mhurhangee/patent-ind-claim-en huggingface dataset:
A virtual machine password reset method for resetting a root or admin user password of a virtual machine, wherein the method comprises: sending , by the virtual machine, a password obtaining request to a cloud service computing node, wherein the password obtaining request is used to obtain a reset password of the virtual machine; receiving , by the virtual machine, a password obtaining response returned by the cloud service computing node, wherein the password obtaining response is generated after the cloud service computing node queries the reset password of the virtual machine in a metadata server; and when the password obtaining response comprises the reset password, configuring, by the virtual machine, the reset password as the password of the root or admin user of the virtual machine. sending , by the virtual machine, a password obtaining request to a cloud service computing node, wherein the password obtaining request is used to obtain a reset password of the virtual machine; receiving , by the virtual machine, a password obtaining response returned by the cloud service computing node, wherein the password obtaining response is generated after the cloud service computing node queries the reset password of the virtual machine in a metadata server; and when the password obtaining response comprises the reset password, configuring, by the virtual machine, the reset password as the password of the root or admin user of the virtual machine.
A directed media separation (DMS) system for use in a breastshield assembly of a breastmilk expression system , the DMS system comprising: a directing element ; and a media separation device connected to the directing element , the media separation device having an elongate sleeve defined by a continuous wall to have an open end , a closed end , opposed side wall portions , an inner surface and an outer surface, the media separation device configured with a preset geometry that affects a selective collapse of the media separation device from a directing geometry of the directing element in a predictable and repeatable manner relative to the directing geometry of the directing element upon applying pressure to the inner surface of the elongate sleeve . a directing element ; and a media separation device connected to the directing element , the media separation device having an elongate sleeve defined by a continuous wall to have an open end , a closed end , opposed side wall portions , an inner surface and an outer surface, the media separation device configured with a preset geometry that affects a selective collapse of the media separation device from a directing geometry of the directing element in a predictable and repeatable manner relative to the directing geometry of the directing element upon applying pressure to the inner surface of the elongate sleeve .
A medical device for implantation in a left atrial appendage of a heart, the medical device comprising: an occluder portion having a hub and defining an axis , the occluder portion extending between a proximal end coupled to the hub and a distal end defining a plurality of occluder eyelets adjacent thereto; and an anchor portion extending between a first end and a second end , the first end coupled to an anchor hub and the second end defining a plurality of anchor eyelets adjacent thereto, wherein each of the plurality of anchor eyelets is hingeably coupled to one of the plurality of occluder eyelets; wherein the anchor hub is moveable along the axis to move the anchor portion between a retracted position and a deployed position upon the occluder portion being in an expanded position; and wherein the anchor portion extends with anchor frame segments , the anchor frame segments including strut segments and anchoring tines extending therefrom; and characterised by the anchoring tines extending from a single strut segment being spaced a distance between adjacent tines within a range between about .152cm and .381cm (.060 inches and .150 inches).
Method for performing a sensitive operation during a communication between a processing unit comprising a browser and a first service server , said first server being accessible via a first domain name, ND1, and a first electronic address, IP1, the method comprising the step of using at least a second domain name ND2 different from ND1 and a second electronic address IP2 during all or part of said sensitive operation, characterised in that said unit implements instructions of a program (P8) or steps (20-21) configured to trigger, in a timely manner depending on the level of risk, navigation between the domains ND1 and ND2 and between the addresses IP1 and IP2, and to perform all or part of said sensitive operation outside the first domain name ND1 and outside the first address IP1 using said ND2 and IP2, where said ND2 and IP2 correspond to the same website of ND1 and IP1.
A method of freezing human and/or animal cells in suspension, wherein one or more samples of human and/or animal cells in suspension are contained in container(s) comprise one or more liquids, the method comprising: - controlling the cooling capacity in such a manner that the phase transition time of a sample can be regulated and controlled, - determining the cooling needed such that the phase transition time of a calibration sample contained in a container is an any more or less precise length below 6 minutes; - cooling said one or more samples in the same manner as said calibration sample by controlling the amount of cooling, such that that the phase transition time of the sample is regulated to an any more or less precise length below 6 minutes, wherein less than 2 % of cryoprotectant of the total sample volume is added to the container containing the biological material . - controlling the cooling capacity in such a manner that the phase transition time of a sample can be regulated and controlled, - determining the cooling needed such that the phase transition time of a calibration sample contained in a container is an any more or less precise length below 6 minutes; - cooling said one or more samples in the same manner as said calibration sample by controlling the amount of cooling, such that that the phase transition time of the sample is regulated to an any more or less precise length below 6 minutes,
Method for the production of plastic footwear (10; 100) of the full plastic type by means of moulding using a polyurethane mixture (M; P), wherein the sole (11; 101) and upper (12; 102) of the footwear (10; 100) are made integrally as one piece, the method comprising the steps of: - providing a mould having a mould cavity defined by at least two impressions and designed to receive a shoe last so as to define, when the mould is closed, an interspace having the shape and dimensions of the plastic footwear (10; 100) to be produced; - spraying a polyurethane mixture (M, P) with the mould open onto said at least two impressions of the mould cavity ; - inserting the shoe last inside the said mould cavity ; - closing the mould cavity so that the sprayed polyurethane mixture (M, P) occupies said interspace ; - opening the mould , once at least the demoulding time (td) for the sprayed polyurethane mixture (M, P) has lapsed, so that the sprayed polyurethane mixture (M, P) has solidified inside the interspace forming said plastic footwear ; - extracting the shoe last from the mould cavity ; - removing the plastic footwear from the shoe last . - providing a mould having a mould cavity defined by at least two impressions and designed to receive a shoe last so as to define, when the mould is closed, an interspace having the shape and dimensions of the plastic footwear (10; 100) to be produced; - spraying a polyurethane mixture (M, P) with the mould open onto said at least two impressions of the mould cavity ; - inserting the shoe last inside the said mould cavity ; - closing the mould cavity so that the sprayed polyurethane mixture (M, P) occupies said interspace ; - opening the mould , once at least the demoulding time (td) for the sprayed polyurethane mixture (M, P) has lapsed, so that the sprayed polyurethane mixture (M, P) has solidified inside the interspace forming said plastic footwear ; - extracting the shoe last from the mould cavity ; - removing the plastic footwear from the shoe last .
A drug delivery device adapted to dispense a variable dose of a medicament and to couple to a reading device , wherein - the drug delivery device comprises a case (1.2, 10.2) and at least one movable component (1.1, 10.1), wherein - the movable component (1.1, 10.1) is arranged within and movable with respect to the case (1.2, 10.2), - the movable component (1.1, 10.1) is provided with infrared readable data (D, D10) that is provided by a covered part (1.1.1.2, 10.1.1.2) of the movable component (1.1, 10.1) and assigned to visual data (D opt , D 10opt ) provided by at least one of the movable components (1.1, 10.1), wherein - the covered part (1.1.1.2, 10.1.1.2) of the movable component (1.1, 10.1) is covered by an opaque part of the case and/or by an opaque outer surface of the movable component (1.1, 10.1), wherein - the reading device is adapted to read-out the infrared readable data (D, D 10 ) through the case (1.2, 10.2). - the drug delivery device comprises a case (1.2, 10.2) and at least one movable component (1.1, 10.1), wherein - the movable component (1.1, 10.1) is arranged within and movable with respect to the case (1.2, 10.2), - the movable component (1.1, 10.1) is provided with infrared readable data (D, D10) that is provided by a covered part (1.1.1.2, 10.1.1.2) of the movable component (1.1, 10.1) and assigned to visual data (D opt , D 10opt ) provided by at least one of the movable components (1.1, 10.1), wherein - the covered part (1.1.1.2, 10.1.1.2) of the movable component (1.1, 10.1) is covered by an opaque part of the case and/or by an opaque outer surface of the movable component (1.1, 10.1), wherein - the reading device is adapted to read-out the infrared readable data (D, D 10 ) through the case (1.2, 10.2).
A method for producing a polymer, excluding natural rubber, the method comprising a mastication step in which only a polymer ready for introduction into a kneading machine, excluding natural rubber, which has a temperature within the range of -20°C to 80°C at the start of kneading and a size satisfying the following formula (I), is kneaded for a kneading time of 5 minutes or less using a kneading machine until the temperature falls within the range of 20°C to 120°C, so that the polymer is finely milled to increase the surface area that contacts other materials: Tip clearance d of kneading machine 3 ≤ Volume V of polymer ready for introduction into kneading machine ≤ 2.0 × 10 4 cm 3
A light emitting device comprising: a light emitting structure comprising a plurality of compound semiconductor layers; and a light extraction structure on the light emitting structure, wherein the compound semiconductor layer includes an active layer , a first conductivity type semiconductor layer under the active layer and a second conductivity type semiconductor layer on the active layer, a first electrode formed on the first conductivity type semiconductor layer and a second electrode formed on the second conductivity type semiconductor layer , wherein the light extraction structure comprises dielectric layers (25a to 25e) and metal layers (23a to 23e) which are alternately disposed with each other to have a negative refraction index, wherein the lowermost layer is a dielectric layer and the uppermost layer is a metal layer , wherein the first dielectric layer which is the lowermost layer of the light extraction structure is in contact with the second conductivity type semiconductor layer , wherein the first metal layer is formed to cover the top surface and one side surface of the underlying first dielectric layer and one side end of the first metal layer extending from a side surface of the underlying first dielectric layer is in contact with the top surface of the second conductivity type semiconductor layer , wherein the second electrode is formed to allow the back surface of the second electrode to make contact with the second conductivity type semiconductor layer , wherein the metal layers (23a to 23e) make contact with the second electrode a light emitting structure comprising a plurality of compound semiconductor layers; and a light extraction structure on the light emitting structure, wherein the compound semiconductor layer includes an active layer , a first conductivity type semiconductor layer under the active layer and a second conductivity type semiconductor layer on the active layer, a first electrode formed on the first conductivity type semiconductor layer and a second electrode formed on the second conductivity type semiconductor layer , wherein the light extraction structure comprises dielectric layers (25a to 25e) and metal layers (23a to 23e) which are alternately disposed with each other to have a negative refraction index, wherein the lowermost layer is a dielectric layer and the uppermost layer is a metal layer , wherein the first dielectric layer which is the lowermost layer of the light extraction structure is in contact with the second conductivity type semiconductor layer , wherein the first metal layer is formed to cover the top surface and one side surface of the underlying first dielectric layer and one side end of the first metal layer extending from a side surface of the underlying first dielectric layer is in contact with the top surface of the second conductivity type semiconductor layer , wherein the second electrode is formed to allow the back surface of the second electrode to make contact with the second conductivity type semiconductor layer , wherein the metal layers (23a to 23e) make contact with the second electrode
A light-emitting device comprising: a mounting substrate ; a plurality of light-emitting elements disposed on the mounting substrate side by side; and a wavelength conversion plate provided over the plurality of light-emitting elements and having a side surface; and characterized by further comprising a plurality of bumps disposed on the mounting substrate to abut against the side surface of the wavelength conversion plate , so as to determine a position of the wavelength conversion plate . a mounting substrate ; a plurality of light-emitting elements disposed on the mounting substrate side by side; and a wavelength conversion plate provided over the plurality of light-emitting elements and having a side surface; and characterized by further comprising a plurality of bumps disposed on the mounting substrate to abut against the side surface of the wavelength conversion plate , so as to determine a position of the wavelength conversion plate .
An outdoor unit of an air-conditioning apparatus, comprising: a housing that has an opening through a side of the housing ; a heat exchanger disposed in an upper portion of an interior of the housing ; a bottom plate disposed at a bottom of the housing , the bottom plate having a drainage hole through which to drain out drain water generated at the heat exchanger ; and a drainage structure disposed below the heat exchanger and that guides the drain water to the bottom plate , the drainage structure including a side panel that covers the opening of the housing , and a water guide plate disposed inside the housing and facing the side panel , the water guide plate and the side panel defining a drainage path for draining the drain water between the water guide plate and the side panel , characterized in that the outdoor unit comprises heating means configured to heat the drainage structure , wherein the heating means are configured to heat at least an upper portion of the side panel . a housing that has an opening through a side of the housing ; a heat exchanger disposed in an upper portion of an interior of the housing ; a bottom plate disposed at a bottom of the housing , the bottom plate having a drainage hole through which to drain out drain water generated at the heat exchanger ; and a drainage structure disposed below the heat exchanger and that guides the drain water to the bottom plate , the drainage structure including a side panel that covers the opening of the housing , and a water guide plate disposed inside the housing and facing the side panel , the water guide plate and the side panel defining a drainage path for draining the drain water between the water guide plate and the side panel , characterized in that the outdoor unit comprises heating means configured to heat the drainage structure , wherein the heating means are configured to heat at least an upper portion of the side panel .
A process for the preparation of a cRGD-Cy5.5 conjugate of formula (I) which comprises the steps of: a) hydrogenating a compound of formula (II) wherein Mtr is a 2,3,6-trimethyl-4-methoxybenzene-sulfonyl group, to provide its amino-derivative of formula (III) wherein Mtr is as defined above; b) reacting, in the presence of a base and a coupling reagent and in the presence of an anhydrous polar aprotic solvent selected from N,N-dimethylformamide, N,N-dimethylacetamide, dimethyl sulfoxide, n-methylpyrrolidone and acetonitrile, the compound of formula (III) with a compound of formula (IV) to provide a compound of formula (V) wherein Mtr is as defined above; c) deprotecting the compound of formula (V) to obtain the compound of formula (I); d) purifying the compound of formula (I) by an anion exchange chromatography performed with an agarose matrix resin. a) hydrogenating a compound of formula (II) wherein Mtr is a 2,3,6-trimethyl-4-methoxybenzene-sulfonyl group, to provide its amino-derivative of formula (III) wherein Mtr is as defined above; b) reacting, in the presence of a base and a coupling reagent and in the presence of an anhydrous polar aprotic solvent selected from N,N-dimethylformamide, N,N-dimethylacetamide, dimethyl sulfoxide, n-methylpyrrolidone and acetonitrile, the compound of formula (III) with a compound of formula (IV) to provide a compound of formula (V) wherein Mtr is as defined above; c) deprotecting the compound of formula (V) to obtain the compound of formula (I); d) purifying the compound of formula (I) by an anion exchange chromatography performed with an agarose matrix resin.
Arrangement comprising a liquid-cooled piston of an internal combustion engine and three injection nozzles , wherein the piston has a radially encircling cooling duct spaced apart from a piston crown , wherein, as coolant, a lubricant oil of the internal combustion engine is injected into in each case one inlet opening over a free jet via two injection nozzles , flows through the cooling duct and leaves the piston through in each case one outlet opening , wherein - the cooling duct is embodied in an undivided manner; - two injection nozzles for acting on the inlet openings or a connection of the cooling duct are provided; - the coolant enters the respective inlet opening in each case in a free jet, oriented parallel to a longitudinal axis of the piston , from the injection nozzles - an underside of the piston is acted on with coolant by a free jet of the third injection nozzle . - the cooling duct is embodied in an undivided manner; - two injection nozzles for acting on the inlet openings or a connection of the cooling duct are provided; - the coolant enters the respective inlet opening in each case in a free jet, oriented parallel to a longitudinal axis of the piston , from the injection nozzles - an underside of the piston is acted on with coolant by a free jet of the third injection nozzle .
A method of performing a self-test associated with a magnetic field sensor , comprising: generating a proximity signal responsive to a proximity of a sensed object with one or more magnetic field sensing elements disposed on a substrate ; and with a self-test module disposed on the substrate: sampling the proximity signal, by analog sampling or digitally converting, to generate a plurality of analog samples or a plurality of digital samples, respectively, each digital sample comprising a plurality of digital bits; selecting samples from among the plurality of analog or digital samples, wherein the selected samples consist of amplitudes of the peaks of the proximity signal ; communicating the selected samples to a processor outside of the magnetic field sensor; and using the processor, performing a self-test associated with the magnetic field sensor by using the samples to compare peak amplitudes or peak-to-peak amplitudes of the proximity signal to a predetermined threshold to determine a passing or failing condition. generating a proximity signal responsive to a proximity of a sensed object with one or more magnetic field sensing elements disposed on a substrate ; and with a self-test module disposed on the substrate: sampling the proximity signal, by analog sampling or digitally converting, to generate a plurality of analog samples or a plurality of digital samples, respectively, each digital sample comprising a plurality of digital bits; selecting samples from among the plurality of analog or digital samples, wherein the selected samples consist of amplitudes of the peaks of the proximity signal ; communicating the selected samples to a processor outside of the magnetic field sensor; and using the processor, performing a self-test associated with the magnetic field sensor by using the samples to compare peak amplitudes or peak-to-peak amplitudes of the proximity signal to a predetermined threshold to determine a passing or failing condition. sampling the proximity signal, by analog sampling or digitally converting, to generate a plurality of analog samples or a plurality of digital samples, respectively, each digital sample comprising a plurality of digital bits; selecting samples from among the plurality of analog or digital samples, wherein the selected samples consist of amplitudes of the peaks of the proximity signal ; communicating the selected samples to a processor outside of the magnetic field sensor; and using the processor, performing a self-test associated with the magnetic field sensor by using the samples to compare peak amplitudes or peak-to-peak amplitudes of the proximity signal to a predetermined threshold to determine a passing or failing condition.
A wireless communication device which includes two wireless communication units configured to transfer data, comprising: a communication priority storage unit configured to store priority information indicating priorities of transmission and reception of each data type to be transmitted; a priority comparison unit configured to compare a priority of the data type of a transmission target with a priority of the data type of a reception target on a basis of the priority information in a case where data is transmitted by one wireless communication unit and data is received by another wireless communication unit at the same time; and a transmission restriction unit configured to restrict a communication volume of data transmission in the one wireless communication unit when the priority comparison unit obtains a comparison result that the priority of the data type of the reception target is higher than the priority of the data type of the transmission target. a communication priority storage unit configured to store priority information indicating priorities of transmission and reception of each data type to be transmitted; a priority comparison unit configured to compare a priority of the data type of a transmission target with a priority of the data type of a reception target on a basis of the priority information in a case where data is transmitted by one wireless communication unit and data is received by another wireless communication unit at the same time; and a transmission restriction unit configured to restrict a communication volume of data transmission in the one wireless communication unit when the priority comparison unit obtains a comparison result that the priority of the data type of the reception target is higher than the priority of the data type of the transmission target.