed of a first partial lower face and a second partial lower face , which stepped lower face is placed, in particular at least substantially form-fittingly placed, on the stepped profile surface of the horizontal frame profile of frame profiles with an identically stepped profile surface, and b. has a planar surface , on which the cut face of a vertical frame profile is placed in flush, in particular abutting, fashion, and c. a stepped front face (16', 16") composed of a first partial front face and a second partial front face (16"), which stepped front face extends, in line with the direction of longitudinal extent of a vertical frame profile , that profile surface of the frame profile that is stepped identically to the horizontal frame profile , and d. a planar back face , which is positioned parallel to the cut face of the horizontal frame profile, in particular in a corner in line with the cut face. a. has a stepped lower face composed of a first partial lower face and a second partial lower face , which stepped lower face is placed, in particular at least substantially form-fittingly placed, on the stepped profile surface of the horizontal frame profile of frame profiles with an identically stepped profile surface, and b. has a planar surface , on which the cut face of a vertical frame profile is placed in flush, in particular abutting, fashion, and c. a stepped front face (16', 16") composed of a first partial front face and a second partial front face (16"), which stepped front face extends, in line with the direction of longitudinal extent of a vertical frame profile , that profile surface of the frame profile that is stepped identically to the horizontal frame profile , and d. a planar back face , which is positioned parallel to the cut face of the horizontal frame profile, in particular in a corner in line with the cut face.
A blow molder system comprising: a blow molder that produces containers from preforms, wherein the blow molder comprises: a plurality of molds; and a blow molder sensor for sensing an operating condition of the blow molder ; a container inspection system for inspecting the containers produced by the blow molder ; and a blow molder controller that is in communication with the blow molder and the container inspection system , characterized in that the blow molder controller is configured to: receive outputs from the blow molder sensor and the container inspection system ; determine a set of blow molder input parameters for the blow molder that drives the containers generated by the blow molder toward a desired container characteristic, wherein the set of blow molder input parameters are determined based on: the outputs from the container inspection system and blow molder sensor ; and operating cost data for the blow molder , wherein the operating cost data comprises energy costs for operating the blow molder ; and output the set of blow molder input parameters to the blow molder for implementation by the blow molder . a blow molder that produces containers from preforms, wherein the blow molder comprises: a plurality of molds; and a blow molder sensor for sensing an operating condition of the blow molder ; a plurality of molds; and a blow molder sensor for sensing an operating condition of the blow molder ; a container inspection system for inspecting the containers produced by the blow molder ; and a blow molder controller that is in communication with the blow molder and the container inspection system , characterized in that the blow molder controller is configured to: receive outputs from the blow molder sensor and the container inspection system ; determine a set of blow molder input parameters for the blow molder that drives the containers generated by the blow molder toward a desired container characteristic, wherein the set of blow molder input parameters are determined based on: the outputs from the container inspection system and blow molder sensor ; and operating cost data for the blow molder , wherein the operating cost data comprises energy costs for operating the blow molder ; and output the set of blow molder input parameters to the blow molder for implementation by the blow molder . receive outputs from the blow molder sensor and the container inspection system ; determine a set of blow molder input parameters for the blow molder that drives the containers generated by the blow molder toward a desired container characteristic, wherein the set of blow molder input parameters are determined based on: the outputs from the container inspection system and blow molder sensor ; and operating cost data for the blow molder , wherein the operating cost data comprises energy costs for operating the blow molder ; and the outputs from the container inspection system and blow molder sensor ; and operating cost data for the blow molder , wherein the operating cost data comprises energy costs for operating the blow molder ; and output the set of blow molder input parameters to the blow molder for implementation by the blow molder .
A pressure boosting system comprising: - two or more pumps each having: - an inlet connected to an inlet manifold , and - an outlet connected to an outlet manifold ; wherein the line connecting the inlet and its corresponding connection at the inlet manifold defines an inlet line (λ 1 , λ 2 , λ 3 , λ 4 ), and wherein the line connecting the outlet and its corresponding connection at the outlet manifold defines an outlet line (ω 1 , ω 2 , ω 3 , ω 4 ), wherein at least two of the inlet lines (λ 1 , λ 2 , λ 3 , λ 4 ) are angled relative to each other, wherein the at least two of the inlet lines (λ 1 , λ 2 , λ 3 , λ 4 ) are non-parallel to each other, and/or that at least two of the outlet lines (ω 1 , ω 2 , ω 3 , ω 4 ) are angled relative to each other, wherein the at least two of the outlet lines (ω 1 , ω 2 , ω 3 , ω 4 ) are non-parallel to each other, wherein the outlet of each pump is connected to an outlet pipe comprising a basically straight outlet pipe member , and wherein the inlet of each pump is connected to an inlet pipe comprising a basically straight inlet pipe member , wherein the inlet pipes are arranged in a first plane and the outlet pipes are arranged in a second plane extending basically parallel to the first plane, wherein each pump has a longitudinal axis (X1, X2, X3, X4) and the longitudinal axes (X1, X2, X3, X4) of the pumps are angled relative to each other, characterized in that the manifolds , are centrally arranged and the pumps are arranged in a formation such that they are connected to the centrally arranged manifolds , . - two or more pumps each having: - an inlet connected to an inlet manifold , and - an outlet connected to an outlet manifold ;
A computer implemented method for generating multiple shares of secret data represented by secret data elements based on a first threshold for the number of shares that allow determining the secret data, the method comprising: determining multiple shares based on the multiple secret data elements and based on one or more random data elements , wherein determining the multiple shares comprises for each of the multiple shares determining a linear combination of the multiple secret data elements and the random data elements based on one of multiple sets of coefficients, the multiple sets of coefficients are linearly independent, the distance between each of the multiple sets of coefficients is maximal, each of the multiple sets of coefficients comprises exactly the first threshold number of coefficients and comprises exactly the number of secret data elements plus the number of random data elements . determining multiple shares based on the multiple secret data elements and based on one or more random data elements , wherein determining the multiple shares comprises for each of the multiple shares determining a linear combination of the multiple secret data elements and the random data elements based on one of multiple sets of coefficients, the multiple sets of coefficients are linearly independent, the distance between each of the multiple sets of coefficients is maximal, each of the multiple sets of coefficients comprises exactly the first threshold number of coefficients and comprises exactly the number of secret data elements plus the number of random data elements .
A lighting glazing for a vehicle, comprising - a first transparent sheet of glass with a first main face , a second main face and a rim ; - a second transparent sheet of glass with a first main face , a second main face and a rim ; - a lamination separator in adhesive contact with the second main face of the first sheet and with the first main face of the second sheet , - one or more light-emitting diode modules (LED modules) each comprising a plurality of light-emitting diodes (LEDs) and associated electronic components fixed onto a support, the modules being positioned in such a way that the emitting face of the LEDs is facing the rim of the first sheet of glass, - a light extraction element, preferably situated on one of the main faces of the first sheet of glass, characterized in that the second sheet of glass extends beyond the first sheet of glass, at least in the parts of the edge of the glazing where the LED modules are housed, so as to create, on the first main face of the second sheet of glass or on a coating covering this face, an area for receiving the bead of glue, peripheral relative to the LED modules , which is suitable for receiving a bead of glue intended to fix the glazing to the bodywork of the vehicle , and in that the area for receiving the bead of glue has a width of between 20 mm and 100 mm. - a first transparent sheet of glass with a first main face , a second main face and a rim ; - a second transparent sheet of glass with a first main face , a second main face and a rim ; - a lamination separator in adhesive contact with the second main face of the first sheet and with the first main face of the second sheet , - one or more light-emitting diode modules (LED modules) each comprising a plurality of light-emitting diodes (LEDs) and associated electronic components fixed onto a support, the modules being positioned in such a way that the emitting face of the LEDs is facing the rim of the first sheet of glass, - a light extraction element, preferably situated on one of the main faces of the first sheet of glass,
A control system configured for controlling a heater , the heater including at least one heating element , the control system comprising: a power converter operable to supply a voltage output that is adjustable to the heater , wherein the power converter is configured to convert a voltage input from a power source to the voltage output that is less than or equal to the voltage input; a sensor circuit configured to measure an electrical characteristic of the heating element of the heater , wherein the electrical characteristic includes at least one of an electric current and a voltage; a reference temperature sensor measuring a reference temperature of a reference at the heater ; and a controller configured to operate the power converter to control the voltage output to the heater , wherein: the controller is configured to calculate a primary temperature of a heater element based on the electrical characteristic and to determine the voltage output to be applied to the heater based on at least one of the reference temperature and the primary temperature, and the controller is configured to operate in at least one of an operation mode and a learn mode, and to execute one or more protection protocols when the voltage output is being supplied to the heater . a power converter operable to supply a voltage output that is adjustable to the heater , wherein the power converter is configured to convert a voltage input from a power source to the voltage output that is less than or equal to the voltage input; a sensor circuit configured to measure an electrical characteristic of the heating element of the heater , wherein the electrical characteristic includes at least one of an electric current and a voltage; a reference temperature sensor measuring a reference temperature of a reference at the heater ; and a controller configured to operate the power converter to control the voltage output to the heater , wherein: the controller is configured to calculate a primary temperature of a heater element based on the electrical characteristic and to determine the voltage output to be applied to the heater based on at least one of the reference temperature and the primary temperature, and the controller is configured to operate in at least one of an operation mode and a learn mode, and to execute one or more protection protocols when the voltage output is being supplied to the heater . the controller is configured to calculate a primary temperature of a heater element based on the electrical characteristic and to determine the voltage output to be applied to the heater based on at least one of the reference temperature and the primary temperature, and the controller is configured to operate in at least one of an operation mode and a learn mode, and to execute one or more protection protocols when the voltage output is being supplied to the heater .
A method of identifying rock properties in real-time during drilling using a top drive drill rig comprising a top drive with a drive shaft , the method comprising the steps of: providing an acoustic signal recording and transmitting system including an acoustic sensor ; positioning the acoustic sensor on one of the following: the drive shaft and an extension of the drive shaft of the top drive drill rig , the drive shaft including a plurality of extensions, wherein the extension of the drive shaft on which the acoustic sensor is positioned is a packing box which rotates with the drive shaft , an upper bearing cup positioned adjacent the packing box and stationary with respect to the drive shaft , or a rotary manifold operably coupled to and encircling a portion of the drive shaft , and wherein the drive shaft is connected to a drill string with a drill bit connected to the downhole end of the drill string ; operably coupling a computer to one or more components of the acoustic signal recording and transmitting system to establish communications therebetween; receiving an acoustic sensor data signal from the acoustic signal recording and transmitting system by the computer , the acoustic sensor data signal representing an acoustic signal generated real-time by the acoustic sensor as a result of rotational contact of the drill bit with rock during drilling; and analyzing the acoustic sensor data signal by the computer to determine, real-time, at least one of the following: lithology type and one or more petrophysical properties of rock engaged by the drill bit during drilling operations. providing an acoustic signal recording and transmitting system including an acoustic sensor ; positioning the acoustic sensor on one of the following: the drive shaft and an extension of the drive shaft of the top drive drill rig , the drive shaft including a plurality of extensions, wherein the extension of the drive shaft on which the acoustic sensor is positioned is a packing box which rotates with the drive shaft , an upper bearing cup positioned adjacent the packing box and stationary with respect to the drive shaft , or a rotary manifold operably coupled to and encircling a portion of the drive shaft , and wherein the drive shaft is connected to a drill string with a drill bit connected to the downhole end of the drill string ; operably coupling a computer to one or more components of the acoustic signal recording and transmitting system to establish communications therebetween; receiving an acoustic sensor data signal from the acoustic signal recording and transmitting system by the computer , the acoustic sensor data signal representing an acoustic signal generated real-time by the acoustic sensor as a result of rotational contact of the drill bit with rock during drilling; and analyzing the acoustic sensor data signal by the computer to determine, real-time, at least one of the following: lithology type and one or more petrophysical properties of rock engaged by the drill bit during drilling operations.
A fluid pressure regulator comprising: a first stage valve arranged to open and close a fluid flow path to control flow of fluid through the valve, the first stage valve including: a first valve body defining a valve chamber having an outlet opening and an inlet opening ; a first valve gasket arranged in the valve chamber at the outlet opening ; and a first valve ball movable in the valve chamber to contact the first valve gasket and close the outlet opening ; a first stage piston arranged for movement to move the first valve ball relative to the outlet opening and thereby open and close the first stage valve, the piston having an inner side and an outer side; a molded plastic regulator body defining a piston chamber in which the first stage piston is movable and housing the valve chamber ; and a lance engaged with an opening of the regulator body , and the lance being arranged to pierce a gas cylinder to open the gas cylinder and conduct pressurized gas from the gas cylinder to the valve chamber , characterised in that the first valve body is a metal component co-molded with the molded plastic regulator body . a first stage valve arranged to open and close a fluid flow path to control flow of fluid through the valve, the first stage valve including: a first valve body defining a valve chamber having an outlet opening and an inlet opening ; a first valve gasket arranged in the valve chamber at the outlet opening ; and a first valve ball movable in the valve chamber to contact the first valve gasket and close the outlet opening ; a first valve body defining a valve chamber having an outlet opening and an inlet opening ; a first valve gasket arranged in the valve chamber at the outlet opening ; and a first valve ball movable in the valve chamber to contact the first valve gasket and close the outlet opening ; a first stage piston arranged for movement to move the first valve ball relative to the outlet opening and thereby open and close the first stage valve, the piston having an inner side and an outer side; a molded plastic regulator body defining a piston chamber in which the first stage piston is movable and housing the valve chamber ; and a lance engaged with an opening of the regulator body , and the lance being arranged to pierce a gas cylinder to open the gas cylinder and conduct pressurized gas from the gas cylinder to the valve chamber , characterised in that the first valve body is a metal component co-molded with the molded plastic regulator body .