mhurhangee/ep-ind-claims huggingface dataset:
Film bag assembly with a bag body having at least two front walls made of film and with a sleeve arranged on the bag body, which extends only over a part of height (h F) of the front walls determined between a lower edge and an upper edge of the front walls, wherein the front walls have mutually opposite side edges which run between the upper edge and the lower edge and are provided with longitudinal seams and wherein the bag body has a constriction between the upper edge and the lower edge of the front walls, characterized in that the constriction is formed by an upper and a lower offset (6a, 6b) of the side edges, wherein the distance (h Z) between the upper and lower offsets (6a, 6b) corresponds to at least one height (h B) of the sleeve.
Wound stator comprising a body provided with a yoke and teeth arranged on an internal periphery of said yoke, said teeth delimiting, in pairs, slots intended to receive conductors of a winding, characterized in that it comprises individual slot insulators situated in the slots of the stator, and in that two consecutive individual slot insulators are welded together.
A semiconductor circuit arrangement, comprising: a power semiconductor device with at least one active area (Ch_n, T1); a first temperature sensor embedded in the power semiconductor device, wherein the first temperature sensor is placed within or close to the at least one active area (Ch_n, T1); a second temperature sensor embedded in the power semiconductor device, wherein the second temperature sensor is placed apart from the at least one active area (Ch_n, T1) in a further distance from the at least one active area (Ch_n, T1) than the first temperature sensor; and a control logic circuit configured to: switch-off the power semiconductor device, detect a temperature difference between a first temperature measured by the first temperature sensor and a second temperature measured by the second temperature sensor after a predetermined time duration has elapsed after the switch-off of the power semiconductor device, and restart the power semiconductor device when the temperature difference is lower than a predetermined threshold. a power semiconductor device with at least one active area (Ch_n, T1); a first temperature sensor embedded in the power semiconductor device, wherein the first temperature sensor is placed within or close to the at least one active area (Ch_n, T1); a second temperature sensor embedded in the power semiconductor device, wherein the second temperature sensor is placed apart from the at least one active area (Ch_n, T1) in a further distance from the at least one active area (Ch_n, T1) than the first temperature sensor; and a control logic circuit configured to: switch-off the power semiconductor device, detect a temperature difference between a first temperature measured by the first temperature sensor and a second temperature measured by the second temperature sensor after a predetermined time duration has elapsed after the switch-off of the power semiconductor device, and restart the power semiconductor device when the temperature difference is lower than a predetermined threshold. switch-off the power semiconductor device, detect a temperature difference between a first temperature measured by the first temperature sensor and a second temperature measured by the second temperature sensor after a predetermined time duration has elapsed after the switch-off of the power semiconductor device, and restart the power semiconductor device when the temperature difference is lower than a predetermined threshold.
A surveying system for assisting placement of a staking tool including a picket, a crossbeam, and a slope beam, the surveying system comprising, in addition to a surveying device and a terminal device: a design information acquisition unit configured to acquire design information including a designed slope; a surveying information acquisition unit configured to transmit, to the terminal device, surveying information on surveying by the surveying device; a current state estimation unit configured to calculate a current surveying position, including an estimated altitude of a current ground in accordance with the surveying information received by the terminal device; characterised in that the surveying system further comprises an intersection calculation unit configured to calculate a coordinate of an intersection between the current ground and the designed slope based on the estimated altitude of the current ground and the design information including the designed slope; a stake shape determination unit configured to determine a shape of a stake to be placed, based on a direction of the designed slope, the coordinate of the intersection, and the current surveying position; and a stake shape information unit configured to cause the terminal device to inform of the shape of the stake determined by the stake shape determination unit. a design information acquisition unit configured to acquire design information including a designed slope; a surveying information acquisition unit configured to transmit, to the terminal device, surveying information on surveying by the surveying device; a current state estimation unit configured to calculate a current surveying position, including an estimated altitude of a current ground in accordance with the surveying information received by the terminal device; characterised in that the surveying system further comprises an intersection calculation unit configured to calculate a coordinate of an intersection between the current ground and the designed slope based on the estimated altitude of the current ground and the design information including the designed slope; a stake shape determination unit configured to determine a shape of a stake to be placed, based on a direction of the designed slope, the coordinate of the intersection, and the current surveying position; and a stake shape information unit configured to cause the terminal device to inform of the shape of the stake determined by the stake shape determination unit.
Device for controlling the passage of a fluid and intended to be inserted in a pipe, the device comprising a body of elongate shape and extending between an upstream end and a downstream end, an obturator forming a valve with a seat of the body to control the passage of the fluid between the upstream end and the downstream end, the valve adopting a closed position in which the passage of the fluid between the upstream end and the downstream end is shut off and an open position in which the passage of the fluid is possible, the device comprising sealing means on the body which are able to expand and provide sealing between the body and the pipe, the device being characterized in that it comprises retaining means for keeping the valve in the closed position, actuating means for making the valve pass from the closed position to the open position to the open position, and opening means able to keep the valve in the open position after it has been actuated by the actuating means.
A method (702, 802, 902, 1002, 1202) for receiving data over an optical communication path at a receiving device, the method comprising: determining a first power level transmitted by a transmitter over the optical communication path at a first timeslot based upon a received photon having a binary value, the first power level is less than a threshold power level; determining a second power level transmitted by a transmitter over the optical communication path at a second timeslot following the first timeslot based upon a second received photon having the binary value, the second power level less than the threshold power level; creating a first bit sequence of repeating values of the binary value from the first received photon, a count of the first bit sequence of repeating values determined based on a mapping of the first power level to the count, wherein the count is proportional to the first power level; creating a second bit sequence of repeating values of the binary value from the second received photon, the second bit sequence comprising a second count of the second bit sequence of repeating values based on the mapping and the second count being proportional to the second power level; combining the first and second bit sequences into a bitstream; and storing the bitstream in a memory. determining a first power level transmitted by a transmitter over the optical communication path at a first timeslot based upon a received photon having a binary value, the first power level is less than a threshold power level; determining a second power level transmitted by a transmitter over the optical communication path at a second timeslot following the first timeslot based upon a second received photon having the binary value, the second power level less than the threshold power level; creating a first bit sequence of repeating values of the binary value from the first received photon, a count of the first bit sequence of repeating values determined based on a mapping of the first power level to the count, wherein the count is proportional to the first power level; creating a second bit sequence of repeating values of the binary value from the second received photon, the second bit sequence comprising a second count of the second bit sequence of repeating values based on the mapping and the second count being proportional to the second power level; combining the first and second bit sequences into a bitstream; and storing the bitstream in a memory.
A soft magnetic metal powder, comprising Fe as the main component and containing Si and B, wherein the content of Si in the soft magnetic metal powder is 1 to 15 mass% and the metal particle of the soft magnetic metal powder comprises a film of boron nitride on the surface, characterised in that, the content of B inside the metal particle is 10 to 150 ppm. the content of Si in the soft magnetic metal powder is 1 to 15 mass% and the metal particle of the soft magnetic metal powder comprises a film of boron nitride on the surface, characterised in that, the content of B inside the metal particle is 10 to 150 ppm.
An apparatus for driving a coil of an electromagnetic switching device, the apparatus comprising: a first switch to supply a pick-up current to the coil, a second switch to supply a hold-on current to the coil, and wherein the first switch and the second switch are different with respect to a switching frequency, characterized by the first switch and the second switch being controllable responsive to a current flowing through the coil and by a controller configured to detect a decrease in the current flowing through the coil, and configured to turn-off the first switch and to turn-on the second switch in response to the detected decrease in the current flowing through the coil. a first switch to supply a pick-up current to the coil, a second switch to supply a hold-on current to the coil, and wherein the first switch and the second switch are different with respect to a switching frequency, characterized by the first switch and the second switch being controllable responsive to a current flowing through the coil and by a controller configured to detect a decrease in the current flowing through the coil, and configured to turn-off the first switch and to turn-on the second switch in response to the detected decrease in the current flowing through the coil.
An apparatus, comprising: a Josephson junction comprising a tunnel barrier positioned between two vertically stacked superconducting silicon electrodes (102, 104); a first metal contact operably coupled to a first superconducting silicon electrode from the two vertically stacked superconducting silicon electrodes (102, 104); a second metal contact operably coupled to a second superconducting silicon electrode from the two vertically stacked superconducting silicon electrodes (102, 104); and an isolation layer positioned on the tunnel barrier such that the isolation layer electrically isolates the first metal contact from the second metal contact, wherein the isolation layer comprises a carbon implantation within silicon. a Josephson junction comprising a tunnel barrier positioned between two vertically stacked superconducting silicon electrodes (102, 104); a first metal contact operably coupled to a first superconducting silicon electrode from the two vertically stacked superconducting silicon electrodes (102, 104); a second metal contact operably coupled to a second superconducting silicon electrode from the two vertically stacked superconducting silicon electrodes (102, 104); and an isolation layer positioned on the tunnel barrier such that the isolation layer electrically isolates the first metal contact from the second metal contact, wherein the isolation layer comprises a carbon implantation within silicon.
A method for managing an induction heating system, the induction heating system comprising: - an electrically conducting load; - an inverter circuit comprising a switching section and a resonant section, the switching section comprising switching devices (212h, 2121) adapted to generate an AC current from an AC input voltage (Vin) comprising a plurality of half-waves, and the resonant section comprising an induction heating coil adapted to receive the AC current for generating a corresponding time-varying magnetic field in order to generate heat in the electrically conducting load by inductive coupling, wherein the AC current (Ic) oscillates at an actuation frequency of the switching devices (212h, 2121) and has an envelope comprising a plurality of half-waves corresponding to the half-waves of the AC input voltage (Vin), and wherein the amount of heat generated in the load depends on the frequency of the AC current, the method comprising: - varying, within a same half-wave of the envelope, the actuation frequency according to a plurality of actuation frequency values; - calculating a safe actuation frequency range; - setting the actuation frequency based on said calculated safe actuation frequency range, wherein said calculating a safe actuation frequency range comprises calculating at least one between: - the closeness of each actuation frequency value to a resonance frequency of the resonant section, - the closeness of each actuation frequency value to a current limit frequency corresponding to the maximum sustainable current by the switching devices. - an electrically conducting load; - an inverter circuit comprising a switching section and a resonant section, the switching section comprising switching devices (212h, 2121) adapted to generate an AC current from an AC input voltage (Vin) comprising a plurality of half-waves, and the resonant section comprising an induction heating coil adapted to receive the AC current for generating a corresponding time-varying magnetic field in order to generate heat in the electrically conducting load by inductive coupling, wherein the AC current (Ic) oscillates at an actuation frequency of the switching devices (212h, 2121) and has an envelope comprising a plurality of half-waves corresponding to the half-waves of the AC input voltage (Vin), and wherein the amount of heat generated in the load depends on the frequency of the AC current, - varying, within a same half-wave of the envelope, the actuation frequency according to a plurality of actuation frequency values; - calculating a safe actuation frequency range; - setting the actuation frequency based on said calculated safe actuation frequency range, - the closeness of each actuation frequency value to a resonance frequency of the resonant section, - the closeness of each actuation frequency value to a current limit frequency corresponding to the maximum sustainable current by the switching devices.
A robot with capabilities of displacement on at least one jointed chain comprising at least one sensor of contact of the end of said chain with the displacement surface, said chain comprising at least one joint, said joint driven by an electric motor controlled by an order determined based on position and/or velocity and by means for limiting the current and/or the torque applied by said motor to said joint, said robot being characterized in that it also comprises: a) a first logic for calculating the articular torque as a solution of an equation modeling the dynamic equilibrium of the robot between, on the one hand, the sum of the difference of the inertial forces due to the angular acceleration of the joint and of the gravitational acceleration and of the effect of the Coriolis and centrifugal forces and, on the other hand, the sum of the torque and of the contact, friction and perturbation forces, said torque and force being applied to said joint, a part of the effects of the inertial forces due to the angular acceleration of the joint, of the Coriolis and centrifugal forces and of the friction forces being modeled by an offset, b) a second calculation logic configured to define said limitation of the current and/or of the torque applied on the basis of the articular torque calculated by said first calculation logic for said joint. a) a first logic for calculating the articular torque as a solution of an equation modeling the dynamic equilibrium of the robot between, on the one hand, the sum of the difference of the inertial forces due to the angular acceleration of the joint and of the gravitational acceleration and of the effect of the Coriolis and centrifugal forces and, on the other hand, the sum of the torque and of the contact, friction and perturbation forces, said torque and force being applied to said joint, a part of the effects of the inertial forces due to the angular acceleration of the joint, of the Coriolis and centrifugal forces and of the friction forces being modeled by an offset, b) a second calculation logic configured to define said limitation of the current and/or of the torque applied on the basis of the articular torque calculated by said first calculation logic for said joint.
A tray system for bulk storage and transportation of bottles, the tray system comprising a first tray (200; 1200; 2200) having a plurality of stacking units (210; 1210; 2210), each stacking unit (210; 1210; 2210) forming a lower receptacle (220; 1220; 2220) for receiving a neck portion and a cap of a first bottle, each stacking unit (210; 1210; 2210) further forming an upper receptacle (240; 1240; 2240) for receiving a base portion of a second bottle to be stacked vertically above said first bottle, the upper receptacle (240; 1240; 2240) having a central longitudinal axis (Xup) and the lower receptacle having a central longitudinal axis (Xlow) aligned coaxially with the central longitudinal axis (Xup) of the upper receptacle (240; 1240; 2240), wherein, the lower receptacle (220; 1220; 2220) comprises a first end (222; 1222; 2222), a second end (224; 1224; 2224) opposite the first end (222; 1222; 2222), and a sidewall (226; 1226; 2226) connecting the first end (222; 1222; 2222) with the second end (224; 1224; 2224) and surrounding an interior space (221; 1221; 2221), the first end (222; 1222; 2222) forming a rim that defines an opening into interior space (221; 1221; 2221) for receiving said neck and cap of said first bottle into the lower receptacle (220; 1220; 2220), the rim circumscribing the opening and being adapted to rest on top of a shoulder portion of said first bottle received in the opening to distribute load onto said shoulder portion and away from the neck portion and cap of said first bottle, the sidewall (226; 1226; 2226) of the lower receptacle forming an inner surface, characterized in that the sidewall (226; 1226; 2226) gradually tapers radially inwardly as the inner surface extends from the first end (222; 1222; 2222) of the lower receptacle (220; 1220; 2220) to the second end (224; 1224; 2224) of the lower receptacle.
A compound of formula wherein R 1 is a ring selected from phenyl, [1,2,5]oxadiazolyl, pyridinyl and pyrimidinyl, wherein said ring is substituted with one substituent selected from haloalkyldiazirenyl and alkynyldiazirenylalkylaminocarbonyl and optionally further substituted with halogen or cyano; R 2 and R 3 are independently selected from hydrogen, halogen and hydroxyl; and R 4 is alkyl or phenylhaloalkyl; or a pharmaceutically acceptable salt or ester thereof. R 1 is a ring selected from phenyl, [1,2,5]oxadiazolyl, pyridinyl and pyrimidinyl, wherein said ring is substituted with one substituent selected from haloalkyldiazirenyl and alkynyldiazirenylalkylaminocarbonyl and optionally further substituted with halogen or cyano; R 2 and R 3 are independently selected from hydrogen, halogen and hydroxyl; and R 4 is alkyl or phenylhaloalkyl;
A method for validating an electronic device, comprising: receiving attestation information provided by the electronic device attesting that the electronic device has received a plurality of event attestations, each event attestation providing a cryptographically authenticated attestation to the occurrence of a respective event during a lifecycle of the electronic device, wherein the attestation information comprises said plurality of event attestations; and determining a validation result indicating whether the attestation information is valid, wherein a first event attestation of the plurality of event attestations is determined to be valid when validated using a first cryptographic key associated with a first manufacturer or first adapter permitted to cause a first corresponding event to be performed for the electronic device, and wherein a second event attestation of the plurality of event attestations is determined to be valid when validated using a second cryptographic key associated with a second manufacturer or second adapter permitted to cause a second corresponding event to be performed for the electronic device, and wherein the first manufacturer or first adapter is different from the second manufacturer or second adapter. receiving attestation information provided by the electronic device attesting that the electronic device has received a plurality of event attestations, each event attestation providing a cryptographically authenticated attestation to the occurrence of a respective event during a lifecycle of the electronic device, wherein the attestation information comprises said plurality of event attestations; and determining a validation result indicating whether the attestation information is valid, wherein a first event attestation of the plurality of event attestations is determined to be valid when validated using a first cryptographic key associated with a first manufacturer or first adapter permitted to cause a first corresponding event to be performed for the electronic device, and wherein a second event attestation of the plurality of event attestations is determined to be valid when validated using a second cryptographic key associated with a second manufacturer or second adapter permitted to cause a second corresponding event to be performed for the electronic device, and wherein the first manufacturer or first adapter is different from the second manufacturer or second adapter.
A metalized ceramic plate configured to seal an evacuated enclosure of an x-ray tube, the plate comprising: a first side configured to reside inside the evacuated enclosure of the x-ray tube; a second side configured to reside outside the evacuated enclosure; a recess formed in the second side; feedthru openings that extend through the plate between the first side and the recess, wherein one or more of the feedthru openings includes a metallization; and metallization formed around the perimeter of the recess and electrically connected to the metallization of the one or more of the feedthru openings. a first side configured to reside inside the evacuated enclosure of the x-ray tube; a second side configured to reside outside the evacuated enclosure; a recess formed in the second side; feedthru openings that extend through the plate between the first side and the recess, wherein one or more of the feedthru openings includes a metallization; and metallization formed around the perimeter of the recess and electrically connected to the metallization of the one or more of the feedthru openings.