mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: receiving one or more rules for respective users' access to variable resources associated with virtual desktop instances; receiving a request from a computing device to access a virtual desktop instance , the request identifying a user of the computing device; providing, to the computing device, access to a first virtual desktop instance configured with a set of resources, the set of resources including at least a specified amount of processing resources within the configuration of the virtual machine and a specified amount of memory resources within the configuration of the virtual machine for use in executing the first virtual desktop instance; and receiving a second request, initiated by the user of the computing device, to change the set of resources, wherein the change in the set of resources comprises an increase of at least one of the specified amount of processing resources and the specified amount of memory resources; determining, based on the one or more rules for respective users' access to variable resources, whether to cause the change in the set of resources; and if it is determined to cause the change in the set of resources, increasing one or more of memory specifications or processing power specifications associated with the virtual desktop instance. receiving one or more rules for respective users' access to variable resources associated with virtual desktop instances; receiving a request from a computing device to access a virtual desktop instance , the request identifying a user of the computing device; providing, to the computing device, access to a first virtual desktop instance configured with a set of resources, the set of resources including at least a specified amount of processing resources within the configuration of the virtual machine and a specified amount of memory resources within the configuration of the virtual machine for use in executing the first virtual desktop instance; and receiving a second request, initiated by the user of the computing device, to change the set of resources, wherein the change in the set of resources comprises an increase of at least one of the specified amount of processing resources and the specified amount of memory resources; determining, based on the one or more rules for respective users' access to variable resources, whether to cause the change in the set of resources; and if it is determined to cause the change in the set of resources, increasing one or more of memory specifications or processing power specifications associated with the virtual desktop instance.
A lens driving device, comprising: a housing ; a bobbin disposed in the housing ; a first coil disposed on an outer peripheral surface of the bobbin ; a magnet disposed on the housing and facing the first coil ; a base disposed under the housing ; a substrate disposed on an upper surface of the base and comprising a second coil facing the magnet ; an upper elastic unit connecting the housing and the bobbin ; and a side elastic unit electrically connecting the upper elastic unit and the substrate , characterized in that the bobbin comprises two fixing ribs protruding from the outer peripheral surface of the bobbin and a flange unit that protrudes more than the two fixing ribs from the outer peripheral surface of the bobbin , at least a portion of the first coil is disposed between the two fixing ribs of the bobbin , the housing comprises a mounting portion overlapped with the flange unit of the bobbin in a direction of an optical axis, and a downward movement of the bobbin is configured to be limited by the flange unit of the bobbin and the mounting portion of the housing . a housing ; a bobbin disposed in the housing ; a first coil disposed on an outer peripheral surface of the bobbin ; a magnet disposed on the housing and facing the first coil ; a base disposed under the housing ; a substrate disposed on an upper surface of the base and comprising a second coil facing the magnet ; an upper elastic unit connecting the housing and the bobbin ; and a side elastic unit electrically connecting the upper elastic unit and the substrate , characterized in that the bobbin comprises two fixing ribs protruding from the outer peripheral surface of the bobbin and a flange unit that protrudes more than the two fixing ribs from the outer peripheral surface of the bobbin , at least a portion of the first coil is disposed between the two fixing ribs of the bobbin , the housing comprises a mounting portion overlapped with the flange unit of the bobbin in a direction of an optical axis, and a downward movement of the bobbin is configured to be limited by the flange unit of the bobbin and the mounting portion of the housing .
An apparatus for providing a speech probability estimation, comprising: a first speech probability estimator (110; 210; 310) for estimating speech probability information indicating a first probability on whether a sound field of a scene comprises speech or on whether the sound field of the scene does not comprise speech, wherein the first speech probability estimator (110; 210; 310) is configured to estimate the speech probability information based on at least spatial information about the sound field or spatial information on the scene, and a second speech probability estimator (215; 315) for estimating the speech probability estimation indicating a second probability on whether the sound field of the scene comprises speech or on whether the sound field of the scene does not comprise speech, wherein the second speech probability estimator (215; 315) is configured to estimate the speech probability estimation based on the speech probability information estimated by the first speech probability estimator (110; 210; 310), and based on one or more acoustic sensor signals, which depend on the sound field, and an output interface (120; 220) for outputting the speech probability estimation. a first speech probability estimator (110; 210; 310) for estimating speech probability information indicating a first probability on whether a sound field of a scene comprises speech or on whether the sound field of the scene does not comprise speech, wherein the first speech probability estimator (110; 210; 310) is configured to estimate the speech probability information based on at least spatial information about the sound field or spatial information on the scene, and a second speech probability estimator (215; 315) for estimating the speech probability estimation indicating a second probability on whether the sound field of the scene comprises speech or on whether the sound field of the scene does not comprise speech, wherein the second speech probability estimator (215; 315) is configured to estimate the speech probability estimation based on the speech probability information estimated by the first speech probability estimator (110; 210; 310), and based on one or more acoustic sensor signals, which depend on the sound field, and an output interface (120; 220) for outputting the speech probability estimation.
A motor driven shielded door assembly comprising: a door frame positioned along a wall ; a door hinge assembly having an axis of rotation and including a bottom hinge and a top hinge ; a motor assembly arranged on a support that is connected to the door frame or wall , the motor assembly comprising a motor directly connected to at least one of the bottom hinge and the top hinge , the motor having an axis of rotation which is aligned with the axis of rotation of the door hinge assembly ; a door connected to the door hinge assembly ; and a bottom bearing assembly which supports the bottom hinge and carries substantially all of the door's weight, the bottom bearing assembly being mounted substantially flush to a floor; wherein the motor directly drives the door hinge assembly to open and close the door , and wherein the support and the motor assembly are arranged between the bottom hinge and the top hinge . a door frame positioned along a wall ; a door hinge assembly having an axis of rotation and including a bottom hinge and a top hinge ; a motor assembly arranged on a support that is connected to the door frame or wall , the motor assembly comprising a motor directly connected to at least one of the bottom hinge and the top hinge , the motor having an axis of rotation which is aligned with the axis of rotation of the door hinge assembly ; a door connected to the door hinge assembly ; and a bottom bearing assembly which supports the bottom hinge and carries substantially all of the door's weight, the bottom bearing assembly being mounted substantially flush to a floor; wherein the motor directly drives the door hinge assembly to open and close the door , and wherein the support and the motor assembly are arranged between the bottom hinge and the top hinge .
A nonvolatile memory cross-bar array , including: a number of junctions formed by a number of row lines intersecting a number of column lines ; a first set of controls at a first set of the junctions coupling between a first set of the row lines and a first set of the column lines, each control of the first set including a first transistor and a first resistive memory element connected in series between the first set of row lines and the first set of column lines; a second set of controls at a second set of the junctions coupling between a second set of the row lines and a second set of the column lines, each control of the second set including a second transistor and a second resistive memory element connected in series between the second set of row lines and the second set of column lines, wherein each column line includes a junction of the first set and a junction of the second set in two different row lines; and a current collection line to collect currents from the controls of the first set and the second set through their respective column lines and output a result current corresponding to a sum of a first dot product and a second dot product corresponding respectively to currents collected from the controls of the first set and the second set . a number of junctions formed by a number of row lines intersecting a number of column lines ; a first set of controls at a first set of the junctions coupling between a first set of the row lines and a first set of the column lines, each control of the first set including a first transistor and a first resistive memory element connected in series between the first set of row lines and the first set of column lines; a second set of controls at a second set of the junctions coupling between a second set of the row lines and a second set of the column lines, each control of the second set including a second transistor and a second resistive memory element connected in series between the second set of row lines and the second set of column lines, wherein each column line includes a junction of the first set and a junction of the second set in two different row lines; and a current collection line to collect currents from the controls of the first set and the second set through their respective column lines and output a result current corresponding to a sum of a first dot product and a second dot product corresponding respectively to currents collected from the controls of the first set and the second set .
An aircraft system, comprising: a line capture device body (141; 441) having a line slot (144; 444), the line slot (144; 444) having an open end and a closed end ; a retainer (146; 446) positioned proximate to the line slot (144; 444), the retainer (146; 446) including a rotor (147; 447) having a plurality of rotor arms (148; 448) positioned to extend at least partially across the line slot (144; 444) as the rotor (147; 447) rotates relative to the body (141; 441); a joint rotatably coupling the rotor (147; 447) to the body (141; 441); a ratchet device operably coupled to the rotor (147; 447) to allow the rotor (147; 447) to rotate in a first direction and at least restrict the rotor (147; 447) from rotating in a second direction opposite the first. a line capture device body (141; 441) having a line slot (144; 444), the line slot (144; 444) having an open end and a closed end ; a retainer (146; 446) positioned proximate to the line slot (144; 444), the retainer (146; 446) including a rotor (147; 447) having a plurality of rotor arms (148; 448) positioned to extend at least partially across the line slot (144; 444) as the rotor (147; 447) rotates relative to the body (141; 441); a joint rotatably coupling the rotor (147; 447) to the body (141; 441); a ratchet device operably coupled to the rotor (147; 447) to allow the rotor (147; 447) to rotate in a first direction and at least restrict the rotor (147; 447) from rotating in a second direction opposite the first.
A method, comprising: receiving , by multiple receivers of multiple gateways of a ground receiver system, from multiple transmitters of a satellite over a downlink of a line-of-sight LoS multiple-input multiple-output MIMO feeder link, multiple radio frequency RF signals; obtaining , at the ground receiver system, from the RF signals, preamble signals and pilot signals, the pilot signals including first sequences of pilot symbols associated with second sequences of pilot symbols transmitted by the transmitters; estimating , at the ground receiver system, based on the first sequences of pilot symbols and the second sequences of pilot symbols, first channel state information CSI of the pilot signals; estimating , at the ground receiver system, using the first CSI of the pilot signals, frequency offsets and phase offsets of links between the receivers and the transmitters; adjusting , at the ground receiver system, based at least on the frequency offsets and the phase offsets, the preamble signals to obtain adjusted preamble signals; and estimating , at the ground receiver system, using the adjusted preamble signals, second CSI of the downlink. receiving , by multiple receivers of multiple gateways of a ground receiver system, from multiple transmitters of a satellite over a downlink of a line-of-sight LoS multiple-input multiple-output MIMO feeder link, multiple radio frequency RF signals; obtaining , at the ground receiver system, from the RF signals, preamble signals and pilot signals, the pilot signals including first sequences of pilot symbols associated with second sequences of pilot symbols transmitted by the transmitters; estimating , at the ground receiver system, based on the first sequences of pilot symbols and the second sequences of pilot symbols, first channel state information CSI of the pilot signals; estimating , at the ground receiver system, using the first CSI of the pilot signals, frequency offsets and phase offsets of links between the receivers and the transmitters; adjusting , at the ground receiver system, based at least on the frequency offsets and the phase offsets, the preamble signals to obtain adjusted preamble signals; and estimating , at the ground receiver system, using the adjusted preamble signals, second CSI of the downlink.
An operating method of an electronic device comprising two or more first sensors and a plurality of integrated modules, each integrated module comprising a second sensor and a microphone mounted thereon, the second sensor being a proximity sensor; the method comprising: detecting, by one of the two or more first sensors , an amount of charge transfer; when the amount of the charge transfer is detected to be greater than a preset value, determining whether an object within a preset distance from the electronic device is detected by one of the second sensors ; and in response to determining that the object within the preset distance is detected by one second sensor , setting a microphone disposed within the same integrated module as the second sensor detecting the object as the main microphone, and setting the other microphones as sub microphones; and controlling the electronic device to receive a voice from the main microphone, and to cancel noise from the received voice input using the sub microphones. detecting, by one of the two or more first sensors , an amount of charge transfer; when the amount of the charge transfer is detected to be greater than a preset value, determining whether an object within a preset distance from the electronic device is detected by one of the second sensors ; and in response to determining that the object within the preset distance is detected by one second sensor , setting a microphone disposed within the same integrated module as the second sensor detecting the object as the main microphone, and setting the other microphones as sub microphones; and controlling the electronic device to receive a voice from the main microphone, and to cancel noise from the received voice input using the sub microphones.
A motor control device at least including a speed control part for controlling a rotation speed of a synchronous motor with built-in electronic components in a drive circuit, the motor control device comprising a torque correction means for making a correction to suppress a variation in a conversion coefficient expressing a relationship between a torque command and actual torque that is output from the motor due to an individual difference of the motor , such as a variation in motor production and variation in characteristics of the electronic components in a drive circuit, characterized in that the torque correction means is configured to correct the conversion coefficient based on a maximum unloaded speed when an applied voltage is fixed or based on a motor applied voltage when a speed of the motor is fixed.
An adhesive for a thermal insulator, wherein the adhesive comprises: 100 parts by mass (pbm) of a raw material for carbonization with a carbonization ratio of ≥ 40% when carbonized in a non-oxidation atmosphere at 800°C, the raw material being selected from a polyurethane, a polyisocyanate, a polyimide, a phenolic resin, a furan resin, an urea resin, a polyester resin, an epoxy resin, pitch and coal tar, the adhesive further comprises: 5-150 pbm of a heterocyclic compound which has oxygen as an element constructing the ring thereof and which dissolves the raw material for carbonization; and 5-80 pbm of any of short carbon fibers and short fibers which are carbonizable and insoluble in the heterocyclic compound wherein any of the short carbon fibers and the short fibers which are carbonizable and insoluble in the heterocyclic compound are characterized in that they have an average fiber length of 0.02-2 mm and satisfy 200≥L/D≥5. 100 parts by mass (pbm) of a raw material for carbonization with a carbonization ratio of ≥ 40% when carbonized in a non-oxidation atmosphere at 800°C, the raw material being selected from a polyurethane, a polyisocyanate, a polyimide, a phenolic resin, a furan resin, an urea resin, a polyester resin, an epoxy resin, pitch and coal tar, the adhesive further comprises: 5-150 pbm of a heterocyclic compound which has oxygen as an element constructing the ring thereof and which dissolves the raw material for carbonization; and 5-80 pbm of any of short carbon fibers and short fibers which are carbonizable and insoluble in the heterocyclic compound wherein any of the short carbon fibers and the short fibers which are carbonizable and insoluble in the heterocyclic compound are characterized in that they have an average fiber length of 0.02-2 mm and satisfy 200≥L/D≥5.
A glenoid bone augment comprising: a bone engaging surface having a first end , a second end , the bone engaging surface extending from the first end to the second end ; a coupling surface opposite the bone engaging surface and a flange that extends about the bone engaging surface for any suitable distance in order to be capable of filling a particular bone defect. a bone engaging surface having a first end , a second end , the bone engaging surface extending from the first end to the second end ; a coupling surface opposite the bone engaging surface and a flange that extends about the bone engaging surface for any suitable distance in order to be capable of filling a particular bone defect.
An emissions treatment system for an exhaust stream of a diesel engine or a lean burn gasoline engine comprising: an ammonia-generating component that is a lean NOx trap (LNT) catalyst disposed on an upstream carrier that is a flow through monolith; and an SCR catalyst disposed downstream of the ammonia-generating component, wherein the SCR catalyst comprises a molecular sieve having the CHA crystal structure; wherein the emission treatment system is characterized by the lean NOx trap (LNT) catalytic material disposed on an upstream carrier that is a flow through monolith; wherein the LNT catalyst comprises: an undercoat washcoat layer comprising a support material, at least one precious metal, and at least one NOx sorbent selected from the group consisting of oxides of magnesium, calcium, strontium, barium, lanthanum, cerium, praseodymium, neodymium, and combinations thereof wherein the undercoat washcoat layer is on the carrier; and a top washcoat layer comprising a support material, at least one precious metal, and ceria in particulate form, the top washcoat layer being substantially free of alkaline earth components; wherein the molecular sieve is copper SAPO-34, and the molecular sieve is disposed on a downstream carrier. an ammonia-generating component that is a lean NOx trap (LNT) catalyst disposed on an upstream carrier that is a flow through monolith; and an SCR catalyst disposed downstream of the ammonia-generating component, wherein the SCR catalyst comprises a molecular sieve having the CHA crystal structure; wherein the emission treatment system is characterized by the lean NOx trap (LNT) catalytic material disposed on an upstream carrier that is a flow through monolith; wherein the LNT catalyst comprises: an undercoat washcoat layer comprising a support material, at least one precious metal, and at least one NOx sorbent selected from the group consisting of oxides of magnesium, calcium, strontium, barium, lanthanum, cerium, praseodymium, neodymium, and combinations thereof wherein the undercoat washcoat layer is on the carrier; and a top washcoat layer comprising a support material, at least one precious metal, and ceria in particulate form, the top washcoat layer being substantially free of alkaline earth components;
A process of manufacturing a pressure sensitive adhesive, comprising the steps of: a) providing a hot melt mixing apparatus; b) providing a hot melt processable pressure sensitive adhesive composition contained within a packaging material and forming a packaged pressure sensitive adhesive composition; c) providing a thermal crosslinking system; d) mixing the hot melt processable pressure sensitive adhesive composition and the thermal crosslinking system in the hot melt mixing apparatus thereby forming a hot melt blend, wherein the packaging material is melted and mixable with the hot melt blend; e) removing the hot melt blend from the hot melt mixing apparatus; and f) thermally crosslinking the hot melt blend. a) providing a hot melt mixing apparatus; b) providing a hot melt processable pressure sensitive adhesive composition contained within a packaging material and forming a packaged pressure sensitive adhesive composition; c) providing a thermal crosslinking system; d) mixing the hot melt processable pressure sensitive adhesive composition and the thermal crosslinking system in the hot melt mixing apparatus thereby forming a hot melt blend, wherein the packaging material is melted and mixable with the hot melt blend; e) removing the hot melt blend from the hot melt mixing apparatus; and f) thermally crosslinking the hot melt blend.
Earth drilling device with a drill rod section, characterised in that the drill rod section is designed for measuring bends and a data connection can be established between the drill rod section and a receiver means , wherein the drill rod section has a rod-shaped section on which at least one expansion sensor is arranged and the drill rod section has a protective sleeve , in which the rod-shaped section is arranged.