mhurhangee/ep-ind-claims huggingface dataset:
Protective device for monitoring the appliance temperature of an appliance, particularly for monitoring the appliance temperature of a transformer, of a motor or of a generator, - having a temperature measured variable input for inputting an appliance temperature measured variable indicating the appliance temperature and a control device connected to the temperature measured variable input, - where the control device has a control output (S50a) for outputting a cooling activation signal and is in a form such that when the appliance temperature exceeds a prescribed cooling activation temperature value it produces the cooling activation signal and when a prescribed switch-off temperature value, which is greater than the cooling activation temperature value, is exceeded it produces a switch-off signal for switching off the appliance, characterized in that - the control device is in a form such that when the cooling activation signal has been produced it changes to a cooling mode of operation, - where, in the cooling mode of operation, it additionally checks whether the appliance temperature exceeds a limit temperature value prescribed for the cooling mode, which is less than the switch-off temperature value, and if the limit temperature value is exceeded then it produces the switch-off signal. - having a temperature measured variable input for inputting an appliance temperature measured variable indicating the appliance temperature and a control device connected to the temperature measured variable input, - where the control device has a control output (S50a) for outputting a cooling activation signal and is in a form such that when the appliance temperature exceeds a prescribed cooling activation temperature value it produces the cooling activation signal and when a prescribed switch-off temperature value, which is greater than the cooling activation temperature value, is exceeded it produces a switch-off signal for switching off the appliance, - the control device is in a form such that when the cooling activation signal has been produced it changes to a cooling mode of operation, - where, in the cooling mode of operation, it additionally checks whether the appliance temperature exceeds a limit temperature value prescribed for the cooling mode, which is less than the switch-off temperature value, and if the limit temperature value is exceeded then it produces the switch-off signal.
A mobile device adapted for use with a computing platform to create a secure computing environment for a user when operatively coupled thereto, comprising: a CPU comprising one or more processors; a computer-readable medium containing instructions which, when executed by the one or more processors, implement an OS for the mobile device; and a trusted core that is implemented using a portion of the CPU and a portion of the OS, the trusted core being configured to suspend the operations on the computing platform and to take over control of the computing platform's internal peripheral components in order to gain access to the computing platform's software code to perform an integrity check of the computing platform's software code. a CPU comprising one or more processors; a computer-readable medium containing instructions which, when executed by the one or more processors, implement an OS for the mobile device; and a trusted core that is implemented using a portion of the CPU and a portion of the OS, the trusted core being configured to suspend the operations on the computing platform and to take over control of the computing platform's internal peripheral components in order to gain access to the computing platform's software code to perform an integrity check of the computing platform's software code.
A manufacture method of the membrane-electrode assembly comprising an electrolyte membrane; a pair of catalyst layers facing each other sandwiching the electrolyte membrane; and a pair of gas diffusion layers facing each other sandwiching the electrolyte membrane and the pair of catalyst layers, wherein at least one of the pair of catalyst layers includes unwoven cloth comprising fiber-like structures each having proton conduction performance, and a portion of the unwoven cloth is buried in the electrolyte membrane adjacent to the catalyst layer including the unwoven cloth, the method comprising: forming the unwoven cloth on a surface of an undried electrolyte solution that includes materials of the electrolyte membrane; forming the electrolyte membrane having a portion of the unwoven cloth buried therein, by drying the electrolyte solution; and forming the catalyst layer to cover another portion of the unwoven cloth. forming the unwoven cloth on a surface of an undried electrolyte solution that includes materials of the electrolyte membrane; forming the electrolyte membrane having a portion of the unwoven cloth buried therein, by drying the electrolyte solution; and forming the catalyst layer to cover another portion of the unwoven cloth.
A method of shifting a vehicle transmission including a first clutching device and a second clutching device, wherein at least a portion of the first clutching device is coupled with or configured to be coupled with at least a portion of the second clutching device, the method including the steps of: engaging the second clutching device, wherein engaging the second clutching device includes controlling a state of the second clutching device by changing a state of the first clutching device; determining a first torque transmission direction between a power source of the vehicle and the transmission of the vehicle, wherein the first torque transmission direction is one of (i) torque transmission towards the power source and (ii) torque transmission towards a vehicle output; determining a second torque transmission direction between an input and an output of the second clutching device based on a current state of the second clutching device, wherein the input of the second clutching device is coupled or selectively coupled with the power source and wherein the output of the second clutching device is drivingly engaged with or selectively drivingly engaged with the vehicle output, wherein the second torque transmission direction is one of (i) torque transmission towards the power source and (ii) torque transmission towards the vehicle output; comparing the first torque transmission direction and the second torque transmission direction; controlling the state of the second clutching device based on the outcome of the comparison. engaging the second clutching device, wherein engaging the second clutching device includes controlling a state of the second clutching device by changing a state of the first clutching device; determining a first torque transmission direction between a power source of the vehicle and the transmission of the vehicle, wherein the first torque transmission direction is one of (i) torque transmission towards the power source and (ii) torque transmission towards a vehicle output; determining a second torque transmission direction between an input and an output of the second clutching device based on a current state of the second clutching device, wherein the input of the second clutching device is coupled or selectively coupled with the power source and wherein the output of the second clutching device is drivingly engaged with or selectively drivingly engaged with the vehicle output, wherein the second torque transmission direction is one of (i) torque transmission towards the power source and (ii) torque transmission towards the vehicle output; comparing the first torque transmission direction and the second torque transmission direction; controlling the state of the second clutching device based on the outcome of the comparison.
A trunk floor mounting structure for a vehicle, the trunk floor mounting structure being configured to be arrangeable in a boot of the vehicle, and comprising: a floor, the floor comprising a front floor and a rear floor reversibly fixed to the front floor; and a suspension mechanism, the suspension mechanism comprising a stop member and a limiting member cooperating with each other, the stop member having a fixed end fixed to a lower surface of the rear floor and a movable end capable of extending to a lower surface of the front floor, and the limiting member being configured to be arrangeable on at least one of a left side wall and a right side wall of the boot, wherein when the rear floor is flipped by a predetermined obtuse angle relative to the front floor from an initial position, the movable end abuts against the limiting member such that the rear floor is suspended in a suspended position. a floor, the floor comprising a front floor and a rear floor reversibly fixed to the front floor; and a suspension mechanism, the suspension mechanism comprising a stop member and a limiting member cooperating with each other, the stop member having a fixed end fixed to a lower surface of the rear floor and a movable end capable of extending to a lower surface of the front floor, and the limiting member being configured to be arrangeable on at least one of a left side wall and a right side wall of the boot, wherein when the rear floor is flipped by a predetermined obtuse angle relative to the front floor from an initial position, the movable end abuts against the limiting member such that the rear floor is suspended in a suspended position.
A power compensator for an electric power transmission line, comprising a voltage source converter having an ac side connected to the transmission line and a dc side connected to a capacitor mean and an energy storage device which is configured to energize the capacitor mean and comprises a high voltage battery means having a first and second main switch for disconnecting the battery means from the capacitor means, and a control unit configured to operate the first and second switches characterized in that the power compensator is configured to provide a black start of a dead transmission line, the voltage source converter is connected to the transmission line via a shunt-connected transformer, the high voltage battery means further have a short circuit failure mode, and that the power compensator is configured to perform said black start by energizing the capacitor mean from the battery means and when the capacitor mean has been energized, start switching the voltage source converter, resulting in a ac power being provided to the transmission line. a voltage source converter having an ac side connected to the transmission line and a dc side connected to a capacitor mean and an energy storage device which is configured to energize the capacitor mean and comprises a high voltage battery means having a first and second main switch for disconnecting the battery means from the capacitor means, and a control unit configured to operate the first and second switches characterized in that is configured to energize the capacitor mean and comprises a high voltage battery means having a first and second main switch for disconnecting the battery means from the capacitor means, and a control unit configured to operate the first and second switches characterized in that the power compensator is configured to provide a black start of a dead transmission line, the voltage source converter is connected to the transmission line via a shunt-connected transformer, the high voltage battery means further have a short circuit failure mode, and that the power compensator is configured to perform said black start by energizing the capacitor mean from the battery means and when the capacitor mean has been energized, start switching the voltage source converter, resulting in a ac power being provided to the transmission line. by energizing the capacitor mean from the battery means and when the capacitor mean has been energized, start switching the voltage source converter, resulting in a ac power being provided to the transmission line.
A waterproof structure of an electronic device comprising: a substantially cylindrical case; connector-side terminals introduced into the case; a connector composed of a sealing material that is formed in the vicinity of the end of the case on a plug insertion side so as to protrude to the plug insertion side, and that is formed around the outer circumference of the case, and a cover to be partially inserted into the connector, wherein: a first convex stripe is formed along the inner circumference of the protruding section of the sealing material; and the first convex stripe is formed so as to be circumferentially pressed against and brought into contact with both an outer circumferential surface of a part of the inserted plug and an outer circumferential surface of a part of the inserted cover; and a second convex stripe is formed along the outer circumference of the sealing material; and characterized in that the second convex stripe is formed so as to be circumferentially pressed against and brought into contact with an inner circumferential surface of a mounting part of a housing of the electronic device. a first convex stripe is formed along the inner circumference of the protruding section of the sealing material; and the first convex stripe is formed so as to be circumferentially pressed against and brought into contact with both an outer circumferential surface of a part of the inserted plug and an outer circumferential surface of a part of the inserted cover; and a second convex stripe is formed along the outer circumference of the sealing material; and characterized in that the second convex stripe is formed so as to be circumferentially pressed against and brought into contact with an inner circumferential surface of a mounting part of a housing of the electronic device.
A shock absorber system in which a piston valve spring seat is fixed to a piston and an actuator generates a preload force directly on the valve increasing the preload force, the spring seat is connected to, and for movement with, a movable element of a solenoid, thereby to cause the position of a plunger to influence the preload force and so the rebound damping force of a shock absorber, wherein it comprises two springs (42, 44), one spring for applying a constant preload force to the discs in the piston assembly, and the other spring for providing the additional preload force in the energised mode, wherein the two springs (42, 44) are co-axial with the constant preload force spring having a smaller diameter than the additional preload force spring, wherein the position of said spring seat is maintained in a gap defined by the position of said spring seat in the de-energised mode and the position of said plunger in the fully energised mode, and wherein the system is normally in a soft mode with low damping forces and it switches into a hard mode with high damping forces by applying a current to a coil and hence generating a pulling force on said plunger, characterised in that, when current is no longer applied to the coil, then the pulling force is no longer generated, and the plunger assembly returns back to the original soft mode due to the reverse action of the valve spring.
A pressure sensor device (205, 305, 405) for a modular pressure sensor package (100, 200, 300, 400, 500, 600), the pressure sensor device comprising: a substrate (220, 420) having a pressure port (228, 428) that extends through the substrate from a first side of the substrate to a second side of the substrate, wherein the substrate includes at least one mounting element (210-1 to 210-4, 410-1 to 410-4, 610-1 to 610-4) configured to secure a pressure port interface (250, 350, 450, 550, 650) to the second side of the substrate in a position around the pressure port; a pressure sensor die (230, 430, 630) attached to the first side of the substrate, forming a seal over the pressure port on the first side of the substrate; a cover (236, 436, 636) attached to the first side of the substrate over the pressure sensor die, forming a sealed cavity (240, 440, 640) wherein the pressure sensor die is located within the cavity; and characterized in that the pressure sensor device further comprises a plurality of electrical connectors (234, 434, 634) mounted to the substrate external to the cavity, the plurality of electrical connectors electrically coupled to the pressure sensor die. a substrate (220, 420) having a pressure port (228, 428) that extends through the substrate from a first side of the substrate to a second side of the substrate, wherein the substrate includes at least one mounting element (210-1 to 210-4, 410-1 to 410-4, 610-1 to 610-4) configured to secure a pressure port interface (250, 350, 450, 550, 650) to the second side of the substrate in a position around the pressure port; a pressure sensor die (230, 430, 630) attached to the first side of the substrate, forming a seal over the pressure port on the first side of the substrate; a cover (236, 436, 636) attached to the first side of the substrate over the pressure sensor die, forming a sealed cavity (240, 440, 640) wherein the pressure sensor die is located within the cavity; and characterized in that the pressure sensor device further comprises a plurality of electrical connectors (234, 434, 634) mounted to the substrate external to the cavity, the plurality of electrical connectors electrically coupled to the pressure sensor die.
An antibody or antibody fragment that immunospecifically binds to MHC class I polypeptide-related sequence A (MICA) comprising a heavy chain variable (V H) region and a light chain variable (V L) region, wherein the V H region comprises V H CDR1, V H CDR2, and V H CDR3 as shown in the V H amino acid sequence of SEQ ID NO: 168; and wherein the V L region comprises V L CDR1, V L CDR2, and V L CDR3 as shown in the V L amino acid sequence of SEQ ID NO: 170.
Cooking device comprising at least one hob having at least one hot plate and having at least one heating device provided for heating at least one cooking region and having at least one sensor device for detecting at least one physical variable in a detection region, the hob comprising at least one support device which is suitable and designed for positioning at least one container for food to be cooked, and the sensor device being arranged below the support device at least in part when the hob is installed, at least one sealing device being provided for thermal insulation, at least part of the sealing device being arranged between at least part of the support device and at least part of the sensor device, characterised in that at least one induction device is provided for the heating device, and the sensor device comprises at least one magnetic shielding device, the magnetic shielding device being designed and suitable for shielding against electromagnetic interactions and in particular for shielding against the electromagnetic field of the induction device, and the sealing device is arranged between the support device and the magnetic shielding device at least in part, and at least one damping means is provided for resiliently arranging the sensor device, at least part of the sensor device being attached to the damping means, and the damping means being designed and suitable for resiliently preloading at least the magnetic shielding device, as part of the sensor device, against the sealing device (6, 26).
A method of communicating a message from a transmitting station to a receiving station, the method comprising: adaptively selecting a retransmission version from a plurality of redundancy versions based on at least one changing transmission variable, wherein the adaptively selecting comprises adaptively selecting said retransmission version based on a change in a channel quality between a systematic transmission of said message and a subsequent transmission of said message, wherein the adaptively selecting further comprises adaptively selecting said retransmission version based on a change in a signal to noise ratio between said systematic transmission of said message and said subsequent transmission of said message, and wherein the method is characterised in that the adaptively selecting further comprises: a) selecting for the f-th transmission a mod (f, 8)th redundancy version of a specified redundancy version sequence when the said change in said signal to noise ratio is smaller than or equal to four times, wherein mod (f, 8) means f modulo 8; and b) selecting for the f-th transmission the subsequent systematic redundancy version in the specified sequence when the said change in said signal to noise ratio is greater than four times. a) selecting for the f-th transmission a mod (f, 8)th redundancy version of a specified redundancy version sequence when the said change in said signal to noise ratio is smaller than or equal to four times, wherein mod (f, 8) means f modulo 8; and b) selecting for the f-th transmission the subsequent systematic redundancy version in the specified sequence when the said change in said signal to noise ratio is greater than four times.
Inorganic coated sand in a dry state, comprising: refractory aggregate; and an inorganic binder layer formed on a surface of the refractory aggregate, wherein the inorganic binder layer comprises a metasilicate hydrate, wherein amount of the inorganic binder layer to be applied is 0.05 parts by mass or greater and 10 parts by mass or less with respect to 100 parts by mass of the refractory aggregate, and wherein a slump loss value measured in an environment of 25°C and 55% relative humidity by a slump test using a slump cone having an inner diameter of 50 mm at an upper end, an inner diameter of 100 mm at a lower end, and a height of 150 mm according to JIS A 1101: 2014 is 90 mm or greater. refractory aggregate; and an inorganic binder layer formed on a surface of the refractory aggregate, wherein the inorganic binder layer comprises a metasilicate hydrate, wherein amount of the inorganic binder layer to be applied is 0.05 parts by mass or greater and 10 parts by mass or less with respect to 100 parts by mass of the refractory aggregate, and wherein a slump loss value measured in an environment of 25°C and 55% relative humidity by a slump test using a slump cone having an inner diameter of 50 mm at an upper end, an inner diameter of 100 mm at a lower end, and a height of 150 mm according to JIS A 1101: 2014 is 90 mm or greater.
Absorbent fibrous product containing at least 50% of hydrophilic cotton fibres or other hydrophilic cellulose fibres and less than 0.1% of chemical or heat-fusible binder, comprising a first layer formed from a hydroentangled nonwoven and a second layer formed from fibres which are more weakly bonded to one another than the fibres in the first layer, the bonding of the fibres in the second layer resulting from a hydrophilic treatment of the layer of fibres, the two layers being bonded by full-surface adhesion between the fibres of the two layers, and the debonding force being at least 0.1 N.