mhurhangee/ep-ind-claims huggingface dataset:
A method for software security, comprising: determining, during a firmware boot process of a computing system, after initializing the hardware and before loading the operating system, that a module (314-316, 332-336, 372-376) is to be loaded, the module being associated with module code; retrieving, from a repository (308, 328, 368) that is segregated from operating system access, frozen module information comprising identity information associated with the frozen module, the frozen module fingerprint, and the frozen module code or frozen module code location information; determining (404, 506, 604, 712, 806, 916), from the frozen module information, that the module is designated to be monitored for changes and restored if changes occur, and to be associated with a frozen module, the frozen module being associated with frozen module code; determining (406, 508, 606, 714, 808, 918) that a module fingerprint of the module fails to correspond with a frozen module fingerprint of the frozen module; and causing loading of the frozen module (408, 510, 612, 716, 814, 926) instead of the module (410, 512, 610, 718, 810, 920). determining, during a firmware boot process of a computing system, after initializing the hardware and before loading the operating system, that a module (314-316, 332-336, 372-376) is to be loaded, the module being associated with module code; retrieving, from a repository (308, 328, 368) that is segregated from operating system access, frozen module information comprising identity information associated with the frozen module, the frozen module fingerprint, and the frozen module code or frozen module code location information; determining (404, 506, 604, 712, 806, 916), from the frozen module information, that the module is designated to be monitored for changes and restored if changes occur, and to be associated with a frozen module, the frozen module being associated with frozen module code; determining (406, 508, 606, 714, 808, 918) that a module fingerprint of the module fails to correspond with a frozen module fingerprint of the frozen module; and causing loading of the frozen module (408, 510, 612, 716, 814, 926) instead of the module (410, 512, 610, 718, 810, 920).
A system comprising: a fabric of processing elements, each processing element comprising a fabric router coupled to a compute element, the fabric of processing elements enabled to perform dataflow-based processing and instruction-based processing; wherein each processing element is enabled to selectively communicate fabric packets with others of the processing elements at least in part via the fabric router of the respective processing element; and wherein each compute element comprises a memory and is enabled to decode an instruction, the instruction comprising an operand field (2513, 2514), access an operand descriptor (2100, 2120) based at least in part on the operand field, decode the operand descriptor to determine a particular one of a plurality of types the operand descriptor refers to, the plurality of types comprising a fabric type and a memory type, access an operand in accordance with the operand descriptor and the particular type (2412, 2427-2429), wherein the access of the operand is via the respective fabric router coupled to the compute element when the particular type is the fabric type, and wherein the access of the operand is via the memory when the particular type is the memory type. a fabric of processing elements, each processing element comprising a fabric router coupled to a compute element, the fabric of processing elements enabled to perform dataflow-based processing and instruction-based processing; wherein each processing element is enabled to selectively communicate fabric packets with others of the processing elements at least in part via the fabric router of the respective processing element; and wherein each compute element comprises a memory and is enabled to decode an instruction, the instruction comprising an operand field (2513, 2514), access an operand descriptor (2100, 2120) based at least in part on the operand field, decode the operand descriptor to determine a particular one of a plurality of types the operand descriptor refers to, the plurality of types comprising a fabric type and a memory type, access an operand in accordance with the operand descriptor and the particular type (2412, 2427-2429), wherein the access of the operand is via the respective fabric router coupled to the compute element when the particular type is the fabric type, and wherein the access of the operand is via the memory when the particular type is the memory type. decode an instruction, the instruction comprising an operand field (2513, 2514), access an operand descriptor (2100, 2120) based at least in part on the operand field, decode the operand descriptor to determine a particular one of a plurality of types the operand descriptor refers to, the plurality of types comprising a fabric type and a memory type, access an operand in accordance with the operand descriptor and the particular type (2412, 2427-2429), wherein the access of the operand is via the respective fabric router coupled to the compute element when the particular type is the fabric type, and wherein the access of the operand is via the memory when the particular type is the memory type.
A liquid jet guided laser system for processing a workpiece comprising a laser for emitting a laser beam; a nozzle module, wherein the nozzle module is configured to be connected to a liquid supply line for forming a liquid jet; an optical element for coupling the laser beam into the liquid jet; an air jet module, wherein the air jet module is coupled to the nozzle module, wherein the air jet module comprises an inner wall and an outer wall, wherein the inner wall forms a first conduit for accepting the liquid jet to pass through, wherein the inner wall and outer wall form a second conduit surrounding the first conduit, wherein the outer wall comprises a gas inlet for connecting to a gas supply line for forming a gas flow through the second conduit, wherein the gas flow passing through the air jet module surrounds the liquid jet, wherein the air jet and the liquid jet are configured to be guided toward a workpiece characterized in that the inner wall comprises at least a hole to provide fluid communication between the first conduit and the second conduit for vacuum compensation. a laser for emitting a laser beam; a nozzle module, wherein the nozzle module is configured to be connected to a liquid supply line for forming a liquid jet; an optical element for coupling the laser beam into the liquid jet; an air jet module, wherein the air jet module is coupled to the nozzle module, wherein the air jet module comprises an inner wall and an outer wall, wherein the inner wall forms a first conduit for accepting the liquid jet to pass through, wherein the inner wall and outer wall form a second conduit surrounding the first conduit, wherein the outer wall comprises a gas inlet for connecting to a gas supply line for forming a gas flow through the second conduit, wherein the gas flow passing through the air jet module surrounds the liquid jet, wherein the air jet and the liquid jet are configured to be guided toward a workpiece characterized in that the inner wall comprises at least a hole to provide fluid communication between the first conduit and the second conduit for vacuum compensation. wherein the air jet module is coupled to the nozzle module, wherein the air jet module comprises an inner wall and an outer wall, wherein the inner wall forms a first conduit for accepting the liquid jet to pass through, wherein the inner wall and outer wall form a second conduit surrounding the first conduit, wherein the outer wall comprises a gas inlet for connecting to a gas supply line for forming a gas flow through the second conduit, wherein the gas flow passing through the air jet module surrounds the liquid jet, wherein the air jet and the liquid jet are configured to be guided toward a workpiece characterized in that the inner wall comprises at least a hole to provide fluid communication between the first conduit and the second conduit for vacuum compensation.
A compound represented by the formula: wherein: R 1, R 2 and R 3 are H or OH; R 4 is H, OH, alkyl, or O-alkyl; R 5 is O or NH; and R 6 is H, OH, or a sugar moiety. R 1, R 2 and R 3 are H or OH; R 4 is H, OH, alkyl, or O-alkyl; R 5 is O or NH; and R 6 is H, OH, or a sugar moiety.
A thrust control system for use with aircraft characterized in that the thrust control system comprises: a sensor configured to measure a crosswind speed; and a thrust ramping manager configured to compare the measured crosswind speed to a crosswind threshold range, the thrust ramping manager configured to activate a partial thrust ramping schedule during takeoff when the measured crosswind speed is within the crosswind threshold range, the partial thrust ramping schedule being selected from a plurality of thrust ramping schedules (402, 404, 406, 408). a sensor configured to measure a crosswind speed; and a thrust ramping manager configured to compare the measured crosswind speed to a crosswind threshold range, the thrust ramping manager configured to activate a partial thrust ramping schedule during takeoff when the measured crosswind speed is within the crosswind threshold range, the partial thrust ramping schedule being selected from a plurality of thrust ramping schedules (402, 404, 406, 408).
An automatic coffee machine with a mains water connection and further comprising a water tank, a pump, a brewing unit, a coffee line with a spout and an automatic drainage system, wherein a water amount is calculated based on a consumer behavior by a calculating system of the coffee machine which calculates the water amount based on information from a flow meter and the water tank is filled up with a variable amount of water depending on the data received from the calculating system and the water tank is automatically emptied after each deactivation of the coffee machine and/or is automatically refilled after each activation of the coffee machine.
An aerosol composition for personal hygiene, containing - at least one propellant and - at least one composition A, which contains a) at least one ester, which is formed of at least one linear or branched, saturated or unsaturated alcohol having from 4 to 30 carbon atoms and at least one linear or branched, saturated or unsaturated carboxylic acid having from 8 to 30 carbon atoms, and b) at least one ester, which is formed of at least one C 2 -C 7 monocarboxylic acid, dicarboxylic acid or tricarboxylic acid, which may contain one or more hydroxyl groups, and at least one linear or branched, saturated or unsaturated alcohol having from 1 to 30 carbon atoms, characterized in that composition A contains no more than 2 wt.% of free water, based on the total weight of composition A, and in that the weight ratio of esters a): b) in composition A is from 3.5: 1 to 1.5: 1. - at least one propellant and - at least one composition A, which contains a) at least one ester, which is formed of at least one linear or branched, saturated or unsaturated alcohol having from 4 to 30 carbon atoms and at least one linear or branched, saturated or unsaturated carboxylic acid having from 8 to 30 carbon atoms, and b) at least one ester, which is formed of at least one C 2 -C 7 monocarboxylic acid, dicarboxylic acid or tricarboxylic acid, which may contain one or more hydroxyl groups, and at least one linear or branched, saturated or unsaturated alcohol having from 1 to 30 carbon atoms, a) at least one ester, which is formed of at least one linear or branched, saturated or unsaturated alcohol having from 4 to 30 carbon atoms and at least one linear or branched, saturated or unsaturated carboxylic acid having from 8 to 30 carbon atoms, and b) at least one ester, which is formed of at least one C 2 -C 7 monocarboxylic acid, dicarboxylic acid or tricarboxylic acid, which may contain one or more hydroxyl groups, and at least one linear or branched, saturated or unsaturated alcohol having from 1 to 30 carbon atoms,
A method of operating a geothermal energy system comprising a plurality of borehole heat exchangers, each borehole heat exchanger containing a working fluid and comprising an elongate tube having a closed bottom end, the method including the step of: simultaneously selectively using at least one first borehole heat exchanger as a heat source and at least one second borehole heat exchanger as a heat sink.
A waterproof structure comprising a pair of housings for a connector which prevents that water is infiltrated into openings of terminal accommodating cavities (29, 69) which are respectively formed in the pair of housings (17, 19) fitted to each other, wherein one of the pair of the housings (17, 19) includes: a base part formed with the terminal accommodating cavity; a hood part protruding forward from the base part; and an annular member having a cylindrical shape and protruding forward to surround the opening at an inner side of the hood from a circumferential edge of the opening formed at a front end surface of the base part surrounded by the hood part, wherein the annular member is a resin member and is formed to have a spring property, the other of the pair of the housings (17, 19) includes: a base part formed to have a similar shape to an inner circumferential surface of the hood part and formed with the terminal accommodating cavity; and an annular member having a cylindrical shape and protruding forward to surround the opening from a circumferential edge of the opening formed at a front end surface of the base part, the annular member of one housing being inserted into an annulus of the annular member of the other housing at a time of fitting, and at least one annular member includes a protrusion part which is an annular protrusion part (105, 109, 123, 131, 137) protruding toward the other annular member and has a top part which is pressed by a surface of the other annular member at the time of fitting. a base part formed with the terminal accommodating cavity; a hood part protruding forward from the base part; and an annular member having a cylindrical shape and protruding forward to surround the opening at an inner side of the hood from a circumferential edge of the opening formed at a front end surface of the base part surrounded by the hood part, wherein the annular member is a resin member and is formed to have a spring property, the other of the pair of the housings (17, 19) includes: a base part formed to have a similar shape to an inner circumferential surface of the hood part and formed with the terminal accommodating cavity; and an annular member having a cylindrical shape and protruding forward to surround the opening from a circumferential edge of the opening formed at a front end surface of the base part, a base part formed to have a similar shape to an inner circumferential surface of the hood part and formed with the terminal accommodating cavity; and an annular member having a cylindrical shape and protruding forward to surround the opening from a circumferential edge of the opening formed at a front end surface of the base part,
Method to securely load a set of sensitive data hardware registers with sensitive data for the execution of a program having a given functionality on a chip supporting hardware cryptography operations, said method comprising the following steps monitored by software instructions, at each run of a software: select a set (ARs) of available hardware registers listed in a predefined list listing, in the chip architecture, the hardware registers which remains unused or not sensitive for the implementation of the functionality of the program when loaded, establish an indexible register list of addresses of the sensitive data hardware registers and of the hardware registers in the set (ARs) of available hardware registers, in a loop, write each hardware register in this register list with random data, a random number of times, in random order except the last writing in each of the sensitive data hardware registers where a part of the sensitive data is written. select a set (ARs) of available hardware registers listed in a predefined list listing, in the chip architecture, the hardware registers which remains unused or not sensitive for the implementation of the functionality of the program when loaded, establish an indexible register list of addresses of the sensitive data hardware registers and of the hardware registers in the set (ARs) of available hardware registers, in a loop, write each hardware register in this register list with random data, a random number of times, in random order except the last writing in each of the sensitive data hardware registers where a part of the sensitive data is written.
A LED module formed of an integrated driver and a light emitting diode comprising: a vertical light emitting diode having a top LED conducting surface and a bottom LED conducting surface; and a vertical transistor in series with the LED, the transistor having a first terminal, a second terminal, and a third terminal, the first terminal being a bottom conducting surface of the transistor, the bottom conducting surface of the transistor being electrically and mechanically bonded to the top LED conducting surface by a conductive bonding layer (28,30), the LED and transistor being substantially the same size, the LED being configured to emit light when a first voltage is applied to the bottom LED conducting surface, a second voltage is applied to the second terminal, and a first control voltage is applied to the third terminal. a vertical light emitting diode having a top LED conducting surface and a bottom LED conducting surface; and a vertical transistor in series with the LED, the transistor having a first terminal, a second terminal, and a third terminal, the first terminal being a bottom conducting surface of the transistor, the bottom conducting surface of the transistor being electrically and mechanically bonded to the top LED conducting surface by a conductive bonding layer (28,30), the LED and transistor being substantially the same size, the LED being configured to emit light when a first voltage is applied to the bottom LED conducting surface, a second voltage is applied to the second terminal, and a first control voltage is applied to the third terminal.
Method for checking interference in an apparatus, the apparatus being provided with a plurality of moving bodies (1, 2, 3, 4, 6, 7, 9), capable of moving in a predetermined direction, moving means for moving said plurality of moving bodies, and another moving means for moving at least one of said moving bodies in the same axial line direction as one of the moving means, and an interference check is conducted, when said at least one of said moving bodies is moved, comprising the steps of: designating a moving body, which has a possibility to be interfered, and inputting moving axes of said moving body; inputting moving axes of a plurality of moving axes of other moving bodies; judging whether among axial line directions of the plurality of moving axes for moving the other moving bodies, an axial line direction being the same as an axial line direction of the at least one moving body is present, and if judgment is made that such an axial line direction of the plurality of moving axes is present, synthesizing the movement amounts in said axial line direction of the plurality of moving axes, thereby obtaining an absolute movement amount in said axial line direction; and conducting an interference check from the absolute movement amount. designating a moving body, which has a possibility to be interfered, and inputting moving axes of said moving body; inputting moving axes of a plurality of moving axes of other moving bodies; judging whether among axial line directions of the plurality of moving axes for moving the other moving bodies, an axial line direction being the same as an axial line direction of the at least one moving body is present, and if judgment is made that such an axial line direction of the plurality of moving axes is present, synthesizing the movement amounts in said axial line direction of the plurality of moving axes, thereby obtaining an absolute movement amount in said axial line direction; and conducting an interference check from the absolute movement amount.
A method for manufacturing a security element having an optically variable pattern in a sheet-fed printing press, in which - a print sheet is fed within the sheet-fed printing press by means of conveyor systems to rotary gripper systems in a gripper closure through at least one printing unit (44-1, 44-2) and an embossing unit, - the print sheet in the at least one printing unit (44-1, 44-2) is furnished with a coating having a repeating pattern (22-1, 22-2), and - the print sheet in the embossing unit is furnished with a finely textured embossing pattern, - the finely textured embossing pattern and the coating being produced in register with each other on the print sheet by the guidance of the print sheet in the gripper closure and forming the optically variable pattern of the security element to be manufactured. - a print sheet is fed within the sheet-fed printing press by means of conveyor systems to rotary gripper systems in a gripper closure through at least one printing unit (44-1, 44-2) and an embossing unit, - the print sheet in the at least one printing unit (44-1, 44-2) is furnished with a coating having a repeating pattern (22-1, 22-2), and - the print sheet in the embossing unit is furnished with a finely textured embossing pattern, - the finely textured embossing pattern and the coating being produced in register with each other on the print sheet by the guidance of the print sheet in the gripper closure and forming the optically variable pattern of the security element to be manufactured.
Closure or concealment device for a construction, said device comprising motorized drive means for moving said device between an open position and a closed or concealed position, and a plurality of portions (3; 3') which are articulated in pairs, including an end portion, which end portion is intended to be positioned at least near a threshold of an opening of a construction equipped with such a device and comprises at least one cavity that internally comprises at least part of the motorized drive means, characterized in that said device comprises: - a detection system for detecting an obstacle in the path of said device, said detection system comprising a locking means, which is movable between an inactive locking position and an active locking position, at least one complementary locking means, which is designed to interact with the motorized drive means and with the locking means when said locking means is in the active locking position, and an actuation means, which is designed to actuate the movement of the locking means from the inactive locking position to the active locking position if such an actuation means makes contact with an obstacle; - and control means for stopping the motorized drive means from driving the device if such an obstacle is detected by the detection system. - a detection system for detecting an obstacle in the path of said device, said detection system comprising a locking means, which is movable between an inactive locking position and an active locking position, at least one complementary locking means, which is designed to interact with the motorized drive means and with the locking means when said locking means is in the active locking position, and an actuation means, which is designed to actuate the movement of the locking means from the inactive locking position to the active locking position if such an actuation means makes contact with an obstacle; - and control means for stopping the motorized drive means from driving the device if such an obstacle is detected by the detection system.