mhurhangee/ep-ind-claims huggingface dataset:
An automatic gain control apparatus comprising: a first gain controlled element and a second gain controlled element, each of which has a signal input (241, 251), a gain control input (243, 253) and a signal output (242, 252), wherein the first gain controlled element and the second gain controlled element are coupled in series, with one or more power elements coupled therebetween, and wherein the signal input of the first gain controlled element constitutes an input of the automatic gain control apparatus; a first gain control device, having a pre-detection input which is coupled to the signal input of the first gain controlled element and an output which drives the gain control input of the first gain controlled element; a second gain control device, having a pre-detection input and having an output which drives the gain control input of the second gain controlled element; and characterised by a first simulator, coupled between the signal input of the first gain controlled element and the pre-detection input of the second gain control device, wherein the first simulator simulates frequency response of the power elements between the first gain controlled element and the second gain controlled element, to make a signal received by the pre-detection input of the second gain control device be matched with a signal received by the signal input of the second gain controlled element. a first gain controlled element and a second gain controlled element, each of which has a signal input (241, 251), a gain control input (243, 253) and a signal output (242, 252), wherein the first gain controlled element and the second gain controlled element are coupled in series, with one or more power elements coupled therebetween, and wherein the signal input of the first gain controlled element constitutes an input of the automatic gain control apparatus; a first gain control device, having a pre-detection input which is coupled to the signal input of the first gain controlled element and an output which drives the gain control input of the first gain controlled element; a second gain control device, having a pre-detection input and having an output which drives the gain control input of the second gain controlled element; and characterised by a first simulator, coupled between the signal input of the first gain controlled element and the pre-detection input of the second gain control device, wherein the first simulator simulates frequency response of the power elements between the first gain controlled element and the second gain controlled element, to make a signal received by the pre-detection input of the second gain control device be matched with a signal received by the signal input of the second gain controlled element.
A locker with a valve assembly (150,160,180,190), comprising a locker body and an air supply assembly disposed on the locker body, and a main air duct communicating with the air supply assembly is disposed inside the locker body; the locker body comprises at least one storage box, each of the at least one storage box comprises a box body, a box door and the valve assembly, the box body comprises a sidewall that surrounds a circle and further comprises an inner wall connected to a rear end of the sidewall, a front end of the sidewall forms an opening, and the sidewall is provided with an air vent (111,112) communicating with the main air duct; the box door has a closed position for closing the opening, and an open position for opening the opening; and the valve assembly comprises a valve and a reset member, wherein the valve is configured to move relative to the sidewall; and the locker with the valve assembly is characterized in that: when the box door is located at the closed position, the box door is configured to drive the valve to open the air vent (111,112); and when the box door is located at the open position, the reset member is configured to drive the valve to close the air vent (111,112). comprising a locker body and an air supply assembly disposed on the locker body, and a main air duct communicating with the air supply assembly is disposed inside the locker body; the locker body comprises at least one storage box, each of the at least one storage box comprises a box body, a box door and the valve assembly, the box body comprises a sidewall that surrounds a circle and further comprises an inner wall connected to a rear end of the sidewall, a front end of the sidewall forms an opening, and the sidewall is provided with an air vent (111,112) communicating with the main air duct; the box door has a closed position for closing the opening, and an open position for opening the opening; and the valve assembly comprises a valve and a reset member, wherein the valve is configured to move relative to the sidewall; and the locker with the valve assembly is characterized in that: when the box door is located at the closed position, the box door is configured to drive the valve to open the air vent (111,112); and when the box door is located at the open position, the reset member is configured to drive the valve to close the air vent (111,112).
A method for restoring service acceleration for a service, the method comprising: determining that service acceleration for the service is operating improperly, the service acceleration provided by a group of interoperating acceleration components (1301, 1302, 1303, 1304) and roles (1311, 1312, 1313, 1314) at each acceleration component in the group of interoperating acceleration components linked together to compose a graph, wherein the acceleration components are in a hardware acceleration plane; detecting that degraded performance at an acceleration component, included in the group of interoperating acceleration components, caused the service acceleration to operate improperly, the acceleration component assigned to provide a role that is linked to one or more other roles(1312, 1314) in the graph; selecting a replacement acceleration component from among one or more other acceleration components to provide the role; and restoring service acceleration for the service by assigning the replacement acceleration component to provide the role and linking the role provided by the replacement acceleration component to the one or more other roles(1312, 1314). determining that service acceleration for the service is operating improperly, the service acceleration provided by a group of interoperating acceleration components (1301, 1302, 1303, 1304) and roles (1311, 1312, 1313, 1314) at each acceleration component in the group of interoperating acceleration components linked together to compose a graph, wherein the acceleration components are in a hardware acceleration plane; detecting that degraded performance at an acceleration component, included in the group of interoperating acceleration components, caused the service acceleration to operate improperly, the acceleration component assigned to provide a role that is linked to one or more other roles(1312, 1314) in the graph; selecting a replacement acceleration component from among one or more other acceleration components to provide the role; and restoring service acceleration for the service by assigning the replacement acceleration component to provide the role and linking the role provided by the replacement acceleration component to the one or more other roles(1312, 1314).
A system (300, 500) for commissioning a building system, said system comprising: a processor (340, 350, 120, 520) in communication with a memory (320, 530), the memory including code, which when accessed by the processor causes the processor to: receive sensor data from at least one sensor unit (110, 160, 180, 130); determine a location associated with each of said at least sensor unit (110, 160, 180, 130); generate a map of an environment associated with said building system based on said received sensor data; detect a change in said map of said environment; determine a change in at least one commissioning parameter of said building system associated with said detected change in said map; and output said change in said at least one commissioning parameter; wherein at least one of said at least one sensor unit (110, 160, 180, 130) is a mobile device. receive sensor data from at least one sensor unit (110, 160, 180, 130); determine a location associated with each of said at least sensor unit (110, 160, 180, 130); generate a map of an environment associated with said building system based on said received sensor data; detect a change in said map of said environment; determine a change in at least one commissioning parameter of said building system associated with said detected change in said map; and output said change in said at least one commissioning parameter; wherein at least one of said at least one sensor unit (110, 160, 180, 130) is a mobile device.
A cardiac valve prosthesis, comprising: an expandable valve stent provided with multiple fixing holes; an artificial valve provided on the valve stent; and a thorn structure comprising an expandable thorn stent and multiple thoms; wherein, the multiple thorns are provided on the thorn stent, the size of the thorn stent in a fully expanded state is greater than or equal to the size of the valve stent in a fully expanded state, the position of the multiple thorns on the thorn stent matches the position of the fixing holes on the valve stent, and the size of the multiple thorns on the thorn stent is smaller than the size of the fixing holes on the valve stent, such that, when the cardiac valve prosthesis is implanted into a cardiac chamber, the multiple thorns pass through the multiple fixing holes and penetrate tissue in the cardiac chamber so as to fix the valve stent, and wherein the thorn stent is a mesh structure composed of multiple diamond-shaped grids or the thorn stent comprises multiple connecting rods connected end to end to form a closed chain structure, wherein any two adjacent connecting rods form a V-shaped structure, and wherein the multiple thoms and the multiple connecting rods are integrally formed. an expandable valve stent provided with multiple fixing holes; an artificial valve provided on the valve stent; and a thorn structure comprising an expandable thorn stent and multiple thoms; wherein, the multiple thorns are provided on the thorn stent, the size of the thorn stent in a fully expanded state is greater than or equal to the size of the valve stent in a fully expanded state, the position of the multiple thorns on the thorn stent matches the position of the fixing holes on the valve stent, and the size of the multiple thorns on the thorn stent is smaller than the size of the fixing holes on the valve stent, such that, when the cardiac valve prosthesis is implanted into a cardiac chamber, the multiple thorns pass through the multiple fixing holes and penetrate tissue in the cardiac chamber so as to fix the valve stent, and wherein the thorn stent is a mesh structure composed of multiple diamond-shaped grids or the thorn stent comprises multiple connecting rods connected end to end to form a closed chain structure, wherein any two adjacent connecting rods form a V-shaped structure, and wherein the multiple thoms and the multiple connecting rods are integrally formed.
An antimicrobial adhesive composition comprising: from 25% to 98.99% of at least one adhesive component; from 0.01% to 15% of at least one antimicrobial agent; from 1% to 60% of at least one non-gelling disintegrant, wherein the disintegrant includes microcrystalline cellulose. from 25% to 98.99% of at least one adhesive component; from 0.01% to 15% of at least one antimicrobial agent; from 1% to 60% of at least one non-gelling disintegrant, wherein the disintegrant includes microcrystalline cellulose.
A method of compensating for ambient temperature using a single temperature sensor comprising: receiving a sensor signal from an analyte sensor; detecting a temperature measurement from a temperature sensor; determining, with a processor, an ambient-compensated temperature from the temperature measurement using an offset term based on a core body temperature; and determining, with the processor, a temperature-compensated analyte sensor signal with the thus determined ambient-compensated temperature. receiving a sensor signal from an analyte sensor; detecting a temperature measurement from a temperature sensor; determining, with a processor, an ambient-compensated temperature from the temperature measurement using an offset term based on a core body temperature; and determining, with the processor, a temperature-compensated analyte sensor signal with the thus determined ambient-compensated temperature.
Process for embedding, by cementation, a boron-containing aqueous solution wherein the boron-containing aqueous solution is kneaded with a cement-based composition consisting of a sulphoaluminate cement optionally comprising gypsum, and of a sand, wherein per one hundred parts of cement by weight, the proportion of boron-containing aqueous solution is from 60 to 70 parts, and that of sand is from 50 to 125 parts, and wherein the aqueous solution contains from 10 to 50 g/l of boron, and preferably from 20 to 40 g/l of boron.
A method for defining control data for arranging automatic control of a mobile mining machine equipped with a bucket, comprising defining for the mining machine control data which define the position of the bucket, characterised by generating a general-purpose bucket emptying model, wherein the general-purpose bucket emptying model comprises bucket position data associated with route points of a route of movement of the mining machine and defines a bucket path for emptying the bucket of the mining machine, storing said bucket emptying model on a memory means for use in the definition of control data for the automatic control of a mining machine comprising one or more buckets, fetching said bucket emptying model comprising bucket position data associated with route points from the memory means in response to a need to define emptying the bucket for a route comprising route points, and appending the bucket position data associated with route points defining the path of the bucket to data of said route for use in the automatic control of the mining machine.
An input apparatus comprising: a touch sensor configured to receive an input; a load detection unit configured to detect a pressure load on a touch face of the touch sensor; a tactile sensation providing unit configured to vibrate the touch face; and a control unit configured to control drive of the tactile sensation providing unit, when the pressure load detected by the load detection unit satisfies a standard to provide a pressing action sensation, such that a click sensation is provided to an object pressing the touch face, wherein the control unit controls drive of the tactile sensation providing unit, when the pressure load detected by the load detection unit satisfies a standard to provide a release action sensation after the click sensation is provided, such that a release sensation corresponding to the click sensation is provided to the object, characterized in that the standard to provide a release action sensation is lower than the standard to provide a pressing action sensation. a touch sensor configured to receive an input; a load detection unit configured to detect a pressure load on a touch face of the touch sensor; a tactile sensation providing unit configured to vibrate the touch face; and a control unit configured to control drive of the tactile sensation providing unit, when the pressure load detected by the load detection unit satisfies a standard to provide a pressing action sensation, such that a click sensation is provided to an object pressing the touch face, wherein the control unit controls drive of the tactile sensation providing unit, when the pressure load detected by the load detection unit satisfies a standard to provide a release action sensation after the click sensation is provided, such that a release sensation corresponding to the click sensation is provided to the object, characterized in that the standard to provide a release action sensation is lower than the standard to provide a pressing action sensation.
Method for distributing products to final customers with a transport vehicle and for thermally isolating the products from the environment, the transport vehicle comprising at least: - a driver and airlock cabin with at least a first external door located on a passenger side, - a first cargo space, which has a temperature being controlled to be in a first temperature range, and which is arranged adjacent to the driver and airlock cabin, to which it is connected by a first internal door, - a second cargo space, which has a temperature being controlled to be in a second temperature range, and which is arranged adjacent to the first cargo space, to which it is connected by a second internal door, wherein the second cargo space comprises a second external door, and - at least one cooling chamber (6, 7) that is located within the first cargo space and that comprises a cooling chamber separator, wherein the method comprises at least the following steps: a) loading the products into the transport vehicle, b) transporting the products with the transport vehicle to at least one of the final customers, and c) unloading those products from the transport vehicle that are designated to the respective one of the final customers, wherein the driver and airlock cabin is used as an airlock between the first cargo space and the environment of the transport vehicle, and wherein the first cargo space is used as an airlock between the at least one cooling chamber (6, 7) and the driver and airlock cabin. - a driver and airlock cabin with at least a first external door located on a passenger side, - a first cargo space, which has a temperature being controlled to be in a first temperature range, and which is arranged adjacent to the driver and airlock cabin, to which it is connected by a first internal door, - a second cargo space, which has a temperature being controlled to be in a second temperature range, and which is arranged adjacent to the first cargo space, to which it is connected by a second internal door, wherein the second cargo space comprises a second external door, and - at least one cooling chamber (6, 7) that is located within the first cargo space and that comprises a cooling chamber separator, a) loading the products into the transport vehicle, b) transporting the products with the transport vehicle to at least one of the final customers, and c) unloading those products from the transport vehicle that are designated to the respective one of the final customers,
Motorcycle comprising a frame having a median plane, one front wheel and one rear wheel, each wheel comprising a hub with its own longitudinal spindle onto which is fitted a rim carrying a tyre, said hub being associated with a fork and at least one brake disc or similar device of a braking system of the vehicle, said rim having a cylindrical portion fitted onto said hub, the latter having at one of its first lateral ends a protruding collar located at a distance from a corresponding first end of said cylindrical portion, the second end of said hub cooperating with a flange also having a collar located at a distance from a second end of said cylindrical portion, there being between said ends (8, 12) of the cylindrical portion of the rim and the above-mentioned collars (7, 11) of the hub and of the flange elastically deformable organs (13, 14) capable of absorbing stresses directed in lateral directions in relation to the median plane of the frame, said devices comprising at least one pair of shock-absorbing elements (13, 14) located between the cylindrical portion of the rim and said collars (7, 11) of the hub and the flange, characterized in that said at least one pair of shock-absorbing elements (13, 14) is laterally located in respect of the longitudinal spindle of the hub and is separated by said hub, the shock-absorbing elements (13, 14) only cooperating with the cylindrical portion of the rim and the collars (7, 11) protruding from the hub.
A device for melting and subsequent directional solidification of a semiconductor material, typically to obtain multicrystalline silicon with solar degree of purity, comprising: at least one crucible for the semiconductor material, preferably made of quartz or ceramic material, removably housed in a cup-shaped graphite container; at least one top induction coil, set facing, with interposition of at least one graphite plate operatively associated thereto, a mouth of the graphite container; at least one lateral induction coil, set, in use around a side wall of the graphite container; at least one bottom induction coil, set directly facing a bottom wall of the graphite container; a.c. electrical-supply means for supplying said induction coils (12, 16, 18) separately and independently of one another; and cooling means for supplying a coolant within respective hollow turns of the induction coils; wherein: - the at least one lateral induction coil includes a plurality of turns (13a...13e), set on top of one another in the vertical direction, and first means for selectively connecting the turnswith, or disconnecting them from, all together or separately one or more at a time, said a.c. electrical-supply means; said device being characterized in that, in combination, it further comprises: - second means for selectively short-circuiting the turns, all together or separately one or more at a time; and - third means provided at least at the at least one lateral induction coil for varying the frequency of electrical supply of the turns, all together or separately one or more at a time, between at least two different values such as to produce by induction selective heating of the graphite and/or of the semiconductor material contained in the crucible, once the latter has reached the conduction temperature. - the at least one lateral induction coil includes a plurality of turns (13a...13e), set on top of one another in the vertical direction, and first means for selectively connecting the turnswith, or disconnecting them from, all together or separately one or more at a time, said a.c. electrical-supply means; said device being characterized in that, in combination, it further comprises: - second means for selectively short-circuiting the turns, all together or separately one or more at a time; and - third means provided at least at the at least one lateral induction coil for varying the frequency of electrical supply of the turns, all together or separately one or more at a time, between at least two different values such as to produce by induction selective heating of the graphite and/or of the semiconductor material contained in the crucible, once the latter has reached the conduction temperature.
A Transport Format Combination Indicator, TFCI, encoding method in a CDMA mobile communication system, comprising: outputting a codeword, the outputted codeword corresponding to a 10 bit TFCI information (a0-a9), the outputted codeword being represented by 32 coded symbols, wherein the codeword is generated using a combination of basis Walsh codes, basis mask sequences, and a sequence with all symbols being "1", respectively multiplied by respective bits of the 10 bit TFCI information, wherein said basis Walsh codes, said basis mask sequences and said sequence with all symbols being "1" are each 32 bits; and puncturing two coded symbols from the 32 coded symbols at predetermined positions, and outputting the remaining 30 coded symbols as TFCI symbols. outputting a codeword, the outputted codeword corresponding to a 10 bit TFCI information (a0-a9), the outputted codeword being represented by 32 coded symbols, wherein the codeword is generated using a combination of basis Walsh codes, basis mask sequences, and a sequence with all symbols being "1", respectively multiplied by respective bits of the 10 bit TFCI information, wherein said basis Walsh codes, said basis mask sequences and said sequence with all symbols being "1" are each 32 bits; and puncturing two coded symbols from the 32 coded symbols at predetermined positions, and outputting the remaining 30 coded symbols as TFCI symbols.