mhurhangee/ep-ind-claims huggingface dataset:
A timer control method, comprising: Performing, by a device, re-establishment or data recovery on a packet data convergence protocol PDCP layer of the device; and if a reordering timer of the PDCP layer is in a running state, stopping, by the PDCP layer of the device, running of the reordering timer and not delivering a data packet to an upper layer of the PDCP layer whose count value is greater than a count value of a 1st data packet that is not received by the PDCP layer, wherein the reordering timer is used by the PDCP layer to wait to receive a lost data packet. Performing, by a device, re-establishment or data recovery on a packet data convergence protocol PDCP layer of the device; and if a reordering timer of the PDCP layer is in a running state, stopping, by the PDCP layer of the device, running of the reordering timer and not delivering a data packet to an upper layer of the PDCP layer whose count value is greater than a count value of a 1st data packet that is not received by the PDCP layer, wherein the reordering timer is used by the PDCP layer to wait to receive a lost data packet.
Method for non-destructively forming a component made of cast material, wherein the component is formed by means of electromagnetic high-speed forming beyond the quasistatic elongation at break, characterized in that the cast material is an iron alloy.
An ejector cycle system comprising: a compressor for sucking and compressing refrigerant; a radiator for cooling refrigerant discharged from the compressor; an evaporator in which refrigerant is evaporated by absorbing heat; an ejector which decompresses and expands refrigerant from the radiator to suck gas refrigerant evaporated in the evaporator, and converts an expansion energy to a pressure energy to increase a refrigerant pressure to be sucked into the compressor; and a gas-liquid separator for storing refrigerant and for separating refrigerant from the ejector into gas refrigerant and liquid refrigerant, characterized in that the refrigerant is carbon dioxide, the system being adapted to when in use to have the refrigerant pressure, before being decompressed in the ejector, higher than the critical pressure of carbon dioxide, and the pressure of the refrigerant after being decompressed in the ejector is lower than the critical pressure of carbon dioxide, and a pressure adjustment unit which adjusts the refrigerant pressure increased in the ejector to be lower than the critical pressure, the pressure adjustment unit is disposed at the upstream side of the ejector in a refrigerant flow direction. a compressor for sucking and compressing refrigerant; a radiator for cooling refrigerant discharged from the compressor; an evaporator in which refrigerant is evaporated by absorbing heat; an ejector which decompresses and expands refrigerant from the radiator to suck gas refrigerant evaporated in the evaporator, and converts an expansion energy to a pressure energy to increase a refrigerant pressure to be sucked into the compressor; and a gas-liquid separator for storing refrigerant and for separating refrigerant from the ejector into gas refrigerant and liquid refrigerant, characterized in that the refrigerant is carbon dioxide, the system being adapted to when in use to have the refrigerant pressure, before being decompressed in the ejector, higher than the critical pressure of carbon dioxide, and the pressure of the refrigerant after being decompressed in the ejector is lower than the critical pressure of carbon dioxide, and a pressure adjustment unit which adjusts the refrigerant pressure increased in the ejector to be lower than the critical pressure, the pressure adjustment unit is disposed at the upstream side of the ejector in a refrigerant flow direction.
A oxide sintered body comprising an indium oxide and a cerium oxide, and further comprising, as an oxide, at least one or more kinds of a metal element (M element) selected from the metal element group consisting of titanium, zirconium, hafnium, molybdenum and tungsten, wherein the cerium content is 0.3 to 9% by atom, as an atomicity ratio of Ce/(In+Ce+M), the M element content is equal to or lower than 1% by atom, as an atomicity ratio of M/(In+Ce+M), and the total content of cerium and the M element is equal to or lower than 9% by atom, as an atomicity ratio of (Ce+M)/(In+Ce+M), characterized in that: said oxide sintered body has an In 2 O 3 phase of a bixbyite structure as a main crystal phase, has a CeO 2 phase of a fluorite-type structure finely dispersed as crystal grains having an average particle diameter of equal to or smaller than 3 μm, as a second phase, and not comprising tin. said oxide sintered body has an In 2 O 3 phase of a bixbyite structure as a main crystal phase, has a CeO 2 phase of a fluorite-type structure finely dispersed as crystal grains having an average particle diameter of equal to or smaller than 3 μm, as a second phase, and not comprising tin.
Automatic sterilising dispenser of single disposable devices as an aid for female urination in a standing position ("Feminine Urinary Device" - FUD), each FUD being made up of a substantially conical channel element which is substantially flattened on the two opposite generatrices of the cone in order to be dispensed and subsequently opened in a tubular manner at the time of use, said FUD having a larger oblique base with a curvilinear profile and provided with an indentation, and a smaller oblique base, opposite the larger base, provided with an opening forming a spout, said automatic dispenser comprising - a stack of said single disposable FUD devices in substantially compacted form; - at least one loading container housing said stack of said single disposable FUD devices in substantially compacted form, said container resting on a horizontal base; - an outlet slot dispensing said FUD, in the vicinity of which one or more UV steriliser elements are placed, said slot being aligned with said base; - a dispensing button; - at least one electronic component for dispensing control; - means of forward movement and dispensing placed beneath said base of said loading container and a slot formed through said base, wherein said forward movement means are apt to move the FUD resting on said base forwards for a certain length toward said outlet slot, by means of direct push on said indentation of said FUD in such a way as to cause to exit from said outlet slot a certain length of FUD for gripping by the user, said forward movement means comprising an element which acts as mechanical contrast moving along said horizontal slot and having a part protruding upwards from said slot, said protruding part having a curved profile, at the frontal side to the outlet slot, that is complementary to the profile of the indentation of the FUD so as to exert a direct push on at least one curved portion of said indentation of said FUD when placed above said slot of said base. - a stack of said single disposable FUD devices in substantially compacted form; - at least one loading container housing said stack of said single disposable FUD devices in substantially compacted form, said container resting on a horizontal base; - an outlet slot dispensing said FUD, in the vicinity of which one or more UV steriliser elements are placed, said slot being aligned with said base; - a dispensing button; - at least one electronic component for dispensing control; - means of forward movement and dispensing placed beneath said base of said loading container and a slot formed through said base,
A pressure fuselage of an aircraft, which fuselage in longitudinal direction comprises several fuselage sections (1a-1f), wherein at least one rear dome-shaped pressure bulkhead is provided to form an aircraft-internal pressurized region, with a ring-shaped frame element profile being provided for radially outward attachment of said dome-shaped pressure bulkhead to at least one fuselage section (1a-1f), wherein the frame element profile on the side of the dome-shaped pressure bulkhead comprises a radially-outward-open U-shaped profile section whose first end-side limb which is facing the pressurized region is attached to the side of the dome-shaped pressure bulkhead which is averted to the pressurized region by way of connecting means, and whose elongated radially outward extending second limb establishes a connection to the at least one fuselage section (1e, 1f) in such a manner that it is possible for the connecting means to be installed solely from the aircraft-internal pressurized region.
Integrated magneto-optical device comprising a magnetic unit and an optical unit, (i) the magnetic unit comprising (a) a first magnetic layer for maintaining a baseline magnetic orientation, (b) a second magnetic layer, accessible to optical radiation, (c) an intermediate tunneling layer between the first and second magnetic layers, wherein the first magnetic layer, the second magnetic layer, and intermediate tunneling layer form a magnetic tunnel junction, a substrate layer, the substrate being on an opposite side of the device with respect to the second magnetic layer, wherein between the substrate and first magnetic layer one or more intermediate layers (3,4,5,6) are present being magnetically coupled to the first magnetic layer, wherein two or more contacts (21,22) are provided, a first contact being in electrical connection with the first magnetic layer, and a second contact being in electrical connection with the second magnetic layer, configured to apply an electrical bias voltage across the magnetic tunnel junction layers during provision of a single sub-nanosecond optical pulse to said second magnetic layer, and wherein said contacts are arranged to provide optical access to said second magnetic layer, (ii) the optical unit comprising one or more lasers, wherein the optical unit is configured to provide said single sub nanosecond optical pulse to the second magnetic layer for switching a magnetic orientation thereof. (i) the magnetic unit comprising (a) a first magnetic layer for maintaining a baseline magnetic orientation, (b) a second magnetic layer, accessible to optical radiation, (c) an intermediate tunneling layer between the first and second magnetic layers, wherein the first magnetic layer, the second magnetic layer, and intermediate tunneling layer form a magnetic tunnel junction, a substrate layer, the substrate being on an opposite side of the device with respect to the second magnetic layer, wherein between the substrate and first magnetic layer one or more intermediate layers (3,4,5,6) are present being magnetically coupled to the first magnetic layer, wherein two or more contacts (21,22) are provided, a first contact being in electrical connection with the first magnetic layer, and a second contact being in electrical connection with the second magnetic layer, configured to apply an electrical bias voltage across the magnetic tunnel junction layers during provision of a single sub-nanosecond optical pulse to said second magnetic layer, and wherein said contacts are arranged to provide optical access to said second magnetic layer, (a) a first magnetic layer for maintaining a baseline magnetic orientation, (b) a second magnetic layer, accessible to optical radiation, (c) an intermediate tunneling layer between the first and second magnetic layers, (ii) the optical unit comprising one or more lasers, wherein the optical unit is configured to provide said single sub nanosecond optical pulse to the second magnetic layer for switching a magnetic orientation thereof.
A device comprising: a sensor body defining an air passage and configured to be inserted in a breathing tube, wherein the air passage includes a central portion having a reduced cross-sectional area relative to the ends of the sensor body for connecting to tubing; an upstream tube opening and a downstream tube opening positioned in the central portion of the air passage having a reduced cross-sectional area; and characterised in that, the device comprises an electronic module for producing an output representative of air flow in response to differential pressure between pressure at the upstream tube opening and a downstream tube opening the sensor body, wherein, the electronic module includes a Micro-Electro-Mechanical system "MEMS" differential pressure sensor that comprises a sufficiently small linearity error and hysteresis to not affect the flow rate measurement, and uses an on-board ASIC to collect pressure readings from a MEMS diaphragm, thereby providing a stable temperature compensated reading. a sensor body defining an air passage and configured to be inserted in a breathing tube, wherein the air passage includes a central portion having a reduced cross-sectional area relative to the ends of the sensor body for connecting to tubing; an upstream tube opening and a downstream tube opening positioned in the central portion of the air passage having a reduced cross-sectional area; and characterised in that, the device comprises an electronic module for producing an output representative of air flow in response to differential pressure between pressure at the upstream tube opening and a downstream tube opening the sensor body,
Bottle crate (2; 62) with a framework insert (50; 60), in particular having a grid-plate or perforated-plate form, preferably made of plastic, for receiving bottles or cans, wherein the framework insert (50; 60) guided vertically in the bottle crate (2; 62) can be lowered down to the bottle crate bottom (4; 70), and the framework insert (50; 60) can be positioned in at least one predetermined height position spaced away from the bottle crate bottom (4; 70), characterized in that the framework insert (50; 60) can be removed and can be fixed in the lowered position in which the framework insert is lowered to the bottle crate bottom (4; 70) as well as in the predetermined height position via a locking or latching mechanism (54, 56, 26, 28; 66; 68, 72).
A method, comprising: receiving a data bag, the data bag including data packets destined to be transmitted to an external system; attaching a timer event to the received data bag by adding the timer event to a temporary envelope that encapsulates the data bag; temporarily storing the received data bag; and overriding the timer event based on at least one other time event associated with another data bag. receiving a data bag, the data bag including data packets destined to be transmitted to an external system; attaching a timer event to the received data bag by adding the timer event to a temporary envelope that encapsulates the data bag; temporarily storing the received data bag; and overriding the timer event based on at least one other time event associated with another data bag.
An antimicrobial hydrogel formed by reacting an acryloylmorpholine monomer and a polyhydric alcohol in a solution polymerization to form a hydrogel wherein the polymerization solution forms part of the hydrogel, and dispersing an antimicrobial agent through a surface of the hydrogel to form the antimicrobial hydrogel, wherein the antimicrobial concentration in a surface region of the antimicrobial hydrogel is larger than the antimicrobial concentration in a bulk interior of the antimicrobial hydrogel, and wherein from about 10 to about 50% of the antimicrobial agent is released from the hydrogel over a period of less than 24 hours.
A system for controlling an internal combustion engine mounted on a vehicle and having an actuator that drives a throttle valve installed in an intake pipe of the engine and an accelerator installed to be operable by the operator, comprising: a throttle opening detector that detects actual opening of the throttle valve (52, 66); an accelerator opening detector that detects opening of the accelerator (54, 66, S10); an engine speed detector that detects speed of the engine (62, 64, S12); characterized by: a no-load condition determiner that determines whether the engine is operated under no load such that power transmission from the engine to the transmission of the vehicle is disconnected (66, S34); an actuator controller that controls the operation of the actuator such that the detected actual opening of the throttle valve is set to a desired opening when the engine is determined to be under no load (66, S38, S40); and a desired throttle opening calculator that calculates the desired opening of the throttle valve which is set to an upper limit value that makes possible to prevent or avoid a stall, determined from the detected opening of the accelerator and the detected engine speed (66, S20). a throttle opening detector that detects actual opening of the throttle valve (52, 66); an accelerator opening detector that detects opening of the accelerator (54, 66, S10); an engine speed detector that detects speed of the engine (62, 64, S12); characterized by: a no-load condition determiner that determines whether the engine is operated under no load such that power transmission from the engine to the transmission of the vehicle is disconnected (66, S34); an actuator controller that controls the operation of the actuator such that the detected actual opening of the throttle valve is set to a desired opening when the engine is determined to be under no load (66, S38, S40); and a desired throttle opening calculator that calculates the desired opening of the throttle valve which is set to an upper limit value that makes possible to prevent or avoid a stall, determined from the detected opening of the accelerator and the detected engine speed (66, S20). a no-load condition determiner that determines whether the engine is operated under no load such that power transmission from the engine to the transmission of the vehicle is disconnected (66, S34); an actuator controller that controls the operation of the actuator such that the detected actual opening of the throttle valve is set to a desired opening when the engine is determined to be under no load (66, S38, S40); and a desired throttle opening calculator that calculates the desired opening of the throttle valve which is set to an upper limit value that makes possible to prevent or avoid a stall, determined from the detected opening of the accelerator and the detected engine speed (66, S20).
A computer-implemented method comprising: using one or more instrumented probes, monitoring a compute endpoint at runtime for create, read, write, update, and delete, CRUD, operations being performed on the compute endpoint; based on content of the CRUD operations, generating an event to analyze a given CRUD operation; responsive to the generated event, maintaining one or more compute components affected by the given CRUD operation in a quarantine state; attempting to establish trust of the one or more affected compute components; and removing the one or more affected compute components from the quarantine state, if trust of the one or more affected compute components is established by the attempting, or executing at least one callback routine to mitigate results of the given CRUD operation, if trust of the one or more affected compute components is not established by the attempting. using one or more instrumented probes, monitoring a compute endpoint at runtime for create, read, write, update, and delete, CRUD, operations being performed on the compute endpoint; based on content of the CRUD operations, generating an event to analyze a given CRUD operation; responsive to the generated event, maintaining one or more compute components affected by the given CRUD operation in a quarantine state; attempting to establish trust of the one or more affected compute components; and removing the one or more affected compute components from the quarantine state, if trust of the one or more affected compute components is established by the attempting, or executing at least one callback routine to mitigate results of the given CRUD operation, if trust of the one or more affected compute components is not established by the attempting.
An automated hand comprising: a. a palm; and b. one or more connector, each having a digit extending therefrom that is movable relative to the palm, characterised by one or more resiliently flexible and compressible mounts attached to the palm with each connector mounted to a respective mount such that each connector may rotate about the mount in the plane of the palm when a lateral force is applied to a digit, and wherein each connector may rotate in a plane normal to the plane of the palm. a. a palm; and b. one or more connector, each having a digit extending therefrom that is movable relative to the palm, characterised by one or more resiliently flexible and compressible mounts attached to the palm with each connector mounted to a respective mount such that each connector may rotate about the mount in the plane of the palm when a lateral force is applied to a digit, and wherein each connector may rotate in a plane normal to the plane of the palm.
A rotary piston pump consisting of a pump housing, which is provided with an inlet and an outlet, the pump housing having a lining, and at least two rotary pistons rotating in opposite directions are arranged in the pump housing or inside the lining, respectively, and form pump rooms during their rotation, wherein the rotary pistons are sealed against one another and against the lining inside the pump housing, wherein, in the region of the inlet and in the region of the outlet, the pump housing and/or the lining each has reinforcements of the lining, by means of which a cross section reduction is realized and that the cross section of the inlet and of the outlet widens from the reinforcements to the ends, characterized in that at least two recesses are arranged in the lining in each pump room, wherein the recesses are arranged in spatial proximity to the inlet and/or to the outlet.
Household dishwasher with a dishwasher cavity for receiving dishes, glasses, cutlery or similar items to be washed, wherein the household dishwasher is provided with at least one heat pump, which comprises a liquefier and an evaporator in a circuit of heat exchanger medium, wherein in the circuit of the heat exchanger medium a first valve is arranged before a heat-emitting part of the heat pump and a second valve is arranged thereafter, wherein the heat-emitting part of the heat pump is a liquefier, also referred to as a condenser, wherein the heat pump in each case is active in at least two phases (32;33) of a washing cycle to be carried out for supporting a respective heating, wherein the first phase for supporting a heating is a part of a liquid-conducting washing subcycle of the washing cycle to be carried out, wherein the second phase for supporting a heating is a part of a further liquid-conducting washing subcycle of the washing cycle to be carried out or of a drying cycle of the washing cycle to be carried out, wherein the valves (30;31) close following the conclusion of the first phase for supporting a heating, wherein the first valve and the second valve block the liquefier on the inlet side and outlet side during an inactive phase of the heat pump, i.e. during the period of time which lies between the two phases (32; 33) of the washing cycle to be carried out with the heat pump being actively operated in each case, and wherein the valves (30;31) open before the beginning of the second phase of the washing cycle to be carried out for supporting a heating.