mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit device for controlling a plurality of LIN slave nodes based on a control signal transmitted by a LIN master control device, comprising: - a slave node circuit comprising a first data line terminal for connecting to a first Local Interconnect Network, LIN, data line and a first LIN protocol controller operably connected to said first data line terminal, said slave node circuit being adapted for processing said control signal when received in the form of a LIN message frame via said first data line terminal, - a master node circuit comprising a second data line terminal for connecting to a second LIN data line and a second LIN protocol controller operably connected to said second data line terminal, said master node circuit being adapted for processing further control signals to be transmitted in the form of LIN message frames via said second data line terminal to said plurality of LIN slave nodes, - a processing unit for controlling said plurality of LIN slave nodes based on said control signal, wherein said controlling of said plurality of LIN slave nodes comprises composing said further control signals for controlling an electrical load and/or a sensor function connected to, or integrated in, each of the plurality of LIN slave nodes in accordance with said further control signals, and - at least one load terminal for connecting to a local electrical load to be controlled, said processing unit being furthermore adapted for controlling a voltage and/or current to be supplied via said at least one load terminal in response to said control signal. - a slave node circuit comprising a first data line terminal for connecting to a first Local Interconnect Network, LIN, data line and a first LIN protocol controller operably connected to said first data line terminal, said slave node circuit being adapted for processing said control signal when received in the form of a LIN message frame via said first data line terminal, - a master node circuit comprising a second data line terminal for connecting to a second LIN data line and a second LIN protocol controller operably connected to said second data line terminal, said master node circuit being adapted for processing further control signals to be transmitted in the form of LIN message frames via said second data line terminal to said plurality of LIN slave nodes, - a processing unit for controlling said plurality of LIN slave nodes based on said control signal, wherein said controlling of said plurality of LIN slave nodes comprises composing said further control signals for controlling an electrical load and/or a sensor function connected to, or integrated in, each of the plurality of LIN slave nodes in accordance with said further control signals, and - at least one load terminal for connecting to a local electrical load to be controlled, said processing unit being furthermore adapted for controlling a voltage and/or current to be supplied via said at least one load terminal in response to said control signal.
Method for the positionally accurate automatic addressing of bus subscribers in a differential two-wire data bus system, wherein the bus subscribers are linearly arranged along a two-wire data bus and are respectively connected to a first single-wire data bus or to a first supply line by way of a first connection and are connected to a second single-wire data bus of the two-wire data bus or to a second supply line by way of a second connection, and a bus master is arranged at the start of the two-wire data bus and a termination resistor is arranged at least at the end of the two-wire data bus, wherein the bus master and the termination resistor respectively connect the first single-wire data bus and the second single-wire data bus to one another, the method having the following steps of: - signalling, by means of the bus master, an auto addressing mode to the bus subscribers which set the auto addressing mode; - feeding a first addressing current into the first single-wire data bus or into the first supply line; - measuring a first continuous voltage drop along the first single-wire data bus or along the first supply line from the bus master to the termination resistor; and - capturing, by means of the respective bus subscriber, a differential voltage value from the first voltage drop with respect to a reference potential locally at the location of the bus subscribers, and - transmitting the differential voltage value to the bus master, wherein the differential voltage value is used to determine a position of the bus subscribers locally along the two-wire data bus and the bus master assigns a respective bus node address to the respective bus subscribers. - signalling, by means of the bus master, an auto addressing mode to the bus subscribers which set the auto addressing mode; - feeding a first addressing current into the first single-wire data bus or into the first supply line; - measuring a first continuous voltage drop along the first single-wire data bus or along the first supply line from the bus master to the termination resistor; and - capturing, by means of the respective bus subscriber, a differential voltage value from the first voltage drop with respect to a reference potential locally at the location of the bus subscribers, and - transmitting the differential voltage value to the bus master, wherein the differential voltage value is used to determine a position of the bus subscribers locally along the two-wire data bus and the bus master assigns a respective bus node address to the respective bus subscribers.
A magnetism measuring method in which a magnetic material having a sheet shape is magnetized with a direct current in a rolling direction to a rotational magnetization region and an alternate current excitation is performed in a widthwise direction, which is a direction orthogonal to the rolling direction, having a component orthogonal to a direction of the direct current magnetization, and a component of an alternate current magnetic field, which is generated by an interaction between the alternate current excitation and the magnetic material in a widthwise direction orthogonal to the direction of the direct current magnetization, is measured.
Control device for a parking brake 26) of a motor vehicle comprising a powertrain equipped with at least one motor chosen from among an electric machine, a hydraulic motor and a pneumatic motor, a module for controlling the parking brake that is able to block the movement of a drivetrain element of the vehicle, a control interface with a user, a detection module capable of detecting an intention by the driver to lock the parking brake and an intention by the driver to unlock the parking brake, and unloading means (80, 16) which comprise said motor and are able to provide a force to a second drivetrain element during the unlocking of the parking brake, the unloading means further comprising a determination module for determining parameters relating to the motor vehicle and/or parameters relating to a powertrain of the motor vehicle, the unloading means (80, 16) comprising a computing module capable of determining the force to be applied to the drivetrain element as a function of the parameters determined by the determination module, characterized in that the determination module comprises a braking torque evaluation module capable of evaluating a braking torque (C Transmitted) transmitted on the input side of the reduction gear and applied immediately before the locking of the parking brake, and a storage module capable of storing the braking torque (C Transmitted) evaluated by the evaluation module, and a reinitialization module capable of reinitializing the storage module.
A chemically amplified positive resist dry film to be formed on a support film, comprising 10 to 35% by weight of a component having a boiling point of 55 to 250°C under atmospheric pressure, the component being an organic solvent, a polymer which turns soluble in alkaline aqueous solution under the action of acid, the polymer being prepared from a phenol monomer, a monomer having an ethylenically unsaturated double bond, a styrene monomer or an acrylate monomer, and a photoacid generator capable of generating an acid in response to radiation or actinic light, so that the resist dry film may dissolve in alkaline aqueous solution upon receipt or radiation or actinic light.
A method for verifying an application data modification comprising: detecting modified application data in a computing device; requesting a challenge-response test from a signing server to determine that the modified application data did not originate from an automatic program; sending an identifier and the modified application data to the signing server in response to a correct response to the challenge-response test; receiving encrypted data comprising the identifier and the modified application data from the signing server; and storing the encrypted data in the computing device to detect future modified application data by decrypting the encrypted data and comparing the stored application data to the current application data. detecting modified application data in a computing device; requesting a challenge-response test from a signing server to determine that the modified application data did not originate from an automatic program; sending an identifier and the modified application data to the signing server in response to a correct response to the challenge-response test; receiving encrypted data comprising the identifier and the modified application data from the signing server; and storing the encrypted data in the computing device to detect future modified application data by decrypting the encrypted data and comparing the stored application data to the current application data.
A system, comprising: a reference voltage generator (207; 307) configured to generate a reference voltage based on a power supply voltage, a power-up voltage generator (209; 409) configured to generate a power-up voltage based on the power supply voltage, and a ready signal generator (211; 511) configured to generate a replicated voltage based on the power supply voltage, wherein the ready signal generator (211; 511) comprises a current mirror configured to generate the replicated voltage, the current mirror comprising a diode; and a logic sub-component (214; 612) coupled to the reference voltage generator (207; 307) and configured to output a reset signal based on: determination that the reference voltage has reached a voltage level of the power-up voltage; and an indication that the reference voltage has entered a steady state and is reliable as a measurement with respect to a voltage level of the power supply voltage, wherein the indication is determined based on a comparison of the replicated voltage to a particular threshold voltage level, and wherein the particular threshold voltage level corresponds to a threshold voltage level of a logic gate coupled to an output of the current mirror. a reference voltage generator (207; 307) configured to generate a reference voltage based on a power supply voltage, a power-up voltage generator (209; 409) configured to generate a power-up voltage based on the power supply voltage, and a ready signal generator (211; 511) configured to generate a replicated voltage based on the power supply voltage, wherein the ready signal generator (211; 511) comprises a current mirror configured to generate the replicated voltage, the current mirror comprising a diode; and a logic sub-component (214; 612) coupled to the reference voltage generator (207; 307) and configured to output a reset signal based on: determination that the reference voltage has reached a voltage level of the power-up voltage; and an indication that the reference voltage has entered a steady state and is reliable as a measurement with respect to a voltage level of the power supply voltage, wherein the indication is determined based on a comparison of the replicated voltage to a particular threshold voltage level, and wherein the particular threshold voltage level corresponds to a threshold voltage level of a logic gate coupled to an output of the current mirror. determination that the reference voltage has reached a voltage level of the power-up voltage; and an indication that the reference voltage has entered a steady state and is reliable as a measurement with respect to a voltage level of the power supply voltage, wherein the indication is determined based on a comparison of the replicated voltage to a particular threshold voltage level, and wherein the particular threshold voltage level corresponds to a threshold voltage level of a logic gate coupled to an output of the current mirror.
A locking element configured to be used with a polyaxial bone anchor, wherein the bone anchor comprises a head with a spherical exterior surface portion including a largest diameter (d); the locking element being substantially cylindrical with a bottom side facing a head of the bone anchor, a top side opposite to the bottom side, and a surface portion with an external thread; wherein, the locking element has a first recess (52, 52") at the bottom side for accommodating at least a portion of the head, and a second recess (S3, 53', 53''') at the top side for engagement with a driver, the second recess being located outside the center of the top side, and wherein the head has a portion with a largest diameter (d), and a first level L1 is defined by the highest point of a circle with the largest diameter drawn around the head, and a second level L2 is defined by the bottom of the second recess, L2 being at a level not higher than L1, wherein the second recess (53, 53') comprises a ring-shaped groove with a contour configured to have form-fitting engagement with the driver. wherein, the locking element has a first recess (52, 52") at the bottom side for accommodating at least a portion of the head, and a second recess (S3, 53', 53''') at the top side for engagement with a driver, the second recess being located outside the center of the top side, and wherein the head has a portion with a largest diameter (d), and a first level L1 is defined by the highest point of a circle with the largest diameter drawn around the head, and a second level L2 is defined by the bottom of the second recess, L2 being at a level not higher than L1,
A wireless access system comprising: an authentication server (5A, 6); a first access point apparatus (1A, 1) arranged to store authentication information that authenticates the first access point apparatus (1A, 1) to the authentication server (5A, 6); and a second access point apparatus (2A, 2) arranged: i) to access said first access point apparatus (1A, 1) based on an address stored in advance, ii) to acquire and store said authentication information from said first access point apparatus (1A, 1), and iii) to transmit said authentication information to a network (4A, 5) when requesting an authentication; wherein the authentication server (5A, 6) is arranged to authenticate said second access point apparatus (2A, 2) based on said authentication information received from said second access point apparatus (2A, 2) via said network and based on authentication information of said first access point apparatus (1A, 1) stored in advance in said authentication server an authentication server (5A, 6); a first access point apparatus (1A, 1) arranged to store authentication information that authenticates the first access point apparatus (1A, 1) to the authentication server (5A, 6); and a second access point apparatus (2A, 2) arranged: i) to access said first access point apparatus (1A, 1) based on an address stored in advance, ii) to acquire and store said authentication information from said first access point apparatus (1A, 1), and iii) to transmit said authentication information to a network (4A, 5) when requesting an authentication; wherein the authentication server (5A, 6) is arranged to authenticate said second access point apparatus (2A, 2) based on said authentication information received from said second access point apparatus (2A, 2) via said network and based on authentication information of said first access point apparatus (1A, 1) stored in advance in said authentication server
Tool steel, in particular a hot-work steel, with the composition: 0.26 to 0.55 % by weight C or 0.25 to 1% by weight C and N and B in total; < 2 % by weight Cr; 0.5 to 10 % by weight Mo; 0 to 15 % by weight W; wherein the content of W and Mo is 1.8 to 15 % by weight in total; carbide-forming elements Ti, Zr, Hf, Nb, Ta with a content of 0 to 3 % by weight individually or in total; 0 to 4 % by weight V; 0 to 6 % by weight Co; 0 to 1.6 % by weight Si; 0 to 2 % by weight Mn; 0 to 2.99 % by weight Ni; 0 to 1 % by weight S; Remainder: iron and unavoidable impurities, wherein the unavoidable impurities include one or more of the elements Cu, P, Bi, Ca, As, Sn or Pb with a content of not more than1 % by weight, individually or in total, characterized in that the tool steel has a thermal conductivity at room temperature of more than 42 W/mK, preferably of more than 48 W/mK, in particular of more than 55 W/mK. 0.26 to 0.55 % by weight C or 0.25 to 1% by weight C and N and B in total; < 2 % by weight Cr; 0.5 to 10 % by weight Mo; 0 to 15 % by weight W; wherein the content of W and Mo is 1.8 to 15 % by weight in total; carbide-forming elements Ti, Zr, Hf, Nb, Ta with a content of 0 to 3 % by weight individually or in total; 0 to 4 % by weight V; 0 to 6 % by weight Co; 0 to 1.6 % by weight Si; 0 to 2 % by weight Mn; 0 to 2.99 % by weight Ni; 0 to 1 % by weight S; Remainder: iron and unavoidable impurities, wherein the unavoidable impurities include one or more of the elements Cu, P, Bi, Ca, As, Sn or Pb with a content of not more than1 % by weight, individually or in total,
Roll ring arrangement with a roll ring and a roll shaft, on which the roll ring is arranged to be secure against relative rotation and has a threaded region which as seen towards the free end of the roll shaft is disposed axially adjacent to the roll ring, wherein a nut screwed onto the threaded region exerts an axial stress on the roll ring, wherein arranged between the roll ring and the threaded region is a sleeve-like clamping element, which is formed with a front collar facing the threaded region and a rear collar, wherein on the one hand the rear collar bears against the roll ring with a friction couple and on the other hand a splined shaft profile, which is formed in the middle section between the two collars (13, 17), of the clamping element is arranged in mechanically coupled manner on a splined shaft profile of the roll shaft, wherein the sleeve-like clamping element can be loaded by the clamping nut, which is screwed onto the threaded region, towards the roll ring, characterised in that an intermediate ring, which in the sleeve-like clamping element is arranged concentrically on the roll shaft in a receiving section and which is surrounded by the front collar, and a spring means, preferably consisting of at least two plate springs, in a free space, which is radially and axially bounded by the intermediate ring and the middle section of the clamping element, of the receiving section are associated with the clamping nut for clamping force transmission.
A method for mounting a supporting element to a drawer pull out guide, the drawer pull-out guide including: - a first guide rail and at least a second guide rail displaceably supported relative to each other, - at least one supporting element arranged on a first guide rail for at least temporarily supporting on the second guide rail, - wherein the position of the at least one supporting element relative to the second guide rail is adjustable by an adjustment device, and is fixable relative to the first guide rail after adjustment of the position has been made, - wherein the at least one supporting element is adjustable in a height direction by the adjustment device in the mounted position of the drawer pull-out guide, wherein the method includes the following steps: - arranging the supporting element on the first guide rail of the drawer pull-out guide, - adjusting the supporting element at a predetermined position relative to the second guide rail with the aid of the adjustment device, - fixing the supporting element relative to the first guide rail, wherein the method is characterized by the following step: - firstly moving the supporting element, for adjusting the predetermined position, in a first movement direction until the supporting element abuts against the second guide rail, and is subsequently moved back in a second movement direction, opposite the first movement direction, by a predetermined amount until the supporting element is positioned with a predetermined play relative to the second guide rail, thereby reaching the predetermined position. - a first guide rail and at least a second guide rail displaceably supported relative to each other, - at least one supporting element arranged on a first guide rail for at least temporarily supporting on the second guide rail, - wherein the position of the at least one supporting element relative to the second guide rail is adjustable by an adjustment device, and is fixable relative to the first guide rail after adjustment of the position has been made, - wherein the at least one supporting element is adjustable in a height direction by the adjustment device in the mounted position of the drawer pull-out guide, - arranging the supporting element on the first guide rail of the drawer pull-out guide, - adjusting the supporting element at a predetermined position relative to the second guide rail with the aid of the adjustment device, - fixing the supporting element relative to the first guide rail, - firstly moving the supporting element, for adjusting the predetermined position, in a first movement direction until the supporting element abuts against the second guide rail, and is subsequently moved back in a second movement direction, opposite the first movement direction, by a predetermined amount until the supporting element is positioned with a predetermined play relative to the second guide rail, thereby reaching the predetermined position.