mhurhangee/ep-ind-claims huggingface dataset:
A print head assembly, PHA, comprising: a plurality of modular, microelectromechanical systems, MEMS, dice mounted to a substrate, each MEMS die comprising: an opening defined in the die, a plurality of nozzles adjacent to the opening in fluid communication with the opening, and a pad to receive electrical control signals; and a plurality of transmission lines that transmit electrical signals to the MEMS dice; characterised in that the print head assembly further comprises a unified on-board controller in the form of an application specific integrated circuit, ASIC, mounted to the substrate separately from the MEMS dice and connected to said plurality of transmission lines. a plurality of modular, microelectromechanical systems, MEMS, dice mounted to a substrate, each MEMS die comprising: an opening defined in the die, a plurality of nozzles adjacent to the opening in fluid communication with the opening, and a pad to receive electrical control signals; and an opening defined in the die, a plurality of nozzles adjacent to the opening in fluid communication with the opening, and a pad to receive electrical control signals; and a plurality of transmission lines that transmit electrical signals to the MEMS dice; characterised in that the print head assembly further comprises a unified on-board controller in the form of an application specific integrated circuit, ASIC, mounted to the substrate separately from the MEMS dice and connected to said plurality of transmission lines.
A controller which is configured for controlling the amount and timing of the lubricant injection by at least one injector which is arranged in a cylinder of a large slow-running two-stroke engine with a reciprocal piston inside and with a plurality of injectors; the controller being configured for connection by a feed conduit to at least one of the injectors for supplying lubricant from the controller to the injector for injection of the lubricant by the injector into the cylinder; wherein the controller comprises a dosing unit, the dosing unit comprising a dosing chamber and a chamber outlet configured for connection to the feed conduit, and whereon the dosing unit is configured for cyclic operation between an accumulation phase and a subsequent injection phase, wherein the accumulation phase comprises accumulation of lubricant in the dosing chamber, and the subsequent injection phase comprises dispensing the accumulated lubricant from the dosing chamber through the chamber outlet to the at least one injectors; the controller further comprising a flow meter connected to the dosing chamber and configured for measuring the mass and/or volume of the lubricant flowing into the dosing chamber in the accumulation phase, and wherein the controller is configured for providing a corresponding flow-indicating signal from the flow meter, the flow-indicating signal being a measure for the injected mass and/or volume of lubricant of the preceding injection phase, characterised in that the flow meter comprises an upstream connection to a lubricant refill conduit for refilling the dosing chamber through the flow meter with lubricant from the lubricant refill conduit in the accumulation phase, wherein the dosing chamber has a downstream connection to a non-return valve for preventing flow in reverse through the flow meter.
An antagonist to angiopoietin like 4 protein (ANGPTL4) that reduces cell proliferation and reduces the level of Reactive Oxygen Species in a cell, wherein the antagonist comprises an interfering RNA sequence as set out in SEQ ID NO. 6 or SEQ ID NO. 7.
Device for flow monitoring in a pipe system, preferentially a drinking water pipe system containing a throttle element, wherein the throttle element opens or closes according to the volume flow, wherein the throttle element has an opening threshold value p D, characterized in that the device comprises two pressure sensors (4, 5) or a differential pressure sensor with two sensor elements (4, 5), a control for evaluating the determined pressures of the sensors (4, 5) or of the sensor elements (4, 5), wherein a pressure sensor or a sensor element is arranged before the throttle element on the primary side and the other sensor or the other sensor element after the throttle element on the secondary side and the throttle element is in the open position when the medium pressure (p vor) before the throttle element is greater than the medium pressure (p nach) after the throttle element and the opening threshold value (p D) of the throttle element together (p nachtot), wherein the throttle element is in the closed position when the pressure (p vor) is lower than the opening threshold value (p D) of the throttle element and the prevailing medium pressure (p nach) after the throttle element together, characterized in that the throttle element is configured as inclined seat valve body with spring element or as straight seat valve.
A rescue passage window for a passenger train, comprising an aluminum alloy outer frame, hollow tempered glass, a movable sash, a fixed sash, a locking device, a rotating device and a sealing device, wherein: the aluminum alloy outer frame is a carrier to connect the structures of any other parts, the hollow tempered glass is inlaid on the aluminum alloy outer frame by the sealing device to form the fixed sash and the movable sash, the movable sash is suspended on the cross beam of the aluminum alloy outer frame by the rotating device to put into effect its connection with the aluminum alloy outer frame, stable locking between the movable sash and the aluminum alloy outer frame is put into effect by the locking device, and connection and sealing between the movable sash and the aluminum alloy outer frame is realized by the sealing device; the aluminum alloy outer frame is also provided with rapid tightening screws able to rapidly tighten the rescue passage window to a passenger train body, and the rapid tightening screws being able to press the passenger train body when finishing installation of the rescue passage window; characterized in that the locking device comprises a lock body, a lock core, a lock tongue and a locking plate; the lock body, the lock core and the lock tongue are inlaid inside the frame of the movable sash, and the locking plate is inlaid onto the corresponding position of the aluminum alloy outer frame; the lock tongue is provided with a side opening, thereby putting into effect the locking limit to the movable sash and the compression to the movable sash when the lock core drives the lock tongue to revolve into the locking plate. the aluminum alloy outer frame is a carrier to connect the structures of any other parts, the hollow tempered glass is inlaid on the aluminum alloy outer frame by the sealing device to form the fixed sash and the movable sash, the movable sash is suspended on the cross beam of the aluminum alloy outer frame by the rotating device to put into effect its connection with the aluminum alloy outer frame, stable locking between the movable sash and the aluminum alloy outer frame is put into effect by the locking device, and connection and sealing between the movable sash and the aluminum alloy outer frame is realized by the sealing device; the aluminum alloy outer frame is also provided with rapid tightening screws able to rapidly tighten the rescue passage window to a passenger train body, and the rapid tightening screws being able to press the passenger train body when finishing installation of the rescue passage window; characterized in that the locking device comprises a lock body, a lock core, a lock tongue and a locking plate; the lock body, the lock core and the lock tongue are inlaid inside the frame of the movable sash, and the locking plate is inlaid onto the corresponding position of the aluminum alloy outer frame; the lock tongue is provided with a side opening, thereby putting into effect the locking limit to the movable sash and the compression to the movable sash when the lock core drives the lock tongue to revolve into the locking plate.
A light emitting diode system comprising: - a light emitting diode lamp string comprising a plurality of light emitting diode units and configured to receive power supplied through power lines to emit light; - a signal voltage unit electrically connected to the light emitting diode lamp string; and - a control unit electrically connected to the signal voltage unit, wherein the control unit is configured to drive the signal voltage unit in order to generate a light signal comprising a plurality of pulse waves to be provided to the light emitting diode lamp string, thereby adjusting a voltage of the light emitting diode lamp string continuously and repeatedly so that the voltage of the light emitting diode lamp string is a predetermined voltage; characterized in that: - -the control unit is configured to provide a control voltage to the signal voltage unit, thereby controlling a conduction rate of the signal voltage unit in order to generate the light signal; - each of the light emitting diode units comprises an address and data identifier configured to perform a conversion and a decoding of the light signal to obtain a lighting mode of the light signal, wherein the address and data identifier is configured to receive the light signal and to convert the light signal into digital signals to drive the light emitting diode unit so as to emit light, glimmer or flash colorfully or sparklingly, or fade-in and fade-out based on the obtained lighting mode. - a light emitting diode lamp string comprising a plurality of light emitting diode units and configured to receive power supplied through power lines to emit light; - a signal voltage unit electrically connected to the light emitting diode lamp string; and - a control unit electrically connected to the signal voltage unit, - -the control unit is configured to provide a control voltage to the signal voltage unit, thereby controlling a conduction rate of the signal voltage unit in order to generate the light signal; - each of the light emitting diode units comprises an address and data identifier configured to perform a conversion and a decoding of the light signal to obtain a lighting mode of the light signal, wherein the address and data identifier is configured to receive the light signal and to convert the light signal into digital signals to drive the light emitting diode unit so as to emit light, glimmer or flash colorfully or sparklingly, or fade-in and fade-out based on the obtained lighting mode.
A method of grant-free, GF, transmissions, the method comprising: transmitting, by a base station (170, 170a, 170b) to a user equipment, UE, a Radio Resource Control, RRC, signal specifying GF configuration information, the GF configuration information comprising an activation field and at least one other GF resource configuration field, wherein the activation field indicates whether the UE may perform GF uplink, UL, transmissions without waiting for a downlink control information, DCI, message; and receiving, by the base station (170, 170a, 170b) from the UE, a GF UL transmission in accordance with the GF configuration information. transmitting, by a base station (170, 170a, 170b) to a user equipment, UE, a Radio Resource Control, RRC, signal specifying GF configuration information, the GF configuration information comprising an activation field and at least one other GF resource configuration field, wherein the activation field indicates whether the UE may perform GF uplink, UL, transmissions without waiting for a downlink control information, DCI, message; and receiving, by the base station (170, 170a, 170b) from the UE, a GF UL transmission in accordance with the GF configuration information.
Cartridge system for producing a beverage, wherein the cartridge system is insertable into a beverage preparation machine, wherein the cartridge system comprises a cartridge, which comprises a reservoir filled with a beverage substance, and a cartridge receptacle, which is connected to the cartridge, wherein the cartridge receptacle is insertable into the beverage preparation machine and is connected to the cartridge, wherein the cartridge receptacle has a mixing chamber, which is able to be brought into fluidic connection with the reservoir, and a fluid supply, which opens out into the mixing chamber, wherein the cartridge receptacle comprises a cover element and an outlet element connected to the cover element, characterized in that the cover element is reversibly connected to the cartridge in such a way that a cartridge opening leading to the reservoir is at least temporarily closed off by the cover element, and wherein the outlet element is reversibly connectable to the cover element, wherein a fluidic connection between the cartridge opening and the mixing chamber is able to be established by means of a valve unit, wherein, by way of a relative movement between the cover element and the outlet element, the valve unit is transferable from a closed state into an open state for establishing the fluidic connection.
An in vitro method for detecting cancer in a woman, characterized by detecting cancer using, as an indicator, the reaction of free-living soil nematodes to the smell of a urine sample of said woman; wherein the urine is collected at least two days after the last menstrual cycle and not later than five days after the same menstrual cycle.
A light fixture (301, 401) comprising a light source arranged in a lamp housing; said lamp housing comprising a housing shell (303, 403) forming a cavity wherein said light source is arranged and configured to emit light out of said lamp housing, said lamp housing comprises an attachment assembly (307, 407) comprising an alcove (109, 409) formed in an outer surface of said housing shell (303, 403), wherein said attachment assembly (307, 407) furthermore comprises a fastening unit (311, 411), a mating member (213, 413) and a support structure (115, 415), wherein said alcove (109, 409) is configured to accommodate the fastening unit (311,411), said fastening unit (311,411) is configured to receive the mating member (213, 413) connected to the support structure (115, 415) and said mating member (213, 413) can be locked to said fastening unit (311,411), characterized in that said fastening unit (311,411) comprises a locking plate (321, 421) and a top plate (325, 425) where said locking plate (321, 421) is arranged below said top plate (325, 425) and is configured to lock with the mating member (213, 413), and wherein the locking plate is arranged in a support recess formed in a bottom part of the alcove.
A cable clamp for applying a clamping force to a cable, comprising: a first half-shell comprising an outer surface and an inner surface, the outer surface configured for placement against a support surface, the inner surface defining a cable receiving region of a substantially semi-circular shape and terminating at an abutting surface (170, 175); a second half-shell comprising an outer surface and an inner surface, the inner surface of the second half-shell defining a cable receiving region of a substantially semi-circular shape and terminating at an abutting surface (170,175), the inner surface of the second half-shell being configured to oppose the inner surface of the first half-shell; a pair of first flanges (180,185) associated with the first half-shell, the first flanges (180,185) being offset from the abutting surface (170,175) of the first half-shell in a direction towards the support surface; a pair of second flanges (180, 185) associated with the second half-shell, the second flanges (180,185) being offset from the abutting surface (170,175) of the second half-shell in a direction away from the support surface. characterized by comprising: a pair of elongate members (115,120) configured to facilitate coupling of the first half-shell to the second half-shell, each elongate member (115,120) being capable of passing through respective first and second flanges (180,185) and configured to mate with a respective first fastening member (125, 130) for securing the first half-shell to the support surface independently from the second half-shell. a first half-shell comprising an outer surface and an inner surface, the outer surface configured for placement against a support surface, the inner surface defining a cable receiving region of a substantially semi-circular shape and terminating at an abutting surface (170, 175); a second half-shell comprising an outer surface and an inner surface, the inner surface of the second half-shell defining a cable receiving region of a substantially semi-circular shape and terminating at an abutting surface (170,175), the inner surface of the second half-shell being configured to oppose the inner surface of the first half-shell; a pair of first flanges (180,185) associated with the first half-shell, the first flanges (180,185) being offset from the abutting surface (170,175) of the first half-shell in a direction towards the support surface; a pair of second flanges (180, 185) associated with the second half-shell, the second flanges (180,185) being offset from the abutting surface (170,175) of the second half-shell in a direction away from the support surface. characterized by comprising: a pair of elongate members (115,120) configured to facilitate coupling of the first half-shell to the second half-shell, each elongate member (115,120) being capable of passing through respective first and second flanges (180,185) and configured to mate with a respective first fastening member (125, 130) for securing the first half-shell to the support surface independently from the second half-shell.
A touch sensing system, comprising: a display device including a touch sensor having a plurality of electrodes; and drive logic coupled to the plurality of electrodes and configured to drive the plurality of electrodes during a plurality of touch-sensing frames, each of which includes a stylus sync sub-frame during which the drive logic drives at least some of the plurality of electrodes, referred to for that stylus sync sub-frame as sync-driven electrodes, with synchronization waveforms that are communicated electrostatically to cause synchronization of the display device with an active stylus; where for each of the stylus sync sub-frames, the drive logic is configured to differentially drive the sync-driven electrodes of such stylus sync sub-frame, such that a first synchronization waveform used to drive one of the sync-driven electrodes is different than a second synchronization waveform used to drive another of the sync-driven electrodes; where the drive logic is configured to, for each stylus sync sub-frame, differentially drive sync-driven electrodes during that sub-frame such that, for a plurality of spatial groupings (1000, 1004, 1006) of sync-driven electrodes, two or more different synchronization waveforms are used to drive the sync-driven electrodes in the spatial grouping, and where the spatial groupings (1000, 1004, 1006) are distributed over a plurality of electrode sets that alternate in a row direction and in a column direction with respect to the two or more different synchronization waveforms. a display device including a touch sensor having a plurality of electrodes; and drive logic coupled to the plurality of electrodes and configured to drive the plurality of electrodes during a plurality of touch-sensing frames, each of which includes a stylus sync sub-frame during which the drive logic drives at least some of the plurality of electrodes, referred to for that stylus sync sub-frame as sync-driven electrodes, with synchronization waveforms that are communicated electrostatically to cause synchronization of the display device with an active stylus; where for each of the stylus sync sub-frames, the drive logic is configured to differentially drive the sync-driven electrodes of such stylus sync sub-frame, such that a first synchronization waveform used to drive one of the sync-driven electrodes is different than a second synchronization waveform used to drive another of the sync-driven electrodes; where the drive logic is configured to, for each stylus sync sub-frame, differentially drive sync-driven electrodes during that sub-frame such that, for a plurality of spatial groupings (1000, 1004, 1006) of sync-driven electrodes, two or more different synchronization waveforms are used to drive the sync-driven electrodes in the spatial grouping, and where the spatial groupings (1000, 1004, 1006) are distributed over a plurality of electrode sets that alternate in a row direction and in a column direction with respect to the two or more different synchronization waveforms.
A control device connected to an air conditioning device and a ventilator via a communication network, the control device comprising: a ventilation controller configured to: (i) when a maintenance operation for evaporating water droplets attached to a heat exchanger included in an indoor unit of the air conditioning device by heating the heat exchanger is being performed by the air conditioning device, control the ventilator to operate in at least a portion of a period during which the maintenance operation is being performed, (ii) when a heating operation or a cooling operation is being performed, control the ventilator to operate intermittently during the heating operation or the cooling operation at an air flow strength lower than an air flow strength during the maintenance operation, and (iii) the control device being characterized in that when the ventilator is being operated in conjunction with operation of the air conditioning device, cause a display to display a screen on which: an installation location of the air conditioning device, a start time of operation of the air conditioning device, and an end time of the operation of the air conditioning device are displayed in association with one another; and an installation location of the ventilator, a start time of operation of the ventilator, and an end time of the operation of the ventilator are displayed in association with one another. (i) when a maintenance operation for evaporating water droplets attached to a heat exchanger included in an indoor unit of the air conditioning device by heating the heat exchanger is being performed by the air conditioning device, control the ventilator to operate in at least a portion of a period during which the maintenance operation is being performed, (ii) when a heating operation or a cooling operation is being performed, control the ventilator to operate intermittently during the heating operation or the cooling operation at an air flow strength lower than an air flow strength during the maintenance operation, and (iii) the control device being characterized in that when the ventilator is being operated in conjunction with operation of the air conditioning device, cause a display to display a screen on which: an installation location of the air conditioning device, a start time of operation of the air conditioning device, and an end time of the operation of the air conditioning device are displayed in association with one another; and an installation location of the ventilator, a start time of operation of the ventilator, and an end time of the operation of the ventilator are displayed in association with one another.