mhurhangee/ep-ind-claims huggingface dataset:
Method for secure external update of memory content for a certain system on chip, the method comprising the following steps: - the issuer of the update for the system on chip generates a first data signature (D_S_1) by a generation process, the generation process using the data for update, - the issuer of the update sends the data for update and the first data signature (D_S_1) to the system on chip, - the system on chip, upon receiving the data for update, generates a second data signature (D_S_2) using the same generation process as for the first data signature (D_S_1), the generation process using the data for update, - the system on chip compares first and second data signature (D_S_1, D_S_2) and writes the data for update to the memory only if first and second data signature (D_S_1, D_S_2) are identical; wherein the generation process for the first and second data signature comprises following steps: sending the data for update to a data masking unit (D_M) for combining the data for update with an output of a data counter which is sent to the data masking unit (D_M); - feeding a resulting output of the data masking unit (D_M) to a bits combine function (B_C) which returns an output depending on the resulting output of the data masking unit (D_M) and an address of the data for update; - encrypting the output of the bits combine function (B_C); and - sending the encrypted output of the bits combine function (B_C) to a hash function (H_F). - the issuer of the update for the system on chip generates a first data signature (D_S_1) by a generation process, the generation process using the data for update, - the issuer of the update sends the data for update and the first data signature (D_S_1) to the system on chip, - the system on chip, upon receiving the data for update, generates a second data signature (D_S_2) using the same generation process as for the first data signature (D_S_1), the generation process using the data for update, - the system on chip compares first and second data signature (D_S_1, D_S_2) and writes the data for update to the memory only if first and second data signature (D_S_1, D_S_2) are identical; wherein the generation process for the first and second data signature comprises following steps: sending the data for update to a data masking unit (D_M) for combining the data for update with an output of a data counter which is sent to the data masking unit (D_M); - feeding a resulting output of the data masking unit (D_M) to a bits combine function (B_C) which returns an output depending on the resulting output of the data masking unit (D_M) and an address of the data for update; - encrypting the output of the bits combine function (B_C); and - sending the encrypted output of the bits combine function (B_C) to a hash function (H_F).
A separation or reaction system including at least two mateable separation or reaction units (1; 1'; 81; 81'; 101), each separation or reaction unit comprising a filtration unit, a chromatography unit, or a reaction unit prepared from a porous packed bed, a fluidized or expanded bed, a membrane or a filter, each unit further comprising mating contact surfaces and at least one fluid inlet (3a, 3b, 5a, 5b; 3a', 3b', 5a', 5b'; 85a, 85b; 103a, 103b) and at least one fluid outlet (3a, 3b, 5a, 5b; 3a', 3b', 5a', 5b'; 85a, 85b; 103a, 103b), the system being characterised in that: - at least one of said at least one fluid inlet and at least one fluid outlet is sealed by at least one film (7,9; 11; 87a, 87b; 107a, 107b) at a respective contact surface and the respective contact surface between the film and the separation or reaction unit is aseptic; in that - said at least one film is mateable with a corresponding film on another separation or reaction unit or with a corresponding film on a fluid distribution unit (20; 57; 61) which the separation or reaction unit is connected with, and said mated films are arranged in use to be pulled out together from between the respective mated contact surfaces after mating, such that corresponding fluid inlets/outlets on the two connected units are mated aseptically, and - in that the contact surface of at least one of the units includes a gasket (41; 105a, 105b) around a respective said at least one inlet/outlet or a gasket around a number of its inlets/outlets, said gasket being matable with a corresponding gasket or contact surface on another separation or reaction unit or the fluid distribution unit, when the films have been pulled out. - at least one of said at least one fluid inlet and at least one fluid outlet is sealed by at least one film (7,9; 11; 87a, 87b; 107a, 107b) at a respective contact surface and the respective contact surface between the film and the separation or reaction unit is aseptic; in that - said at least one film is mateable with a corresponding film on another separation or reaction unit or with a corresponding film on a fluid distribution unit (20; 57; 61) which the separation or reaction unit is connected with, and said mated films are arranged in use to be pulled out together from between the respective mated contact surfaces after mating, such that corresponding fluid inlets/outlets on the two connected units are mated aseptically, and - in that the contact surface of at least one of the units includes a gasket (41; 105a, 105b) around a respective said at least one inlet/outlet or a gasket around a number of its inlets/outlets, said gasket being matable with a corresponding gasket or contact surface on another separation or reaction unit or the fluid distribution unit, when the films have been pulled out.
Vaccine comprising a therapeutically effective amount of whole inactivated H3N8 influenza virus particles and/or H3N8 influenza virus-like particles and/or H3N8 influenza defective virus particles, an adjuvant and a pharmaceutically acceptable excipient, for use in protecting a feline from shedding influenza H3N8 virus caused by an influenza H3N8 infection, said use comprising the step of administering said vaccine to a feline
A network appliance comprising one or more digital logic hardware elements configured to: receive market data at the network appliance from a first location at an incoming data transfer rate; and transmit, from the network appliance, to a second location different from the first location over a wireless transmission line, a plurality of messages based on the market data, at an outgoing data transfer rate less than or equal to a predetermined data transfer rate, wherein the one or more digital logic hardware elements comprise a rate limiter configured to set the predetermined data transfer rate based on a maximum data transfer rate detected for the wireless transmission line and regulate the outgoing data transfer rate to ensure that the outgoing data transfer rate is less than or equal to the predetermined data transfer rate, wherein the predetermined data transfer rate is less than the incoming data transfer rate, wherein the one or more digital logic hardware elements comprise a field programmable gate array (FPGA) having the rate limiter thereon, and wherein the rate limiter comprises registers configured to store values indicating a maximum amount of data to be sent during a transmission period and logic configured to: determine when and how much data may be sent over the transmission line during the transmission period based on the values in the registers; and update values for the amount of data sent during the transmission period. receive market data at the network appliance from a first location at an incoming data transfer rate; and transmit, from the network appliance, to a second location different from the first location over a wireless transmission line, a plurality of messages based on the market data, at an outgoing data transfer rate less than or equal to a predetermined data transfer rate, wherein the one or more digital logic hardware elements comprise a rate limiter configured to set the predetermined data transfer rate based on a maximum data transfer rate detected for the wireless transmission line and regulate the outgoing data transfer rate to ensure that the outgoing data transfer rate is less than or equal to the predetermined data transfer rate, wherein the predetermined data transfer rate is less than the incoming data transfer rate, wherein the one or more digital logic hardware elements comprise a field programmable gate array (FPGA) having the rate limiter thereon, and wherein the rate limiter comprises registers configured to store values indicating a maximum amount of data to be sent during a transmission period and logic configured to: determine when and how much data may be sent over the transmission line during the transmission period based on the values in the registers; and update values for the amount of data sent during the transmission period. determine when and how much data may be sent over the transmission line during the transmission period based on the values in the registers; and update values for the amount of data sent during the transmission period.
An apparatus, comprising: an automatic integrated circuit, IC, handler having: a change kit configured to adapt to different sizes of integrated circuits, the change kit having a plunger with an optical connector (110, 210), the plunger (108, 208) configured to be moveable between a first position and a second position, the plunger having the optical connector being operatively coupled to an optical interface of an integrated circuit when the plunger is in the second position; and at least one optical filter coupled to at least one optical detector, the at least one optical filter configured to be operatively coupled to the optical connector of the plunger, the at least one optical filter being uniquely associated with at least one wavelength for an optical fiber of the integrated circuit, the at least one optical detector being uniquely associated with at least one channel for the optical fiber of the integrated circuit. a change kit configured to adapt to different sizes of integrated circuits, the change kit having a plunger with an optical connector (110, 210), the plunger (108, 208) configured to be moveable between a first position and a second position, the plunger having the optical connector being operatively coupled to an optical interface of an integrated circuit when the plunger is in the second position; and at least one optical filter coupled to at least one optical detector, the at least one optical filter configured to be operatively coupled to the optical connector of the plunger, the at least one optical filter being uniquely associated with at least one wavelength for an optical fiber of the integrated circuit, the at least one optical detector being uniquely associated with at least one channel for the optical fiber of the integrated circuit.
Windowsill with an attachable end profile for connecting the windowsill to a window reveal, wherein the end profile comprises in cross section at least one first leg (2.1) and also a second leg (2.2) arranged at an angle, preferably at a right angle to the first leg (2.1), wherein furthermore the windowsill has at least one web, extending along one side edge for receiving the end profile and designed in cross section as substantially T- or double-T-shaped, and is designed as one piece with the windowsill or is connected in a force-fitting and/or form-fitting way to the windowsill, and wherein, when the end profile is attached, at least one leg (2.2) of the end profile contacts a leg of the web aligned parallel to the windowsill surface, characterized in that the windowsill comprises at least one elastic sealing element suitable as an extension compensating element, which is arranged on the web or on the end profile and, when the end profile is attached, abuts against the end profile and/or the web under pretension.
Integrated pump valve device for providing pressurized air, comprising: a. a DC motor with a commutator, the DC motor comprising a driving side and a commutator side, where the commutator is arranged, opposite to the driving side; b. a pump driven by the DC motor for providing pressurized air, wherein the pump is connected to the motor at the driving side; c. a PCB board comprising at least a circuit for EMC filtering, wherein the PCB board is electrically and mechanically connected to the motor at the commutator side; d. at least one valve (40, 40') for controlling the flow of the pressurized air, the at least one valve (40, 40') being in fluid connection with the pump; wherein e. the at least one valve (40, 40') is electrically and mechanically directly connected to the PCB board. a. a DC motor with a commutator, the DC motor comprising a driving side and a commutator side, where the commutator is arranged, opposite to the driving side; b. a pump driven by the DC motor for providing pressurized air, wherein the pump is connected to the motor at the driving side; c. a PCB board comprising at least a circuit for EMC filtering, wherein the PCB board is electrically and mechanically connected to the motor at the commutator side; d. at least one valve (40, 40') for controlling the flow of the pressurized air, the at least one valve (40, 40') being in fluid connection with the pump; e. the at least one valve (40, 40') is electrically and mechanically directly connected to the PCB board.
A reactor for manufacturing carbon black using the furnace black process, said reactor including: a combustion chamber for producing hot combustion gases, said combustion chamber comprising: • a fuel burner located along the operative longitudinal axis of said reactor; • an air inlet located orthogonal to said fuel burner for receiving combustion air; • flow guide means comprising a plurality of annular cylinders located along the operative longitudinal axis of said reactor positioned proximal to said fuel burner and between said fuel burner and said air inlet so as to be in the flow path of the combustion air for altering the flow path; and a reaction chamber located along the operative longitudinal axis of said reactor subsequent to said combustion chamber, said reaction chamber being adapted to receive the hot combustion gases from said combustion chamber and a carbonaceous feedstock to effect carbon black formation. a combustion chamber for producing hot combustion gases, said combustion chamber comprising: • a fuel burner located along the operative longitudinal axis of said reactor; • an air inlet located orthogonal to said fuel burner for receiving combustion air; • flow guide means comprising a plurality of annular cylinders located along the operative longitudinal axis of said reactor positioned proximal to said fuel burner and between said fuel burner and said air inlet so as to be in the flow path of the combustion air for altering the flow path; and • a fuel burner located along the operative longitudinal axis of said reactor; • an air inlet located orthogonal to said fuel burner for receiving combustion air; • flow guide means comprising a plurality of annular cylinders located along the operative longitudinal axis of said reactor positioned proximal to said fuel burner and between said fuel burner and said air inlet so as to be in the flow path of the combustion air for altering the flow path; and a reaction chamber located along the operative longitudinal axis of said reactor subsequent to said combustion chamber, said reaction chamber being adapted to receive the hot combustion gases from said combustion chamber and a carbonaceous feedstock to effect carbon black formation.
An erosion shield for a wind turbine blade, the erosion shield having an external surface exposed at a leading edge of the wind turbine blade characterised in that the erosion shield comprises: a plurality of layers of erosion resistant material, said plurality of layers arranged in a stack from an outermost layer substantially forming said external surface to an innermost layer arranged to be attached to a leading edge of a wind turbine blade, said plurality of layers bonded to adjacent layers in the stack, wherein said plurality of layers of erosion resistant material have a cohesive strength or tensile strength greater than the adhesive strength or bond strength between adjacent or subsequent layers, such that at least a section of an outermost exposed layer will delaminate or peel from said erosion shield under the action of wind when at least a portion of said section of said outermost exposed layer has been eroded or ruptured, to present a relatively smooth external surface of said erosion shield. a plurality of layers of erosion resistant material, said plurality of layers arranged in a stack from an outermost layer substantially forming said external surface to an innermost layer arranged to be attached to a leading edge of a wind turbine blade, said plurality of layers bonded to adjacent layers in the stack, wherein said plurality of layers of erosion resistant material have a cohesive strength or tensile strength greater than the adhesive strength or bond strength between adjacent or subsequent layers, such that at least a section of an outermost exposed layer will delaminate or peel from said erosion shield under the action of wind when at least a portion of said section of said outermost exposed layer has been eroded or ruptured, to present a relatively smooth external surface of said erosion shield.
A computer-implemented method for adjusting a hearing aid of a user, which hearing aid is adapted for processing sound signals based on sound processing parameters stored in the hearing aid, the method automatically being carried out by a fitting system and the method comprising: providing a user profile of the user comprising actual user information and a fitting history stored in a database of the fitting system, wherein the fitting history comprises fitting information (46, 46', 46") of at least one previous fitting session, in which previous fitting session the hearing aid or a different hearing aid was adjusted for the user; wherein the actual user information comprises an actual audiogram and the fitting history comprises a previous audiogram recorded in a previous fitting session; determining a user experience value of the user, wherein the user experience value depends on the actual user information and the fitting history; determining sound processing parameters for the hearing aid based on the user experience value; applying the determined sound processing parameters in the hearing aid, such that the hearing aid is adapted for generating optimized sound signals based on the applied sound processing parameters. providing a user profile of the user comprising actual user information and a fitting history stored in a database of the fitting system, wherein the fitting history comprises fitting information (46, 46', 46") of at least one previous fitting session, in which previous fitting session the hearing aid or a different hearing aid was adjusted for the user; wherein the actual user information comprises an actual audiogram and the fitting history comprises a previous audiogram recorded in a previous fitting session; determining a user experience value of the user, wherein the user experience value depends on the actual user information and the fitting history; determining sound processing parameters for the hearing aid based on the user experience value; applying the determined sound processing parameters in the hearing aid, such that the hearing aid is adapted for generating optimized sound signals based on the applied sound processing parameters.
A wetting composition comprising: water in an amount of at least 75% of the wetting composition; and a softening agent having the following structure: wherein x is at least 2 and is less than or equal to 50; wherein y is at least 1 and is less than 7; wherein z is at least 1 and is less than 5; wherein G 1 comprises -CH 2 CH 2 CH 2 -(C a H 2a O) b -H; and wherein G 2 comprises -CH 2 CH 2 CH 2 -OCH 2 -CH -CH 2. R 1, wherein R 1 is selected from the group consisting of: -NH-(CH 2) n -NH 2, -NH-(CH 2) n -NH-(CH 2) m -NH 2, N-piperidine, and N-3,3,5,5-tetramethyl-piperidine; wherein at least one G 1 unit is configured such that a equals 2 or 3; wherein at least one G 1 unit is configured such that b is at least 1 and is less than 25; wherein at least one G 2 unit is configured such that n in R 1 is at least 2 and is less than 7; and wherein at least one G 2 unit is configured such that m in R 1 is at least 2 and is less than 7. water in an amount of at least 75% of the wetting composition; and a softening agent having the following structure: wherein x is at least 2 and is less than or equal to 50; wherein y is at least 1 and is less than 7; wherein z is at least 1 and is less than 5; wherein G 1 comprises -CH 2 CH 2 CH 2 -(C a H 2a O) b -H; and wherein G 2 comprises -CH 2 CH 2 CH 2 -OCH 2 -CH -CH 2. R 1, wherein R 1 is selected from the group consisting of: -NH-(CH 2) n -NH 2, -NH-(CH 2) n -NH-(CH 2) m -NH 2, N-piperidine, and N-3,3,5,5-tetramethyl-piperidine; wherein at least one G 1 unit is configured such that a equals 2 or 3; wherein at least one G 1 unit is configured such that b is at least 1 and is less than 25; wherein at least one G 2 unit is configured such that n in R 1 is at least 2 and is less than 7; and wherein at least one G 2 unit is configured such that m in R 1 is at least 2 and is less than 7. wherein x is at least 2 and is less than or equal to 50; wherein y is at least 1 and is less than 7; wherein z is at least 1 and is less than 5; wherein G 1 comprises -CH 2 CH 2 CH 2 -(C a H 2a O) b -H; and wherein G 2 comprises -CH 2 CH 2 CH 2 -OCH 2 -CH -CH 2. R 1, wherein R 1 is selected from the group consisting of: -NH-(CH 2) n -NH 2, -NH-(CH 2) n -NH-(CH 2) m -NH 2, N-piperidine, and N-3,3,5,5-tetramethyl-piperidine; wherein at least one G 1 unit is configured such that a equals 2 or 3; wherein at least one G 1 unit is configured such that b is at least 1 and is less than 25; wherein at least one G 2 unit is configured such that n in R 1 is at least 2 and is less than 7; and wherein at least one G 2 unit is configured such that m in R 1 is at least 2 and is less than 7.
A method of limiting control pressure provided to an actuator of a valve coupled to a valve positioner (206, 306, 506, 606), the method comprising: providing a drive signal to a pneumatic stage (215, 216) of the valve positioner (206, 306, 506, 606), wherein the pneumatic stage (215, 216) is arranged to control output pressure of the valve positioner (206, 306, 506, 606) in accordance with the drive signal; obtaining a pressure measurement from a pressure sensor (224, 324, 524, 624) communicatively coupled to the valve positioner (206, 306, 506, 606); characterised by the method further comprising the steps of detecting an abnormal pressure based on the pressure measurement, the abnormal pressure being a pressure exceeding a predetermined threshold; and in response to detecting the abnormal pressure, controlling the drive signal so as to limit the output pressure of the valve positioner (206, 306, 506, 606), wherein the output pressure provides control pressure to the actuator. providing a drive signal to a pneumatic stage (215, 216) of the valve positioner (206, 306, 506, 606), wherein the pneumatic stage (215, 216) is arranged to control output pressure of the valve positioner (206, 306, 506, 606) in accordance with the drive signal; obtaining a pressure measurement from a pressure sensor (224, 324, 524, 624) communicatively coupled to the valve positioner (206, 306, 506, 606); characterised by the method further comprising the steps of detecting an abnormal pressure based on the pressure measurement, the abnormal pressure being a pressure exceeding a predetermined threshold; and in response to detecting the abnormal pressure, controlling the drive signal so as to limit the output pressure of the valve positioner (206, 306, 506, 606), wherein the output pressure provides control pressure to the actuator.