mhurhangee/ep-ind-claims huggingface dataset:
Transparent substrate S for a glazing, made of glass, provided with a stack of thin layers deposited onto the glass and comprising an alternation of n metal functional layers A having reflection properties in the infrared and/or in solar radiation, the or each of the functional layers A being based on silver or on an alloy of silver, in particular with palladium or titanium, and of (n+1) coatings B, where n ≥ 1, said coatings B comprising a layer or a superposition of layers made of a dielectric, so that each functional layer A is placed between two coatings B, at least the (n + 1)th coating B comprising an oxygen barrier layer based on silicium nitride and/or aluminium nitrire, characterized in that: the or each of the functional layers A is (i) directly in contact with the dielectric coating B placed on top of it and (ii) in contact with the dielectric coating B placed beneath it via a layer C that absorbs at least in the visible, of the metallic, optionally nitride, type, the or each of said layer C being based on titanium, nickel, chrome, nobium, zirconium or a metal alloy containing at least one of these metals and having a thickness of less than 1 nm, in particular equal or less than 0.7 or 0.6 or 0.5 nm. (i) directly in contact with the dielectric coating B placed on top of it and (ii) in contact with the dielectric coating B placed beneath it via a layer C that absorbs at least in the visible, of the metallic, optionally nitride, type,
A thermal break aluminium window or door comprising a frame, a casement and a weather stripping, said casement having a first interior profile and a second exterior profile connected to each other by means of a third profile made of thermally insulating material, said third profile having, in cross section, a first side having two contiguous teeth engaged in respective contiguous seats present on said first profile and a second side having a single tooth engaged in a respective single seat of said second profile, said single tooth being positioned in such a way as to leave an ample free portion of said second side for the engagement thereof with weather stripping for said casement, there being further provided a compensation means on said third profile to compensate for the different thermal expansion of said first and second profiles relative to the thermal expansion of said third profile, said compensation means comprising a gap in the material along the entire extent of said third profile, serving to absorb the forces and moments acting upon said third profile, said gap in the material being formed on said first side in a central area between said two teeth, said first and second sides (7a, 7b) being joined to each other by two sides parallel to each other, said third profile having within it a stiffening element associated with said two parallel sides, said stiffening element being designed to divide said third profile into a first chamber delimited by said first side having said two contiguous teeth and by a portion of said parallel sides, and a second chamber separate from the first chamber and delimited by said second side having said single tooth and by the remaining portion of said parallel sides, characterised in that said first and second chamber have a same dimension in a direction perpendicular to said parallel sides, said weather stripping engaging said second side delimiting said second chamber.
A method for secure connections, the method comprising: receiving a security level input at an interface of a wearable device, characterized by the security level input identifying a sensor set including one or more types of sensor measurements from one or more sensors of the wearable device, the security level input further identifying that data corresponding to the sensor set should be transmitted to a recipient device according to a predetermined security level setting, the predetermined security level setting indicating at least whether the data corresponding to the sensor set is to be encrypted prior to transmission to the recipient device; determining, by the wearable device, that a sensor measurement data set is to be transmitted to another device, the sensor measurement data set corresponding to the sensor set, wherein the sensor measurement data set comprises one or more sensor measurements from one or more sensors of the wearable device; and transmitting the sensor measurement data set from the wearable device to the recipient device according to the security level setting identified by the security level input for the sensor set. receiving a security level input at an interface of a wearable device, characterized by the security level input identifying a sensor set including one or more types of sensor measurements from one or more sensors of the wearable device, the security level input further identifying that data corresponding to the sensor set should be transmitted to a recipient device according to a predetermined security level setting, the predetermined security level setting indicating at least whether the data corresponding to the sensor set is to be encrypted prior to transmission to the recipient device; determining, by the wearable device, that a sensor measurement data set is to be transmitted to another device, the sensor measurement data set corresponding to the sensor set, wherein the sensor measurement data set comprises one or more sensor measurements from one or more sensors of the wearable device; and transmitting the sensor measurement data set from the wearable device to the recipient device according to the security level setting identified by the security level input for the sensor set.
A control unit of a permanent magnet synchronous motor comprising: a DC power supply, an inverter for converting DC power supplied from said DC power supply to AC power, and said permanent magnet synchronous motor supplied with said AC power via output terminals of said inverter, a comparator and a microcomputer for inferring a phase and a rotational direction of a rotor of said permanent magnet synchronous motor when said motor runs free at an absolute speed value greater than a preset value; the control unit being characterized in that the comparator and the microcomputer determines regions (A, B, C, D) defined by the combination of signals (L, H) of flags (Vu-flag, Vv-flag), each of the flags (Vu-flag, Vv-flag) representing a magnitude relation between each of at least two inter-line voltages (V u-FR, V v-FR) and a predetermined threshold voltage V 0; and the inter-line voltages (V u-FR, V v-FR) representing voltages appearing at the output terminals of said inverter when the motor runs free; wherein the control unit detects the inferred rotor phases at intermediate time between time (T AB, T BC, T CD, T DA) representing changes of the regions (A, B, C, D), and wherein the control unit infers the rotational direction of the rotor on the basis of the changes and changing timing of the regions (A, B, C, D). a DC power supply, an inverter for converting DC power supplied from said DC power supply to AC power, and said permanent magnet synchronous motor supplied with said AC power via output terminals of said inverter, a comparator and a microcomputer for inferring a phase and a rotational direction of a rotor of said permanent magnet synchronous motor when said motor runs free at an absolute speed value greater than a preset value; the control unit being characterized in that the comparator and the microcomputer determines regions (A, B, C, D) defined by the combination of signals (L, H) of flags (Vu-flag, Vv-flag), each of the flags (Vu-flag, Vv-flag) representing a magnitude relation between each of at least two inter-line voltages (V u-FR, V v-FR) and a predetermined threshold voltage V 0; and the inter-line voltages (V u-FR, V v-FR) representing voltages appearing at the output terminals of said inverter when the motor runs free; wherein the control unit detects the inferred rotor phases at intermediate time between time (T AB, T BC, T CD, T DA) representing changes of the regions (A, B, C, D), and wherein the control unit infers the rotational direction of the rotor on the basis of the changes and changing timing of the regions (A, B, C, D).
A method for breaking dormancy of Thesium chinense Turcz. seeds, comprising: immersing collected seeds of Thesium chinense Turcz. in water, selecting seeds that sink in the water followed by air-drying, and storing at 2°C to 4°C to obtain to-be-used seeds; immersing the to-be-used seeds in a gibberellin solution, taking out the seeds and mixing with river sand under -4°C to -2°C for a first stratification treatment; rinsing off the river sand, removing green skins and stalks of the seeds after the first stratification treatment, keeping the seeds moist and placing the seeds under 2°C to 4°C for a second stratification treatment to obtain ruptured seeds; and using the ruptured seeds in a three-slit stage as a germination material, and culturing the ruptured seeds in a three-slit stage in a dark environment at 17°C to 22°C for seed germination. immersing collected seeds of Thesium chinense Turcz. in water, selecting seeds that sink in the water followed by air-drying, and storing at 2°C to 4°C to obtain to-be-used seeds; immersing the to-be-used seeds in a gibberellin solution, taking out the seeds and mixing with river sand under -4°C to -2°C for a first stratification treatment; rinsing off the river sand, removing green skins and stalks of the seeds after the first stratification treatment, keeping the seeds moist and placing the seeds under 2°C to 4°C for a second stratification treatment to obtain ruptured seeds; and using the ruptured seeds in a three-slit stage as a germination material, and culturing the ruptured seeds in a three-slit stage in a dark environment at 17°C to 22°C for seed germination.
A method for operating an optical testing instrument (1, 10, 20, 200) to reduce light interference from an illumination light in sensor readings, the method comprising: causing the illumination light to be powered on during an on cycle and off during an off cycle according to a light modulation pattern to provide improved visibility of contents of a sample tube observable by a user during a testing of the contents, wherein the illumination light is configured to emit light that is visible to a user outside the optical testing instrument (1, 10, 20, 200), wherein the light modulation pattern comprises a plurality of on cycles and a plurality of off cycles including a first off cycle, the first off cycle of the light modulation pattern being between adjacent on cycles of the plurality of on cycles; during the first off cycle of the light modulation pattern, controlling at least one emitter (140, 540) to emit a signal for detection by one or more sensors; and controlling at least one of the one or more sensors (120, 130) to perform a reading during the first off cycle of the light modulation pattern, wherein the off cycles define sufficiently short durations to cause the adjacent on cycles to appear substantially constant to a user during operation, wherein the at least one sensor is operated during the first off cycle. causing the illumination light to be powered on during an on cycle and off during an off cycle according to a light modulation pattern to provide improved visibility of contents of a sample tube observable by a user during a testing of the contents, wherein the illumination light is configured to emit light that is visible to a user outside the optical testing instrument (1, 10, 20, 200), wherein the light modulation pattern comprises a plurality of on cycles and a plurality of off cycles including a first off cycle, the first off cycle of the light modulation pattern being between adjacent on cycles of the plurality of on cycles; during the first off cycle of the light modulation pattern, controlling at least one emitter (140, 540) to emit a signal for detection by one or more sensors; and controlling at least one of the one or more sensors (120, 130) to perform a reading during the first off cycle of the light modulation pattern, wherein the off cycles define sufficiently short durations to cause the adjacent on cycles to appear substantially constant to a user during operation, wherein the at least one sensor is operated during the first off cycle.
A fan, comprising a motor, a fan wheel, an inlet nozzle arranged upstream of the fan wheel, at least one air pressure measuring device with at least one air pressure sensor, control electronics connected to the air pressure measuring device, wherein the at least one air pressure measuring device is in direct operative connection with an inflow area and a nozzle pressure area determined by the inflow nozzle, characterized in that the air pressure measuring device and the control electronics are arranged directly on the inflow nozzle or indirectly via a front element upstream of the inflow nozzle, and in that the air pressure measuring device and the control electronics are designed integrally as a measuring module. a motor, a fan wheel, an inlet nozzle arranged upstream of the fan wheel, at least one air pressure measuring device with at least one air pressure sensor, control electronics connected to the air pressure measuring device, wherein the at least one air pressure measuring device is in direct operative connection with an inflow area and a nozzle pressure area determined by the inflow nozzle, characterized in that the air pressure measuring device and the control electronics are arranged directly on the inflow nozzle or indirectly via a front element upstream of the inflow nozzle, and in that the air pressure measuring device and the control electronics are designed integrally as a measuring module.
A LTE base station configured to map system information formed of a plurality of blocks SIBi, with i>1 to be transmitted with SI-periodicity, to predetermined regions of a downlink shared channel and transmit the mapped system information to a mobile station (200A, 200B), the base station comprising: a system information transmission control unit configured to divide each of the predetermined regions into a first half and a second half in a time direction; and a transmission data generation unit configured to map the system information to at least one of the first half and the second half, the base station being characterized in that the system information transmission control unit is further configured to switch positions of the first half and the second half in rotation every transmission SI-periodicity of the predetermined regions on the shared channel. a system information transmission control unit configured to divide each of the predetermined regions into a first half and a second half in a time direction; and a transmission data generation unit configured to map the system information to at least one of the first half and the second half, the base station being characterized in that the system information transmission control unit is further configured to switch positions of the first half and the second half in rotation every transmission SI-periodicity of the predetermined regions on the shared channel.
A computer system adapted to play audio files, said computer system comprising: a computer subsystem comprising a system CPU, a system computer bus and a drive for storing audio data (20', 22'); an audio controller comprising a drive interface for selectively accessing said audio data from said drive; and decoder circuitry for decoding said audio data and generating decoded audio data stream, said audio controller being adapted to access, store and play said audio data and being adapted to access said drive (20', 22') to retrieve said audio data and decode said audio data when said computer subsystem is in an inactive state; said audio controller further comprising a switch for switching said audio controller to an inactive state when a power is supplied to said computer subsystem such that said audio controller is decoupled from said computer system bus thereby becoming transparent to said drive (20', 22'), and for switching said audio controller to an active state when said power is not being supplied to said computer subsystem; characterized by that said audio controller comprising memory storing said audio data and memory (52; 58) storing updatable version of a decoder algorithm; said audio controller being adapted to send decoded audio data to an external MP3 player via an I/O interface when said audio controller is in said active state, wherein said audio controller further being adapted to be operated by function key functionality of said external player.
A method for data compression in a motion sensing device having an inertial measurement unit (152, 196) with a strap down integration unit and an application processing unit (154, 200), the method comprising: generating a first velocity increment and a first orientation increment at the inertial measurement unit (152, 196); rounding the first velocity increment and first orientation increment at the inertial measurement unit (152, 196), thereby producing a first rounded velocity increment, a first orientation increment, a first remainder velocity value and a first remainder orientation value; transmitting the first rounded velocity increment and first orientation increment to the application processing unit (154, 200); adding the first remainder velocity value and the first remainder orientation value to a subsequent velocity increment and orientation increment respectively at the inertial measurement unit (152, 196), prior to rounding of the subsequent velocity and orientation increments; and repeating the rounding, transmitting and adding steps for the subsequent velocity and orientation increments at the inertial measurement unit (152, 196). generating a first velocity increment and a first orientation increment at the inertial measurement unit (152, 196); rounding the first velocity increment and first orientation increment at the inertial measurement unit (152, 196), thereby producing a first rounded velocity increment, a first orientation increment, a first remainder velocity value and a first remainder orientation value; transmitting the first rounded velocity increment and first orientation increment to the application processing unit (154, 200); adding the first remainder velocity value and the first remainder orientation value to a subsequent velocity increment and orientation increment respectively at the inertial measurement unit (152, 196), prior to rounding of the subsequent velocity and orientation increments; and repeating the rounding, transmitting and adding steps for the subsequent velocity and orientation increments at the inertial measurement unit (152, 196).
A method to detect intrusion of one or more persons into a cargo hold of a vehicle carrying goods that emit carbon dioxide; the method comprising identifying an intrusion event by detecting that a decrease in concentration of carbon dioxide within the cargo hold occurs at a time that a geographic location of the vehicle does not correspond with an expected loading or unloading location for the vehicle.
Crimp tooling for crimping a terminal to a wire, the crimp tooling comprising: an anvil having a base and a tip with a cradle at the tip for supporting the terminal, the anvil having first and second anvil guide surfaces (170, 172) located relative to the cradle; and a wire crimper having first and second legs (144, 146) on opposite sides of a crimp slot, the crimp slot receiving the cradle, the wire crimper defining a crimp profile in the crimp slot configured to form the terminal during crimping, the first and second legs having first and second wire crimper guide surfaces (154, 156), respectively, the first and second wire crimper guide surfaces configured to engage the first and second anvil guide surfaces (170, 172), respectively, to guide a position of the wire crimper relative to the anvil, wherein the first wire crimper guide surface is configured to shift the wire crimper in a first direction when the first wire crimper guide surface engages the first anvil guide surface, wherein the second wire crimper guide surface is configured to shift the wire crimper in a second direction when the second wire crimper guide surface engages the second anvil guide surface and wherein the shifting of the wire crimper in the first and second directions serves to re-center the wire crimper relative to the anvil, characterized in that the wire crimper is configured to be positioned in a centered position wherein neither the first wire crimper guide surface nor the second wire crimper guide surface engages the corresponding first and second anvil guide surfaces (170, 172) during crimping. an anvil having a base and a tip with a cradle at the tip for supporting the terminal, the anvil having first and second anvil guide surfaces (170, 172) located relative to the cradle; and a wire crimper having first and second legs (144, 146) on opposite sides of a crimp slot, the crimp slot receiving the cradle, the wire crimper defining a crimp profile in the crimp slot configured to form the terminal during crimping, the first and second legs having first and second wire crimper guide surfaces (154, 156), respectively, the first and second wire crimper guide surfaces configured to engage the first and second anvil guide surfaces (170, 172), respectively, to guide a position of the wire crimper relative to the anvil, wherein the first wire crimper guide surface is configured to shift the wire crimper in a first direction when the first wire crimper guide surface engages the first anvil guide surface, wherein the second wire crimper guide surface is configured to shift the wire crimper in a second direction when the second wire crimper guide surface engages the second anvil guide surface and wherein the shifting of the wire crimper in the first and second directions serves to re-center the wire crimper relative to the anvil, characterized in that the wire crimper is configured to be positioned in a centered position wherein neither the first wire crimper guide surface nor the second wire crimper guide surface engages the corresponding first and second anvil guide surfaces (170, 172) during crimping.
An exhaust gas purification catalyst which contains a first catalyst component comprising as a carrier in form of a powder having a particle diameter of 0.1 - 1000 μm an inorganic oxide having heat resistance and a transition metal oxide supported on the surface of the inorganic oxide; and a second catalyst component comprising at least one alkali metal sulfate, said transition metal oxide catalyst supported on said carrier and said catalyst of said at least one alkali metal sulfate being provided separately.