mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: an application specific sensor, AS , configured to monitor a workload of at least one general purpose central processing unit, CPU , of a platform; and a dynamic deployment module, DDM , configured to: in response to a workload performance threshold being satisfied, identify a physically reprogrammable bit stream capable of configuring a reprogrammable hardware device to execute at least one function of the workload, wherein the workload performance threshold being satisfied comprises to exceed at least one threshold operating parameter, to satisfy a policy formed of one or more thresholds, and/or to have a client application activity flag set; and configure the reprogrammable hardware device via the physically reprogrammable bit stream to execute the at least one function of the workload. an application specific sensor, AS , configured to monitor a workload of at least one general purpose central processing unit, CPU , of a platform; and a dynamic deployment module, DDM , configured to: in response to a workload performance threshold being satisfied, identify a physically reprogrammable bit stream capable of configuring a reprogrammable hardware device to execute at least one function of the workload, wherein the workload performance threshold being satisfied comprises to exceed at least one threshold operating parameter, to satisfy a policy formed of one or more thresholds, and/or to have a client application activity flag set; and configure the reprogrammable hardware device via the physically reprogrammable bit stream to execute the at least one function of the workload. in response to a workload performance threshold being satisfied, identify a physically reprogrammable bit stream capable of configuring a reprogrammable hardware device to execute at least one function of the workload, wherein the workload performance threshold being satisfied comprises to exceed at least one threshold operating parameter, to satisfy a policy formed of one or more thresholds, and/or to have a client application activity flag set; and configure the reprogrammable hardware device via the physically reprogrammable bit stream to execute the at least one function of the workload.
A method comprising: receiving a goal condition at a mobile device, the goal condition comprising information about a location of an object; requesting, using a first close-proximity communication, information regarding a current location of the mobile device from a host device; receiving the information from the host device at the mobile device using a second close-proximity communication; determining whether the information includes instructions to obtain additional information related to the host device to be used to determine a level of haptic feedback; and when it is determined that the information does not include the instructions: executing default instructions to determine a level of haptic feedback based on the information and the goal condition; and when it is determined that the information does include the instructions: executing the instructions to determine a level of haptic feedback based on the information, the additional information and the goal condition; and causing a haptic effect on the mobile device based on the level of haptic feedback. receiving a goal condition at a mobile device, the goal condition comprising information about a location of an object; requesting, using a first close-proximity communication, information regarding a current location of the mobile device from a host device; receiving the information from the host device at the mobile device using a second close-proximity communication; determining whether the information includes instructions to obtain additional information related to the host device to be used to determine a level of haptic feedback; and when it is determined that the information does not include the instructions: executing default instructions to determine a level of haptic feedback based on the information and the goal condition; and when it is determined that the information does include the instructions: executing the instructions to determine a level of haptic feedback based on the information, the additional information and the goal condition; and causing a haptic effect on the mobile device based on the level of haptic feedback.
A foamed product comprising: paper pellet of 50.0 to 70.0% by mass which is a mixture of fine paper powder and hydrophilic macromolecule; polypropylene resin group of 22.0 to 34.0% by mass composed of foamable polypropylene resin and other polypropylene resin; low density polyethylene resin of 3.0 to 20.0% by mass; wherein the density of the low density polyethylene resin is 0.910 or more to less than 0.930, wherein the density of the low density polyethylene resin is determined in accordance with JIS K6748:1995 and compatibilizing agent of the polypropylene resin and the polyethylene resin, the compatibilizing agent being 0.6 to 2.0% by mass, wherein the paper pellet is formed by mixing the fine paper powder of 30.0 to 50.0% by mass having a particle diameter of 30 to 200 μm and the hydrophilic macromolecule of 50.0 to 70.0% by mass, and wherein the polypropylene resin group is composed of the foamable polypropylene resin of 5.0 to 11.0% by mass and said other polypropylene resin of 17 to 23% by mass. paper pellet of 50.0 to 70.0% by mass which is a mixture of fine paper powder and hydrophilic macromolecule; polypropylene resin group of 22.0 to 34.0% by mass composed of foamable polypropylene resin and other polypropylene resin; low density polyethylene resin of 3.0 to 20.0% by mass; wherein the density of the low density polyethylene resin is 0.910 or more to less than 0.930, wherein the density of the low density polyethylene resin is determined in accordance with JIS K6748:1995 and compatibilizing agent of the polypropylene resin and the polyethylene resin, the compatibilizing agent being 0.6 to 2.0% by mass, wherein the paper pellet is formed by mixing the fine paper powder of 30.0 to 50.0% by mass having a particle diameter of 30 to 200 μm and the hydrophilic macromolecule of 50.0 to 70.0% by mass, and wherein the polypropylene resin group is composed of the foamable polypropylene resin of 5.0 to 11.0% by mass and said other polypropylene resin of 17 to 23% by mass.
A fabrication method for fabricating a filler body of a blade for a rotor , the method comprising a succession of steps of adding material layer by layer, each step consisting in making a new layer of material on a preceding layer of material made in the preceding step , at least one of the steps consisting in making an openwork layer of material presenting a plurality of openings , the succession of steps of adding material layer by layer generating openwork layers of material, each having a closed outline , the respective closed outlines of the openwork layers of material touching mutually in pairs and forming a closed envelope of the filler body for the blade , the succession of steps of adding material layer by layer generating openwork layers of material , each having a plurality of geometrical shapes arranged within the closed outline and allowing to define the plurality of openings of the openwork layer of material, the pluralities of respective geometrical shapes in the openwork layers of material touching mutually in pairs, characterised in that the openwork layers of material form a cellular lattice of closed cells arranged inside the closed envelope of the filler body of the blade .
Antenna apparatus for connection to a fill level measurement device , the antenna apparatus comprising: an antenna unit for emitting a measurement signal towards a filling material surface and for receiving the measurement signal reflected from the filling material surface; a drive shaft for rotating the antenna unit about the drive axis while the measurement signal is being emitted; a first energy store for supplying the antenna apparatus with the electrical energy required for the operation thereof, wherein the antenna unit comprises an array of radiator elements, which is designed to emit the measurement signal and to receive the reflected measurement signal; and wherein the first energy store is attached to the antenna apparatus such that it rotates with the antenna unit when said unit is rotated by the drive shaft. an antenna unit for emitting a measurement signal towards a filling material surface and for receiving the measurement signal reflected from the filling material surface; a drive shaft for rotating the antenna unit about the drive axis while the measurement signal is being emitted; a first energy store for supplying the antenna apparatus with the electrical energy required for the operation thereof, wherein the antenna unit comprises an array of radiator elements, which is designed to emit the measurement signal and to receive the reflected measurement signal; and wherein the first energy store is attached to the antenna apparatus such that it rotates with the antenna unit when said unit is rotated by the drive shaft.
A method of analyzing protein interactions at a single molecule level, comprising: (a) binding the first proteins to the substrate where the first proteins are tagged with the first markers that bind specifically to the biomolecules immobilized on the substrate; (b) incubating the substrate bound first proteins with cell lysate containing the second proteins which are tagged with the second markers wherein the second markers are fluorescent proteins; (c) analyzing the interactions between the first proteins and the second proteins in cell lysate by measuring a fluorescent signal having a specific wavelength generated by the second markers tagged on second proteins when they are bound to the first proteins using an optical apparatus generating a near-field, wherein in step (c) the fluorescent signal having the specific wavelength is cumulatively measured for a predetermined time period. (a) binding the first proteins to the substrate where the first proteins are tagged with the first markers that bind specifically to the biomolecules immobilized on the substrate; (b) incubating the substrate bound first proteins with cell lysate containing the second proteins which are tagged with the second markers wherein the second markers are fluorescent proteins; (c) analyzing the interactions between the first proteins and the second proteins in cell lysate by measuring a fluorescent signal having a specific wavelength generated by the second markers tagged on second proteins when they are bound to the first proteins using an optical apparatus generating a near-field,
A linear electromagnetic device, comprising: a core in which a magnetic flux is generable; an opening through the core, wherein the opening through the core comprises an elongated slot ; and a plurality of primary conductors disposed in a single row in the elongated slot and extending through the core, each of the primary conductors including a substantially square or rectangular cross-section, wherein an electrical current flowing through the primary conductor generates a magnetic field about the primary conductor, at least one other core , the at least one other core comprising an opening through which the primary conductors extend through the at least one other core , wherein a cross-section of each primary conductor of the plurality of conductors comprises a predetermined width in a direction corresponding to a length of the elongated slot and an end primary conductor on each end of the single row of primary conductors being less than about one half of the predetermined width from an end of the elongated slot, and the cross-section of each primary conductor of the plurality of conductors comprising a predetermined height, each primary conductor being less than about one half of the predetermined height from a side wall of the elongated slot. a core in which a magnetic flux is generable; an opening through the core, wherein the opening through the core comprises an elongated slot ; and a plurality of primary conductors disposed in a single row in the elongated slot and extending through the core, each of the primary conductors including a substantially square or rectangular cross-section, wherein an electrical current flowing through the primary conductor generates a magnetic field about the primary conductor, at least one other core , the at least one other core comprising an opening through which the primary conductors extend through the at least one other core , wherein a cross-section of each primary conductor of the plurality of conductors comprises a predetermined width in a direction corresponding to a length of the elongated slot and an end primary conductor on each end of the single row of primary conductors being less than about one half of the predetermined width from an end of the elongated slot, and the cross-section of each primary conductor of the plurality of conductors comprising a predetermined height, each primary conductor being less than about one half of the predetermined height from a side wall of the elongated slot.
A sound source , comprising: a first gas filled underwater resonator ; a second gas filled underwater resonator connected to the first resonator; and at least one excitation member configured to excite the first gas filled underwater resonator and the second gas filled underwater resonator; and characterized in that the first gas filled underwater resonator is permanently tuned to produce a first resonant frequency upon excitation by the at least one excitation member; and wherein the gas filled underwater second resonator is permanently tuned to produce a second resonant frequency upon excitation by the at least one excitation member; and wherein the first resonant frequency is different from the second resonant frequency; and wherein the at least one excitation member comprises at least one piston driven by at least one motor, wherein the at least one motor is located between the first gas filled underwater resonator and the second gas filled underwater resonator. a first gas filled underwater resonator ; a second gas filled underwater resonator connected to the first resonator; and at least one excitation member configured to excite the first gas filled underwater resonator and the second gas filled underwater resonator; and the first gas filled underwater resonator is permanently tuned to produce a first resonant frequency upon excitation by the at least one excitation member; and wherein the gas filled underwater second resonator is permanently tuned to produce a second resonant frequency upon excitation by the at least one excitation member; and wherein the first resonant frequency is different from the second resonant frequency; and wherein the at least one excitation member comprises at least one piston driven by at least one motor, wherein the at least one motor is located between the first gas filled underwater resonator and the second gas filled underwater resonator.
Method of controlling a 3D printer for printing a product, comprising: - providing a model of the product; and - compensating the model for inherent accretion resulting in printing material during printing from passage and diffusion of an excitation from a source, such as laser or heat; and - generating layers for printing in the printing material for the 3D printer on the basis of the compensated model, CHARACTERIZED IN THAT compensating the model comprises of: reducing the model in the z direction of the inherent accretion by a dimension corresponding to the degree of inherent accretion. - providing a model of the product; and - compensating the model for inherent accretion resulting in printing material during printing from passage and diffusion of an excitation from a source, such as laser or heat; and - generating layers for printing in the printing material for the 3D printer on the basis of the compensated model,
An electric motor comprising an electric motor cooling system comprising: first and second cooling sources having different pressures from one another and respectively providing first and second cooling flows, wherein the first cooling source is at a lower pressure than the second cooling source resulting in a differential pressure; a stator mounted in a housing and receiving the first cooling flow; and a rotor rotatable relative to the stator, wherein the rotor is supported for rotation relative to the stator by journal bearings mounted in the housing, the second cooling flow flowing through the journal bearing, and wherein the differential pressure moves the second cooling flow through a circumferential gap arranged between the stator and the rotor, to cool the rotor. first and second cooling sources having different pressures from one another and respectively providing first and second cooling flows, wherein the first cooling source is at a lower pressure than the second cooling source resulting in a differential pressure; a stator mounted in a housing and receiving the first cooling flow; and a rotor rotatable relative to the stator, wherein the rotor is supported for rotation relative to the stator by journal bearings mounted in the housing, the second cooling flow flowing through the journal bearing, and wherein the differential pressure moves the second cooling flow through a circumferential gap arranged between the stator and the rotor, to cool the rotor.
A bioanalytical device , comprising: - a housing comprising an internal space configured to accommodate a moist medium at a location in the internal space , - a humidity sensor configured to measure a humidity in said internal space and to provide an output signal indicative of said humidity, and - an analyzing unit operatively connected to the humidity sensor so as to receive said output signal, wherein the analyzing unit is configured to derive from said output signal a change of said humidity over time for detecting a presence of the moist medium in the internal space of the housing , characterized in that the analyzing unit is configured to detect the presence of the moist medium in the internal space when the determined change in relative humidity over time forms a local maximum (P). - a housing comprising an internal space configured to accommodate a moist medium at a location in the internal space , - a humidity sensor configured to measure a humidity in said internal space and to provide an output signal indicative of said humidity, and - an analyzing unit operatively connected to the humidity sensor so as to receive said output signal, wherein the analyzing unit is configured to derive from said output signal a change of said humidity over time for detecting a presence of the moist medium in the internal space of the housing ,
An application server coupleable to a wireless communication system that comprises multiple wireless remote communication units, the application server comprising: a memory operably configured to store internet protocol, IP, addresses for the multiple wireless remote communication units, wherein at least one wireless remote communication unit is assigned multiple IP addresses; a processor, operably coupled to the memory, and configured to select one IP address from the multiple IP addresses based on the different data types of communication that the at least one wireless remote communication unit wishes to support; and a transmitter configured to instruct the at least one wireless remote communication unit to use the selected one IP address, characterized in that the processor is configured to select a first IP address associated with a mesh connectivity path via another wireless remote communication unit for low priority, high delay tolerant data or a second IP address associated with a direct cellular path to a cellular network for high priority, low delay tolerant data. a memory operably configured to store internet protocol, IP, addresses for the multiple wireless remote communication units, wherein at least one wireless remote communication unit is assigned multiple IP addresses; a processor, operably coupled to the memory, and configured to select one IP address from the multiple IP addresses based on the different data types of communication that the at least one wireless remote communication unit wishes to support; and a transmitter configured to instruct the at least one wireless remote communication unit to use the selected one IP address, characterized in that the processor is configured to select a first IP address associated with a mesh connectivity path via another wireless remote communication unit for low priority, high delay tolerant data or a second IP address associated with a direct cellular path to a cellular network for high priority, low delay tolerant data.
A voltage controlled oscillator, VCO, CMOS regulator circuit comprising a CMOS regulator being connectable to a VCO , the CMOS regulator including: a first voltage regulator configured to regulate a first input voltage provided to the first voltage regulator , the first voltage regulator including a P-type metal-oxide-semiconductor, PMOS, pass element; a second voltage regulator configured to regulate a second input voltage provided to the second voltage regulator , the second voltage regulator including an N-type metal-oxide-semiconductor, NMOS, pass element, wherein the first voltage regulator is connected to the second voltage regulator ; characterized in that the VCO CMOS regulator circuit further comprises: a switch circuit connected to the CMOS regulator, the switch circuit being configured to select a voltage mode by selecting either a high voltage, HV, mode or a low voltage, LV, mode for the CMOS regulator, and to selectively activate at least one of the first voltage regulator or the second voltage regulator within the selected voltage mode, wherein the switch circuit is configured to select the HV mode based on pulling effects of the VCO connectable to the VCO CMOS regulator circuit , and to selectively activate the at least one of the first voltage regulator or the second voltage regulator based on the pulling effects. a first voltage regulator configured to regulate a first input voltage provided to the first voltage regulator , the first voltage regulator including a P-type metal-oxide-semiconductor, PMOS, pass element; a second voltage regulator configured to regulate a second input voltage provided to the second voltage regulator , the second voltage regulator including an N-type metal-oxide-semiconductor, NMOS, pass element, wherein the first voltage regulator is connected to the second voltage regulator ; characterized in that the VCO CMOS regulator circuit further comprises: a switch circuit connected to the CMOS regulator, the switch circuit being configured to select a voltage mode by selecting either a high voltage, HV, mode or a low voltage, LV, mode for the CMOS regulator, and to selectively activate at least one of the first voltage regulator or the second voltage regulator within the selected voltage mode, wherein the switch circuit is configured to select the HV mode based on pulling effects of the VCO connectable to the VCO CMOS regulator circuit , and to selectively activate the at least one of the first voltage regulator or the second voltage regulator based on the pulling effects. a switch circuit connected to the CMOS regulator, the switch circuit being configured to select a voltage mode by selecting either a high voltage, HV, mode or a low voltage, LV, mode for the CMOS regulator, and to selectively activate at least one of the first voltage regulator or the second voltage regulator within the selected voltage mode, wherein the switch circuit is configured to select the HV mode based on pulling effects of the VCO connectable to the VCO CMOS regulator circuit , and to selectively activate the at least one of the first voltage regulator or the second voltage regulator based on the pulling effects.