mhurhangee/ep-ind-claims huggingface dataset:
A light scanning device, comprising: - a deflection unit that is adapted to deflect a first and a second light beam emitted from a light source (43a, 43b) to scan in a main-scanning direction; - a first imaging lens having a bottom surface adhesively secured to a housing via a plurality of adhesion portions, wherein the first imaging lens is adapted to image the first light beam on a scan object surface, the first light beam being deflected by the deflection unit to scan; and - a second imaging lens having a bottom surface adhesively secured to a top surface of the first imaging lens via a plurality of adhesion portions, wherein the second imaging lens is adapted to image the second light beam on the scan object surface, the second light beam being deflected by the deflection unit to scan, wherein the plurality of the adhesion portions interposed between the first imaging lens and the housing are symmetrically located with respect to a center position of the first imaging lens in the main-scanning direction, and wherein the plurality of the adhesion portions interposed between the first imaging lens and the second imaging lens are symmetrically located with respect to the center position of the first imaging lens in the main-scanning direction, and are located in the main-scanning direction outside with respect to the plurality of the adhesion portions between the first imaging lens and the housing. - a deflection unit that is adapted to deflect a first and a second light beam emitted from a light source (43a, 43b) to scan in a main-scanning direction; - a first imaging lens having a bottom surface adhesively secured to a housing via a plurality of adhesion portions, wherein the first imaging lens is adapted to image the first light beam on a scan object surface, the first light beam being deflected by the deflection unit to scan; and - a second imaging lens having a bottom surface adhesively secured to a top surface of the first imaging lens via a plurality of adhesion portions, wherein the second imaging lens is adapted to image the second light beam on the scan object surface, the second light beam being deflected by the deflection unit to scan,
A method performed by a terminal device for communicating with a network infrastructure equipment in a wireless telecommunications system using radio resources comprising a narrowband carrier supported within a wider system frequency bandwidth of the wireless telecommunications system, wherein the wider system frequency bandwidth is divided into predefined groups of physical resource blocks and wherein the method comprises: establishing initial frequencies for the radio resources comprising the narrowband carrier; receiving configuration signalling using radio resource control, RRC, signalling from the network infrastructure equipment indicating a frequency shift to apply to the initial frequencies for the radio resources comprising the narrowband carrier; establishing shifted frequencies for the radio resources comprising the narrowband carrier by applying the indicated frequency shift to the initial frequencies; and communicating with the network infrastructure equipment using the radio resources for the narrowband carrier with the shifted frequencies; wherein the narrowband carrier is one of a plurality of narrowband carriers supported within the wider system frequency bandwidth of the wireless telecommunications system, and wherein the configuration signalling received from the network infrastructure equipment indicates a frequency shift for each of the narrowband carriers; and wherein the frequency shift for a first group of the narrowband carriers and the frequency shift for a second group of the narrowband carriers have different magnitudes; and wherein the frequency shift is such that boundaries of the narrowband carriers align with boundaries between the predefined groups of physical resource blocks. wherein the narrowband carrier is one of a plurality of narrowband carriers supported within the wider system frequency bandwidth of the wireless telecommunications system, and wherein the configuration signalling received from the network infrastructure equipment indicates a frequency shift for each of the narrowband carriers; and wherein the frequency shift for a first group of the narrowband carriers and the frequency shift for a second group of the narrowband carriers have different magnitudes; and wherein the frequency shift is such that boundaries of the narrowband carriers align with boundaries between the predefined groups of physical resource blocks.
Adjusting device with a base body, at least two drive elements realizing a drive motion, and a platform movable relative to said base body, where each of said drive elements abuts against a lever transmission device that is associated with the former, and the drive motion of a drive element transmitted with said lever transmission device is transferable to said platform via a joint element connected to said lever transmission device and said platform, so that said platform can perform a defined adjustment motion relative to said base body in the form of a tilting motion about an axis passing through said platform and/or in the form of a translational motion parallel to an axis which is arranged perpendicular to a platform plane defined by said platform, where said joint elements allow for a tilting motion of said platform solely about the at least one tilting axis, characterized in that a spring element used for guiding the adjustment motion and firmly connected to said base body is furthermore arranged at said platform, where said spring element counteracts a corresponding parasitic translational motion in the platform plane and a corresponding parasitic rotatory motion of said platform about an axis of rotation arranged perpendicular to the platform plane due to the adjustment motion, respectively, wherein said lever transmission device comprises at least two interacting lever sections.
A plastic blow molded container, comprising: a hollow body portion including a lower supporting base portion; a sidewall portion extending upwardly from the base portion; and a neck portion extending upwardly from the sidewall portion, the neck portion including a support flange having an upper and lower surface and threads; a tamper-evident formation having a lower surface; and a dispensing opening at the top of the neck portion, the dispensing opening having a top and an inner diameter that is at least 22 mm; characterised in that the vertical distance from the top of the dispensing opening to the lower surface of the support flange, including the threads and the tamper-evident formation, is 14,732 mm (0.580 inches) or less and wherein the vertical distance from the lower surface of the tamper-evident formation to the top of the dispensing opening is 7,62 mm (0.30 inch) or less.
Gas valve unit for setting a gas volume flow fed to a gas burner of a gas device, in particular a gas cooking appliance, wherein the gas valve unit has a plurality N of on-off valves (2.1-2.9), wherein each on-off valve (2.1-2.9) has a movable valve body with a shut-off body and an activation area, a closing spring (6.1-6.9) which, when the on-off valve (2.1-2.9) is closed, pushes the shut-off body onto a sealing seat and through this closes an opening, and has a driver which is embodied to lift the shut-off body away from the sealing seat for opening the on-off valve (2.1-2.9) by means of a force caused by the driver engaging into the activation area against the force of the closing spring (6.1-6.9), wherein the shut-off bodies of the individual on-off valves (2.1-2.9) are disposed on a circular track around an axis of the gas valve unit and the shut-off bodies are able to be moved parallel to this axis, characterised in that the valve body has a shoulder area which is embodied to accept a torque arising on engagement of the driver into the activation area.
A disc tumbler cylinder lock and key combination, in which the disc tumbler cylinder lock comprises rotation limiting means, and the key comprises guidance surfaces for the rotation limiting means, which rotation limiting means comprise a frame, which comprises a key profile opening, and a casing, which at least partially surrounds the frame, characterized in that the frame comprises a limiting mechanism and a locking mechanism, which are disposed in a line such that the limiting mechanism is on the other side of the key profile opening and the locking mechanism is on the opposite side of the key profile opening, which locking mechanism comprises a locking pin directed along said line, which locking pin comprises, at the end of the casing side, a projection that is transverse in relation to the axis of the locking pin, which projection is arranged, in cooperation with the casing, to prevent the frame from turning, when the key is not in the disc tumbler cylinder lock or fully inserted into the disc tumbler cylinder lock, which key comprises a through hole, in which hole is disposed a moving element, which is arranged to move in the hole such that it is prevented from moving completely away from the hole, wherein the surfaces of the moving element, which are visible from the through hole, form said guidance surfaces, in which combination, when the key is in the disc tumbler cylinder lock for the purpose of opening the lock, the through hole and moving element are in the same line with the limiting mechanism and the locking mechanism, and which limiting mechanism is arranged to push the moving element out of the hole onto the opposite side of the key profile opening, and to allow turning of the key, and which locking mechanism is arranged, in response to the pushing of the moving element, to release the barrier formed by the cooperation of the casing and the projection of the locking pin.
A resin-coated metal sheet for forming into a container in a shaping process, the metal sheet comprising: a first resin coat layer provided on a first surface of the metal sheet, the first surface for being an outside surface of the container; and a second resin coat layer provided on a second surface of the metal sheet, the second surface for being an inside surface of the container, wherein each of the first and the second resin coat layers (3, 4) is composed mainly of a polyester resin having a melting point of 230°C to 254°C, and the first resin coat layer is formed of a resin material having: an arithmetic average roughness, Ra, of 0.10 μm to 1.0 μm in a state that the resin coat layers coat the metal sheet; a crystallization temperature of 110°C to 160°C in the state that the resin coat layers coat the metal sheet; and a water contact angle of 55 degrees to 80 degrees in a state that the resin coat layers have been heated at 240°C for 90 seconds after the resin coat layers coat the metal sheet, wherein the first resin coat layer includes 0.010% by mass to 0.10% by mass of a polyethylene wax, wherein the melting point, the arithmetic average roughness, the crystallization temperature and the water content angle are obtained as described in the description. a first resin coat layer provided on a first surface of the metal sheet, the first surface for being an outside surface of the container; and a second resin coat layer provided on a second surface of the metal sheet, the second surface for being an inside surface of the container, wherein each of the first and the second resin coat layers (3, 4) is composed mainly of a polyester resin having a melting point of 230°C to 254°C, and the first resin coat layer is formed of a resin material having: an arithmetic average roughness, Ra, of 0.10 μm to 1.0 μm in a state that the resin coat layers coat the metal sheet; a crystallization temperature of 110°C to 160°C in the state that the resin coat layers coat the metal sheet; and a water contact angle of 55 degrees to 80 degrees in a state that the resin coat layers have been heated at 240°C for 90 seconds after the resin coat layers coat the metal sheet, an arithmetic average roughness, Ra, of 0.10 μm to 1.0 μm in a state that the resin coat layers coat the metal sheet; a crystallization temperature of 110°C to 160°C in the state that the resin coat layers coat the metal sheet; and a water contact angle of 55 degrees to 80 degrees in a state that the resin coat layers have been heated at 240°C for 90 seconds after the resin coat layers coat the metal sheet, wherein the first resin coat layer includes 0.010% by mass to 0.10% by mass of a polyethylene wax, wherein the melting point, the arithmetic average roughness, the crystallization temperature and the water content angle are obtained as described in the description.
A polycarbonate foamed article, comprising: a polycarbonate polymeric material having structural units derived from 2-hydrocarbyl-3,3-bis(hydroxyphenyl)phthalimidine compound; and an average cell size of 1 nanometer to 1000 nanometers. a polycarbonate polymeric material having structural units derived from 2-hydrocarbyl-3,3-bis(hydroxyphenyl)phthalimidine compound; and an average cell size of 1 nanometer to 1000 nanometers.
An optical device comprising, a plurality of light sources each operable to provide a light beam; at least one beam combiner which is operable to combine the light beams from the plurality of light sources, to provide a combined light beam; a beam splitter, which is arranged to receive the combined light beam and to split the combined light beam at a first surface of the beam splitter into a primary light beam and a secondary light beam, wherein one or more characteristics of the secondary light beam are indicative of one or more characteristics of the primary light beam, wherein the the primary light beam is reflected at the first surface of the beam splitter and the secondary light beam is passed through the first surface of the beam splitter and emitted from a second surface of the beam splitter; a mirror component which comprises a mirror, wherein the mirror component is arranged such that the mirror can reflect the primary light beam which is reflected at the first surface of the beam splitter and wherein the mirror can oscillate about at least one oscillation axis to scan the primary light beam; wherein the optical device further comprises a photodiode which is configured to receive the secondary light beam and to detect one or more characteristics of the secondary light beam, wherein the photodiode is configured such that a surface of the photodiode is offset from being parallel to at least one of the first surface or second surface of the a beam splitter, to reduce the amount of parasitic light which is directed to the mirror.
An integrated device comprising a resonator with vibrating element(s) placed in an oscillating circuit controlled by a servo-loop, the oscillating circuit providing an oscillation signal at a constant frequency or at a variable frequency representing the measurement of a physical quantity, this oscillation signal serving to formulate an output signal of the integrated device and the output signal representing a time base or a measurement of the physical quantity, with a desired nominal precision, and a circuit for measuring the quality factor of the resonator configured to perform a measurement of the quality factor during a phase of cut-off of the servo-loop, characterised in that the integrated device is configured to provide the output signal, even during the cut-off phase, and in that the circuit for measuring the quality factor comprises a sequencing circuit configured to limit to a value T d the duration of the cut-off phase of the servo-loop, said value T d being such that at the end of the cut-off phase, the peak amplitude of the oscillation signal is attenuated by a factor k that is less than a limit value k 0 for which the time base or the measurement of the physical quantity would no longer be obtained with the desired precision.
A method adapted for use in a wireless docking environment for docking a first device with a docking station, wherein the first device and the docking station comprise a transceiver and an antenna for tranmission and reception of Wi-Fi RF signals, the method comprising: using device discovery for detecting that said docking station and the first device are within Wi-Fi wireless communication range; following detection, establishing a Wi-Fi communication path between the first device and the docking station; the method characterized by at either the first device or the docking station acting as a receiving device measuring a received signal characteristic level for a received Wi-Fi RF signal; comparing the received signal characteristic level to a determined threshold, wherein the determined threshold exceeds a minimum signal strength level required for establishing communication between the first device and the docking station; and transitioning a state of the first device to a docked state with the docking station at least when the received signal characteristic level exceeds the determined threshold. using device discovery for detecting that said docking station and the first device are within Wi-Fi wireless communication range; following detection, establishing a Wi-Fi communication path between the first device and the docking station; the method characterized by at either the first device or the docking station acting as a receiving device measuring a received signal characteristic level for a received Wi-Fi RF signal; comparing the received signal characteristic level to a determined threshold, wherein the determined threshold exceeds a minimum signal strength level required for establishing communication between the first device and the docking station; and transitioning a state of the first device to a docked state with the docking station at least when the received signal characteristic level exceeds the determined threshold.
Method using a device for a heat pump erected outside, which contains a refrigeration circuit with an inflammable working fluid, the device having - a housing with at least one opening, - at least one container with fire extinguishing powder under pressure, - a gas detector with a measurement of the content of gaseous working fluid, - a switchable shut-off valve which is connected under pressure to the container and wherein a dispersion device for fire extinguishing powder is provided at its outlet, - an outlet line into the housing which is connected to the shut-off valve, characterised in that - the triggering of the release of the fire extinguishing powder is fixed at a threshold which is above the warning threshold of 40% of the ignition capability limit or higher and the fire extinguishing powder is finally nebulised or atomised under pressure when triggering occurs. - a housing with at least one opening, - at least one container with fire extinguishing powder under pressure, - a gas detector with a measurement of the content of gaseous working fluid, - a switchable shut-off valve which is connected under pressure to the container and wherein a dispersion device for fire extinguishing powder is provided at its outlet, - an outlet line into the housing which is connected to the shut-off valve, characterised in that - the triggering of the release of the fire extinguishing powder is fixed at a threshold which is above the warning threshold of 40% of the ignition capability limit or higher and the fire extinguishing powder is finally nebulised or atomised under pressure when triggering occurs.
A method of operating a Fault Current Limiter Circuit Breaker, FLCB, comprising a plurality of FLCB modules connected in series, including at least a first module and a second module, each module comprising a plurality of parallel component legs comprising: a mechanical switch leg comprising a mechanical switch; a semiconductor switch leg comprising a semiconductor switch (4a; 4b); and a Metal Oxide Varistor, MOV, leg comprising a MOV; the method comprising: when the FLBC is in an open configuration, obtaining (Si) an indication that the FLCB should be closed; in response to the obtained (Si) indication, closing the semiconductor switch (4a; 4b) of each of the modules; and after the closing of the semiconductor switches (4a; 4b) and while the mechanical switch of the second module remains open, closing the mechanical switch of the first module. a mechanical switch leg comprising a mechanical switch; a semiconductor switch leg comprising a semiconductor switch (4a; 4b); and a Metal Oxide Varistor, MOV, leg comprising a MOV; the method comprising: when the FLBC is in an open configuration, obtaining (Si) an indication that the FLCB should be closed; in response to the obtained (Si) indication, closing the semiconductor switch (4a; 4b) of each of the modules; and after the closing of the semiconductor switches (4a; 4b) and while the mechanical switch of the second module remains open, closing the mechanical switch of the first module. when the FLBC is in an open configuration, obtaining (Si) an indication that the FLCB should be closed; in response to the obtained (Si) indication, closing the semiconductor switch (4a; 4b) of each of the modules; and after the closing of the semiconductor switches (4a; 4b) and while the mechanical switch of the second module remains open, closing the mechanical switch of the first module.
A locking arrangement for a dust container in an industrial vacuum cleaner arrangement wherein said locking arrangement is adapted to lock the dust container into engagement with the industrial vacuum cleaner arrangement, the industrial vacuum cleaner arrangement comprises supporting means to support the locking arrangement and said locking arrangement comprises a lifting cog, a connection axis, and a swivel arm adapted to be moved between a first and second horizontal position, characterized in that said connection axis is adapted to fit in a hole in the supporting means creating a revolving axel engagement, and the lifting cog is a single lifting cog arranged to engage with the supporting means enabling the lifting cog to, through contact engagement, operate the dust container between an upper and lower position when the swivel arm is moved between said first and said second position.
A method, comprising: receiving an end of transmission, EOT, request from a client at an access point, AP; and responsive to receiving the EOT request, the AP transmitting an EOT frame, such that the EOT frame can be received by all nodes in a basic service set, BSS, that includes the client and the AP, wherein the EOT frame is transmitted at a basic rate, the basic rate being a rate decodable by all the nodes in the BSS including the client and the AP, so that all the nodes in the BSS resume their backoff at the same time. receiving an end of transmission, EOT, request from a client at an access point, AP; and responsive to receiving the EOT request, the AP transmitting an EOT frame, such that the EOT frame can be received by all nodes in a basic service set, BSS, that includes the client and the AP, wherein the EOT frame is transmitted at a basic rate, the basic rate being a rate decodable by all the nodes in the BSS including the client and the AP, so that all the nodes in the BSS resume their backoff at the same time.