mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving a write request from an application of a device; writing first data specified by the write request and associated metadata to cloud storage; indicating success of the write request to the application; and after indicating success to the application, writing the first data to local storage of the device while the device is connected to cloud storage, the writing mirroring the writing to the cloud storage and including first writing the first data to a first area of the local storage and thereafter writing metadata for the first data to a second area of the local storage; determining (218-220; 416; 508) that the device is disconnected from the cloud storage; and writing, while the device is disconnected from the cloud storage, second data and metadata for the second data to the local storage, the writing the second data and the metadata including writing the metadata to the second area of the local storage and, upon completion of the writing the metadata to the second area of the local storage, writing the second data to the first area of the local storage. receiving a write request from an application of a device; writing first data specified by the write request and associated metadata to cloud storage; indicating success of the write request to the application; and after indicating success to the application, writing the first data to local storage of the device while the device is connected to cloud storage, the writing mirroring the writing to the cloud storage and including first writing the first data to a first area of the local storage and thereafter writing metadata for the first data to a second area of the local storage; determining (218-220; 416; 508) that the device is disconnected from the cloud storage; and writing, while the device is disconnected from the cloud storage, second data and metadata for the second data to the local storage, the writing the second data and the metadata including writing the metadata to the second area of the local storage and, upon completion of the writing the metadata to the second area of the local storage, writing the second data to the first area of the local storage.
Heating oven for preformed tubes prior to their molecular orientation, characterized in that it comprises: - rotating supports disposed parallel to each other on which the preformed tubes rest and rotate during the homogeneous circumferential heating process thereof; - transverse displacement means (5, 6) that facilitate the elevation of the preformed tubes and their transverse displacement, in order to favour progressive and uniform heating throughout the thickness of the preformed tube; and - assemblies that generate heating currents (15, 10, 2) comprised of elements, fans and deflectors distributed longitudinally in sectors or quadrants in the interior of the oven to heat and distribute the air over the preformed tube. - rotating supports disposed parallel to each other on which the preformed tubes rest and rotate during the homogeneous circumferential heating process thereof; - transverse displacement means (5, 6) that facilitate the elevation of the preformed tubes and their transverse displacement, in order to favour progressive and uniform heating throughout the thickness of the preformed tube; and - assemblies that generate heating currents (15, 10, 2) comprised of elements, fans and deflectors distributed longitudinally in sectors or quadrants in the interior of the oven to heat and distribute the air over the preformed tube.
A printhead comprising: a firing resistor; a switch connected to a node and configured to control current through the firing resistor; pre-charge transistor configured to pre-charge the node during a pre-charge cycle responsive to a pre-charge signal providing a voltage pulse across the pre-charge transistor to the node to a pre-charge voltage level that is sufficient to turn on switch; a first transistor (82, MN1, MN2) having a first terminal connected to the node and a second terminal connected to a reference potential and configured to selectively discharge the node to the reference potential during a discharge cycle when a select signal (SEL, PSEL) has a level to turn on the first transistor (82, MN1, MN2); and a second transistor (MN14, MN1) having a first terminal connected to the node and a second terminal connected to the reference potential and configured to selectively discharge the node to the reference potential. a firing resistor; a switch connected to a node and configured to control current through the firing resistor; pre-charge transistor configured to pre-charge the node during a pre-charge cycle responsive to a pre-charge signal providing a voltage pulse across the pre-charge transistor to the node to a pre-charge voltage level that is sufficient to turn on switch; a first transistor (82, MN1, MN2) having a first terminal connected to the node and a second terminal connected to a reference potential and configured to selectively discharge the node to the reference potential during a discharge cycle when a select signal (SEL, PSEL) has a level to turn on the first transistor (82, MN1, MN2); and a second transistor (MN14, MN1) having a first terminal connected to the node and a second terminal connected to the reference potential and configured to selectively discharge the node to the reference potential.
A method for wireless communication, the method comprising: identifying, by a user equipment, UE, a change in current capability of the UE to process transmissions based on a change in the battery level of the UE or other concurrent communications of the UE; transmitting, to a base station, an indication of the change in the UE's current capability to process transmissions, wherein the indication of the change in the UE's current capability relates to one of: a change in a current delay at which the UE will send an ACK/NACK after a PDSCH or a change in a current delay at which a PDSCH or PUSCH will be communicated after a PDCCH; receiving a first physical channel transmission from the base station in a first transmission time interval, TTI; and communicating a second physical channel transmission with the base station in a second TTI, wherein the second TTI is determined based on the first TTI and the indicated change in current capability of the UE to process transmissions. identifying, by a user equipment, UE, a change in current capability of the UE to process transmissions based on a change in the battery level of the UE or other concurrent communications of the UE; transmitting, to a base station, an indication of the change in the UE's current capability to process transmissions, wherein the indication of the change in the UE's current capability relates to one of: a change in a current delay at which the UE will send an ACK/NACK after a PDSCH or a change in a current delay at which a PDSCH or PUSCH will be communicated after a PDCCH; receiving a first physical channel transmission from the base station in a first transmission time interval, TTI; and communicating a second physical channel transmission with the base station in a second TTI, wherein the second TTI is determined based on the first TTI and the indicated change in current capability of the UE to process transmissions. a change in a current delay at which the UE will send an ACK/NACK after a PDSCH or a change in a current delay at which a PDSCH or PUSCH will be communicated after a PDCCH; receiving a first physical channel transmission from the base station in a first transmission time interval, TTI; and communicating a second physical channel transmission with the base station in a second TTI, wherein the second TTI is determined based on the first TTI and the indicated change in current capability of the UE to process transmissions.
A component, comprising: an additively manufactured component with an internal passage; and a multiple of ultrasonic horns additively manufactured within the internal passage. an additively manufactured component with an internal passage; and a multiple of ultrasonic horns additively manufactured within the internal passage.
A method of treating a siliceous or metal oxide-containing subterranean formation penetrated by a well comprising: pumping into the formation a surface modifying treatment agent having a metallic anchor and a hydrophobic tail; and binding the metal of the metallic anchor of the surface modifying treatment agent to the siliceous formation or the metal, M, of the metal oxide-containing subterranean formation. pumping into the formation a surface modifying treatment agent having a metallic anchor and a hydrophobic tail; and binding the metal of the metallic anchor of the surface modifying treatment agent to the siliceous formation or the metal, M, of the metal oxide-containing subterranean formation.
An immediate release particle comprising a core and a coating, wherein the core comprises an agglomerated active ingredient at an amount of at least 10 wt.-% relative to the weight of the core, and wherein the coating essentially consists of from 70 to 90 wt.-% of a triglyceride and from 10 to 30 wt.-% of a polysorbate, and wherein the lower limit of the melting range of the triglyceride is higher than 20 °C, and wherein the weight of the coating is from 20 to 70 wt.-% relative to the total weight of the coated particle.
A transmitter, comprising: a voltage-mode driver configured to drive a pair of output terminals responsive to a differential input signal, wherein the voltage-mode driver includes a first pull-up circuit having a first pull-up transistor in series with a first resistor; a pre-driver configured to drive the differential input signal to the voltage-mode driver; and a calibration circuit including a variable resistor responsive to a control signal to provide a variable resistance, the variable resistor being coupled to a first capacitor to form a first resistor-capacitor, RC, circuit having a first RC time constant, the calibration circuit further including a replica circuit having a replica transistor and a replica resistor coupled to a second capacitor to form a second RC circuit having a second RC time constant, wherein the replica transistor is matched to the first pull-up transistor, the replica resistor is matched to the first resistor, and the first capacitor is matched to the second capacitor, the calibration circuit including a feedback circuit configured to control a gate voltage for the replica transistor so that the second RC time constant equals the first RC time constant, wherein the gate voltage is also a power supply voltage for the pre-driver. a voltage-mode driver configured to drive a pair of output terminals responsive to a differential input signal, wherein the voltage-mode driver includes a first pull-up circuit having a first pull-up transistor in series with a first resistor; a pre-driver configured to drive the differential input signal to the voltage-mode driver; and a calibration circuit including a variable resistor responsive to a control signal to provide a variable resistance, the variable resistor being coupled to a first capacitor to form a first resistor-capacitor, RC, circuit having a first RC time constant, the calibration circuit further including a replica circuit having a replica transistor and a replica resistor coupled to a second capacitor to form a second RC circuit having a second RC time constant, wherein the replica transistor is matched to the first pull-up transistor, the replica resistor is matched to the first resistor, and the first capacitor is matched to the second capacitor, the calibration circuit including a feedback circuit configured to control a gate voltage for the replica transistor so that the second RC time constant equals the first RC time constant, wherein the gate voltage is also a power supply voltage for the pre-driver.
A cutting tool assembly for cutting a work piece, comprising: a tool post; an actuator configured for attachment to the tool post and for electrical communication with a controller; and a tool tip, having a plurality of diffractive features, attached to the actuator and mounted for movement with respect to the work piece to be cut, wherein the actuator provides for movement of the tool tip in an x-direction into and out of the work piece, wherein the tool tip is configured to be in discontinuous contact with the work piece during cutting of the work piece, and wherein the diffractive feature on the tool tip is configured to be in contact with the work piece during at least a portion of the cutting, and wherein the actuator includes ports for transmission of a fluid through the actuator for cooling of the actuator, wherein the tool tip has two facets with a plurality of diffractive features on each of the facets, the diffractive features having a spacing of within 10 microns. a tool post; an actuator configured for attachment to the tool post and for electrical communication with a controller; and a tool tip, having a plurality of diffractive features, attached to the actuator and mounted for movement with respect to the work piece to be cut, wherein the actuator provides for movement of the tool tip in an x-direction into and out of the work piece, wherein the tool tip is configured to be in discontinuous contact with the work piece during cutting of the work piece, and wherein the diffractive feature on the tool tip is configured to be in contact with the work piece during at least a portion of the cutting, and wherein the actuator includes ports for transmission of a fluid through the actuator for cooling of the actuator, wherein the tool tip has two facets with a plurality of diffractive features on each of the facets, the diffractive features having a spacing of within 10 microns.
A urine sampling device comprising: a housing comprising a urine sampling chamber, the housing of the urine sampling device being arranged such that the urine sampling device can be associated with a hygiene absorbent product, and the urine sampling device comprises an inlet for said fluid, characterized in that an outer surface of the device comprises an attachment means, for attaching the urine sampling device to the body side of the hygiene absorbent product, or the hygiene absorbent product comprises a pocket for incorporating the urine sampling device, and in that said chamber comprises a dry gel that can be swelled by urine, wherein said gel is a physically cross linked hydrophilic gel, and is chosen from a group consisting of polysaccharides and synthetic hydrophilic polymers, and said hydrophilic polymer is polyethyleneoxide,and wherein said urine sampling device possess the ability to preserve a bacteria content from a urine sampled in the urine sampling device, either by means of the properties of the dry gel in itself and/or by providing a preservative chosen from a group consisting of acids such as boric acid, and salts from these such as sodium borate or potassium borate, in the dry gel. a housing comprising a urine sampling chamber, the housing of the urine sampling device being arranged such that the urine sampling device can be associated with a hygiene absorbent product, and the urine sampling device comprises an inlet for said fluid, characterized in that an outer surface of the device comprises an attachment means, for attaching the urine sampling device to the body side of the hygiene absorbent product, or the hygiene absorbent product comprises a pocket for incorporating the urine sampling device, and in that said chamber comprises a dry gel that can be swelled by urine, wherein said gel is a physically cross linked hydrophilic gel, and is chosen from a group consisting of polysaccharides and synthetic hydrophilic polymers, and said hydrophilic polymer is polyethyleneoxide,and wherein said urine sampling device possess the ability to preserve a bacteria content from a urine sampled in the urine sampling device, either by means of the properties of the dry gel in itself and/or by providing a preservative chosen from a group consisting of acids such as boric acid, and salts from these such as sodium borate or potassium borate, in the dry gel.
Telecommunication equipment comprising: - a rack for carrying telecommunication devices, and - at least one telecommunication device attached to the rack with one or more mounting screws (108, 109), characterized in that a head (115, 215, 315, 415) of at least one of the mounting screws of each telecommunication device is shaped to constitute a grounding connector for a connector terminal of a grounding cable so that the connector terminal is connectable to the grounding connector without changing a position of the one of the mounting screws with respect to the rack and to the telecommunication device attached to the rack with at least the one of the mounting screws. - a rack for carrying telecommunication devices, and - at least one telecommunication device attached to the rack with one or more mounting screws (108, 109),
Transport tray for transporting and heating chemical substances, which comprises a one-piece support structure with a base and a frame fixedly connected thereto, wherein the support structure supports a lining of a tray-shaped cavity for accommodating the chemical substances, wherein the lining comprises a base plate lying on the base and multiple frame plates (14, 14') clamped against the frame, wherein the lining is supported by the support structure such that the thermal expansions of the base plate and the frame plates (14, 14') in their plate planes are not impeded, wherein the frame plates (14, 14') are clamped to the frame by clamping strips, wherein the clamping strips have in each case at least one groove (18, 18') for accommodating an edge region (17, 17') of an adjacent frame plate (14, 14'), wherein the edge region (17, 17') is accommodated with play in the groove (18, 18') of the clamping strip, and wherein the base plate lies on the base of the support structure and is arranged with play within the frame of the support structure and the remaining components (14, 14') of the lining. wherein the frame plates (14, 14') are clamped to the frame by clamping strips, wherein the clamping strips have in each case at least one groove (18, 18') for accommodating an edge region (17, 17') of an adjacent frame plate (14, 14'), wherein the edge region (17, 17') is accommodated with play in the groove (18, 18') of the clamping strip, and wherein the base plate lies on the base of the support structure and is arranged with play within the frame of the support structure and the remaining components (14, 14') of the lining.
A lubrication control device of in-wheel motor units for a vehicle which is used in an in-wheel motor drive vehicle which can run by driving at least a pair of left and right wheels by the respective in-wheel motor units, the lubrication control device being arranged to lubricate insides of the pair of left and right in-wheel motor units, by an oil pumped from lower portions within cases of the in-wheel motor units by respective oil pumps, the lubrication control device comprising: an oil pump drive control means configured to control and drive the oil pumps so that oil levels of the lower portions within the cases of the left and right in-wheel motor units are the same by oil pumping amounts from the oil pumps. an oil pump drive control means configured to control and drive the oil pumps so that oil levels of the lower portions within the cases of the left and right in-wheel motor units are the same by oil pumping amounts from the oil pumps.
A method for manufacturing a casket-like container comprising two mutually hinged shells, the method comprising the following steps: arranging, for each shell, a cardboard flat blank comprising a central portion, intended to form a bottom of the shell, and a plurality of flaps (12, 13, 14) foldably projecting from respective sides of said central portion, said flaps comprising a hinge flap; folding and gluing said blank so as to form with said flaps respective side walls of each shell, comprising a hinge wall defined by said hinge flap and provided with a hinge edge; mutually connect the two hinge edges of respective shells by means of at least one hinge device; characterized in that before the connection between the shells, respective mounting templates are arranged inside the shells adjacent with an inner face of the hinge wall, said templates defining respective slits in which said at least one hinge device is inserted, thereby the hinge device becomes arranged with its own internal articulation axis staggered towards the inside with respect to the hinge wall.
Method for preventing accumulation of gas when conveying blood or priming fluid as medium with a blood pump, in which gas is measured in the medium in an inlet line to the pump, in or on the pump and the pump output is increased only briefly as a function of the measured gas.
A crystalline form A of compound represented by formula, wherein its X-ray powder diffraction spectrum, recorded using Cu-Kα radiation at Kα1=1.540598 Å, Kα2=1.544426 Å and an intensity ratio of Kα2/Kα1=0.5, shows characteristic diffraction peaks at 2θ angles of 9.78±0.20°, 12.06±0.20° and 20.37±0.20°;
A solid-state lasing device (100, 200, 300, 602) comprising: a micro-chip oscillator "MCO" (102, 202, 302) affixed to a first tube (104, 204, 304); and a volume Bragg grating "VBG" plate (106, 206, 306) affixed to a second tube (108, 208, 308) that is configured to be telescopically coupled to the first tube (104, 204, 304) with a slip fit such that the VBG plate (106, 206, 306) is concentrically aligned with and is positioned at a specified distance from the MCO (102, 202, 302); wherein the second tube (108, 208, 308) is configured so that at least a portion of the second tube (108, 208, 308) is received within the first tube (104, 204, 304); wherein the VBG plate (106, 206, 306) is affixed to the portion of the second tube (108, 208, 308); and wherein the second tube (108, 208, 308) is configured such that the VBG plate (106, 206, 306) is positioned within the first tube (104, 204, 304) adjacent to the MCO (102, 202, 302). a micro-chip oscillator "MCO" (102, 202, 302) affixed to a first tube (104, 204, 304); and a volume Bragg grating "VBG" plate (106, 206, 306) affixed to a second tube (108, 208, 308) that is configured to be telescopically coupled to the first tube (104, 204, 304) with a slip fit such that the VBG plate (106, 206, 306) is concentrically aligned with and is positioned at a specified distance from the MCO (102, 202, 302); wherein the second tube (108, 208, 308) is configured so that at least a portion of the second tube (108, 208, 308) is received within the first tube (104, 204, 304); wherein the VBG plate (106, 206, 306) is affixed to the portion of the second tube (108, 208, 308); and wherein the second tube (108, 208, 308) is configured such that the VBG plate (106, 206, 306) is positioned within the first tube (104, 204, 304) adjacent to the MCO (102, 202, 302).