mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a recycled liquid cartridge, the method comprising: (a) preparing a liquid cartridge to be recycled, the liquid cartridge comprising a liquid storing unit configured to store liquid therein, a liquid delivery path that is in fluid communication with the liquid storing unit and is configured to supply liquid externally from the liquid storing unit, the liquid delivery path having an opening, a blocking member detachably mounted in the liquid delivery path to block the opening, and a valve configured to be switched between an open state in which the liquid delivery path is opened and a closed state in which the liquid delivery path is closed, the valve being positioned between the opening and the liquid storing unit (S19, S41); (b) removing the blocking member from the liquid delivery path (S20, S42); (c) switching the valve from the closed state to the open state (S25,S45); (d) injecting liquid into the liquid storing unit through the opening with the blocking member removed in step (b) and the valve maintained in the open state achieved in step (c) (S28, S48); (e) switching the valve from the open state to the closed state after performing step (d) (S29, S49); and (f) assembling the blocking member or another blocking member different from the blocking member in the liquid delivery path to block the opening after performing step (e) (S30, S50). (a) preparing a liquid cartridge to be recycled, the liquid cartridge comprising a liquid storing unit configured to store liquid therein, a liquid delivery path that is in fluid communication with the liquid storing unit and is configured to supply liquid externally from the liquid storing unit, the liquid delivery path having an opening, a blocking member detachably mounted in the liquid delivery path to block the opening, and a valve configured to be switched between an open state in which the liquid delivery path is opened and a closed state in which the liquid delivery path is closed, the valve being positioned between the opening and the liquid storing unit (S19, S41); (b) removing the blocking member from the liquid delivery path (S20, S42); (c) switching the valve from the closed state to the open state (S25,S45); (d) injecting liquid into the liquid storing unit through the opening with the blocking member removed in step (b) and the valve maintained in the open state achieved in step (c) (S28, S48); (e) switching the valve from the open state to the closed state after performing step (d) (S29, S49); and (f) assembling the blocking member or another blocking member different from the blocking member in the liquid delivery path to block the opening after performing step (e) (S30, S50).
Process for fabricating at least one planar photodiode, comprising the following steps: o producing a stack formed: • from at least one semiconductor layer (53, 55) made based on a first crystalline semiconductor; and • from an antireflection layer that extends in contact with a first face of the semiconductor layer (53, 55) and that is formed from a plurality of sublayers (21, 22, 23) that lie parallel to one another, including a sublayer referred to as the seed sublayer, which is made based on a second crystalline semiconductor having a coefficient of thermal expansion lower than that of the first crystalline semiconductor; o producing at least one peripheral trench that extends through the semiconductor layer (53, 55) from a second face thereof opposite the first face and that opens onto the seed sublayer, bounding a section, referred to as the detecting section, of the semiconductor layer (53, 55); o producing a peripheral section made of the second crystalline semiconductor by epitaxy from the seed sublayer at a temperature, referred to as the epitaxy temperature, higher than room temperature, entirely filling the peripheral trench and thus being in contact with the detecting section; o decreasing the temperature to a value lower than the epitaxy temperature, the detecting section then being tensilely strained by the peripheral section. o producing a stack formed: • from at least one semiconductor layer (53, 55) made based on a first crystalline semiconductor; and • from an antireflection layer that extends in contact with a first face of the semiconductor layer (53, 55) and that is formed from a plurality of sublayers (21, 22, 23) that lie parallel to one another, including a sublayer referred to as the seed sublayer, which is made based on a second crystalline semiconductor having a coefficient of thermal expansion lower than that of the first crystalline semiconductor; • from at least one semiconductor layer (53, 55) made based on a first crystalline semiconductor; and • from an antireflection layer that extends in contact with a first face of the semiconductor layer (53, 55) and that is formed from a plurality of sublayers (21, 22, 23) that lie parallel to one another, including a sublayer referred to as the seed sublayer, which is made based on a second crystalline semiconductor having a coefficient of thermal expansion lower than that of the first crystalline semiconductor; o producing at least one peripheral trench that extends through the semiconductor layer (53, 55) from a second face thereof opposite the first face and that opens onto the seed sublayer, bounding a section, referred to as the detecting section, of the semiconductor layer (53, 55); o producing a peripheral section made of the second crystalline semiconductor by epitaxy from the seed sublayer at a temperature, referred to as the epitaxy temperature, higher than room temperature, entirely filling the peripheral trench and thus being in contact with the detecting section; o decreasing the temperature to a value lower than the epitaxy temperature, the detecting section then being tensilely strained by the peripheral section.
A resin composition comprising: an epoxy resin represented by the following formula; and a cyanate compound, wherein n represents an integer of 0 to 15. an epoxy resin represented by the following formula; and a cyanate compound, wherein n represents an integer of 0 to 15.
A damper assembly for a toggle type hinge with a mounting flange and a hinge arm assembly pivotally connected thereto, the damper assembly comprising a damping device actuable along a linear axis, a housing mounted in use directly or indirectly on the mounting flange and retaining the damping device thereon with its linear axis parallel to the pivotal axis of the hinge, and means for converting pivotal movement of the hinge into linear actuation of the damping device over at least part of the range of pivotal movement of the hinge in one direction, wherein the movement converting means comprises an actuating lever connected to the damping device and engageable with the hinge arm assembly via a first camming mechanism, the movement converting means also comprising a second camming mechanism, wherein the first camming mechanism comprises a first camming surface on the actuating lever, whereby the hinge arm assembly engages with the first camming surface to cause the actuating lever to rotate in response to pivotal movement of the hinge arm assembly, and wherein the second camming mechanism comprises a second camming surface on the housing, whereby a side face of the actuating lever acts against the second camming surface to cause linear displacement of the actuating lever in response to its rotational movement. wherein the movement converting means comprises an actuating lever connected to the damping device and engageable with the hinge arm assembly via a first camming mechanism, the movement converting means also comprising a second camming mechanism, wherein the first camming mechanism comprises a first camming surface on the actuating lever, whereby the hinge arm assembly engages with the first camming surface to cause the actuating lever to rotate in response to pivotal movement of the hinge arm assembly, and wherein the second camming mechanism comprises a second camming surface on the housing, whereby a side face of the actuating lever acts against the second camming surface to cause linear displacement of the actuating lever in response to its rotational movement.
A Space-Time coding device for encoding a digital data sequence according to a predefined space-time coding rate, said data sequence comprising a set of modulated symbols to be transmitted over at least two propagation modes, during a number of time slots, through an optical transmission channel in a single-core multimode optical fiber transmission system, wherein the device comprises: - a codebook generator configured to determine a set of codeword matrices defining a space-time code represented by a space dimension and a temporal dimension, each codeword matrix comprising complex values and a number of columns equal to said code temporal dimension, and a number of rows equal to said code space dimension, characterized in that the codebook generator is further configured to associate a difference codeword matrix and a distance metric to each pair of codeword matrices among said set of codeword matrices, each component of a difference codeword matrix associated with a given pair of codeword matrices being equal to the difference between the corresponding components of the codeword matrices of said pair, the distance metric associated with a given pair of codeword matrices being determined by computing the Euclidean norm of the difference codeword matrix associated with said pair, wherein the codebook generator is configured to select the components of the codeword matrices depending on the number of pairs of codeword matrices that are associated with a unitary difference codeword matrix and with a distance metric equal to a given Euclidean distance; and by comprising - an encoding unit configured to encode said set of modulated symbols into a codeword matrix selected from said set of codeword matrices. - a codebook generator configured to determine a set of codeword matrices defining a space-time code represented by a space dimension and a temporal dimension, each codeword matrix comprising complex values and a number of columns equal to said code temporal dimension, and a number of rows equal to said code space dimension, characterized in that the codebook generator is further configured to associate a difference codeword matrix and a distance metric to each pair of codeword matrices among said set of codeword matrices, each component of a difference codeword matrix associated with a given pair of codeword matrices being equal to the difference between the corresponding components of the codeword matrices of said pair, the distance metric associated with a given pair of codeword matrices being determined by computing the Euclidean norm of the difference codeword matrix associated with said pair, wherein the codebook generator is configured to select the components of the codeword matrices depending on the number of pairs of codeword matrices that are associated with a unitary difference codeword matrix and with a distance metric equal to a given Euclidean distance; and by comprising - an encoding unit configured to encode said set of modulated symbols into a codeword matrix selected from said set of codeword matrices.
A wireless communication device, WCD, comprising: a receiver to generate a received signal, the received signal including at least a first signal transmitted to the WCD by a network station operating in a full-duplex mode while the WCD operates in a half-duplex mode; and characterized by: a module to generate an interference cancellation signal for the received signal based on interference information obtained from at least the received signal, the interference information associated with a second signal transmitted to the network station by an additional device, wherein the first signal by the network station is transmitted to the WCD in the same time interval as the second signal by the additional device is transmitted, and the first and second signals include a same radio-frequency, RF, carrier; and a subtractor to subtract the interference cancellation signal from the received signal before the received signal is applied to the module. a module to generate an interference cancellation signal for the received signal based on interference information obtained from at least the received signal, the interference information associated with a second signal transmitted to the network station by an additional device, wherein the first signal by the network station is transmitted to the WCD in the same time interval as the second signal by the additional device is transmitted, and the first and second signals include a same radio-frequency, RF, carrier; and a subtractor to subtract the interference cancellation signal from the received signal before the received signal is applied to the module.
A propulsion system for an aircraft having a structural member, the propulsion system comprising: an electric propulsion engine configured to be mounted to the aircraft, the electric propulsion engine defining a central axis and comprising: an electric motor; a power gearbox mechanically coupled to the electric motor; a fan rotatable about the central axis of the electric propulsion engine by the electric motor through the power gearbox; and an attachment assembly for mounting at least one of the electric motor or the power gearbox, the attachment assembly including a torsional damper for accommodating torsional vibration of the electric motor or the power gearbox; wherein the electric motor is mechanically coupled to the power gearbox through a drive shaft, and wherein the power gearbox is mechanically coupled to the fan through a fan shaft, wherein the drive shaft comprises a flexible element for accommodating misalignment. an electric propulsion engine configured to be mounted to the aircraft, the electric propulsion engine defining a central axis and comprising: an electric motor; a power gearbox mechanically coupled to the electric motor; a fan rotatable about the central axis of the electric propulsion engine by the electric motor through the power gearbox; and an attachment assembly for mounting at least one of the electric motor or the power gearbox, the attachment assembly including a torsional damper for accommodating torsional vibration of the electric motor or the power gearbox; an electric motor; a power gearbox mechanically coupled to the electric motor; a fan rotatable about the central axis of the electric propulsion engine by the electric motor through the power gearbox; and an attachment assembly for mounting at least one of the electric motor or the power gearbox, the attachment assembly including a torsional damper for accommodating torsional vibration of the electric motor or the power gearbox; wherein the electric motor is mechanically coupled to the power gearbox through a drive shaft, and wherein the power gearbox is mechanically coupled to the fan through a fan shaft, wherein the drive shaft comprises a flexible element for accommodating misalignment.
A method of manufacturing a syringe cartridge with a flexible inner bag, the content of which is dischargeable by the advance of a syringe piston, characterised by the following steps: a) producing a substantially cylindrical container without a base wall from a first plastic material, wherein at least one annular groove is formed at the front edge of the container; b) arranging the container in an injection mould, wherein the injection mould closes the open base of the container; c) inserting a mould core of a smaller diameter into the container such that an annular gap between the mould core and the inner wall and a cavity at the end of the mould core remain; d) closing the injection mould and injecting a second material for the inner bag, which forms no connection with the first material, into the annular gap, the at least one annular groove and the cavity; e) opening the injection mould, retracting the mould core from the container and removing the container with an attached inner bag. a) producing a substantially cylindrical container without a base wall from a first plastic material, wherein at least one annular groove is formed at the front edge of the container; b) arranging the container in an injection mould, wherein the injection mould closes the open base of the container; c) inserting a mould core of a smaller diameter into the container such that an annular gap between the mould core and the inner wall and a cavity at the end of the mould core remain; d) closing the injection mould and injecting a second material for the inner bag, which forms no connection with the first material, into the annular gap, the at least one annular groove and the cavity; e) opening the injection mould, retracting the mould core from the container and removing the container with an attached inner bag.
A solid oxide fuel cell apparatus comprising a fuel cell having a plate-shaped first solid electrolyte body, a fuel electrode provided on one side of the first solid electrolyte body and coming in contact with fuel gas, and an air electrode provided on the other side of the first solid electrolyte body and coming in contact with oxidizer gas, the solid oxide fuel cell apparatus further comprising a cell-follow-up deformation member (4, 5) located on at least one of opposite sides of the fuel cell with respect to a first stacking direction along which the fuel electrode, the first solid electrolyte body, and the air electrode are stacked together, the cell-follow-up deformation member (4, 5) deforming according to a deformation of the fuel cell on the basis of at least one of physical quantities including differential thermal expansion coefficient and differential pressure, characterised in that the cell-follow-up deformation member (4, 5) comprises: an electricity-nongenerating laminate configured such that a plate-shaped second solid electrolyte body and a plate-shaped different-thermal-expansion member are laminated together, the different-thermal-expansion member being provided on one side of the second solid electrolyte body and having a thermal expansion coefficient different from that of the second solid electrolyte body, and configured so as not to contribute to electricity generation; and a plate-shaped electrically conductive member whose one side is in contact with the fuel cell and whose other side is in contact with the electricity-nongenerating laminate. an electricity-nongenerating laminate configured such that a plate-shaped second solid electrolyte body and a plate-shaped different-thermal-expansion member are laminated together, the different-thermal-expansion member being provided on one side of the second solid electrolyte body and having a thermal expansion coefficient different from that of the second solid electrolyte body, and configured so as not to contribute to electricity generation; and a plate-shaped electrically conductive member whose one side is in contact with the fuel cell and whose other side is in contact with the electricity-nongenerating laminate.
A network access method for a low power terminal, comprising: finding, by a low power terminal, at least one high performance terminal in a first resource pool based on a synchronization signal and a broadcast channel of a virtual micro cell that are sent by a high performance terminal, wherein the high performance terminal is a terminal for which the virtual micro cell has been established, and the first resource pool comprises time-frequency resources that are allocated by a base station and are used by all high performance terminals to send synchronization signals and broadcast channels of virtual micro cells; determining, by the low power terminal from all found high performance terminals, a first high performance terminal that needs to be used to access a network, wherein the first high performance terminal has accessed the network; obtaining, by the low power terminal, configuration information through a broadcast channel of a virtual micro cell of the first high performance terminal, wherein the configuration information comprises a second resource pool; and sending, by the low power terminal, a random access request to the first high performance terminal by using a resource in the second resource pool, so that the low power terminal accesses, by using the first high performance terminal, the network accessed by the first high performance terminal. finding, by a low power terminal, at least one high performance terminal in a first resource pool based on a synchronization signal and a broadcast channel of a virtual micro cell that are sent by a high performance terminal, wherein the high performance terminal is a terminal for which the virtual micro cell has been established, and the first resource pool comprises time-frequency resources that are allocated by a base station and are used by all high performance terminals to send synchronization signals and broadcast channels of virtual micro cells; determining, by the low power terminal from all found high performance terminals, a first high performance terminal that needs to be used to access a network, wherein the first high performance terminal has accessed the network; obtaining, by the low power terminal, configuration information through a broadcast channel of a virtual micro cell of the first high performance terminal, wherein the configuration information comprises a second resource pool; and sending, by the low power terminal, a random access request to the first high performance terminal by using a resource in the second resource pool, so that the low power terminal accesses, by using the first high performance terminal, the network accessed by the first high performance terminal.
An injector (10; 310) for injecting a flat fan of liquid comprising: a) an injector body defining a pair of air channels (134; 334), each air channel fluidly connected to a respective air inlet (112; 312), b) a liquid inlet (140; 340) defined in a land proximate a throat (136; 336), wherein the air channels and liquid inlet are in proximity to draw liquid out of the liquid inlet into the throat with air flowing through the air channels; and c) a diffuser (142; 342) in fluid communication with the throat which forms a fan of liquid spray diverging outward through the diffuser; characterised in that the air channels join one another at the common throat (136; 336) defined in the injector body and are separated by the land (138; 338) defined in the injector body extending from the air inlets to a point proximate the throat; and the diffuser has a width that diverges over a length from the throat to an outlet of the injector body, wherein the diffuser includes an impingement surface (146; 346) defined in the injector body opposed to the liquid inlet, and wherein the liquid inlet is configured to inject liquid against the impingement surface. a) an injector body defining a pair of air channels (134; 334), each air channel fluidly connected to a respective air inlet (112; 312), b) a liquid inlet (140; 340) defined in a land proximate a throat (136; 336), wherein the air channels and liquid inlet are in proximity to draw liquid out of the liquid inlet into the throat with air flowing through the air channels; and c) a diffuser (142; 342) in fluid communication with the throat which forms a fan of liquid spray diverging outward through the diffuser;