mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: detecting, at a first device , a presence of a second device ; verifying, at the first device , an authorization to initiate communication between the first device and the second device ; receiving, at the first device , data from the second device comprising accuracy data indicating a level of accuracy associated with shared location data defining a location of the second device , the data further comprising resource data indicating a level of resources associated with the shared location data ; selecting the shared location data or component location data provided by a component of the first device based, at least in part, on the accuracy data and the resource data ; if the component location data is selected, determining a location of the first device based, at least in part, on the component location data provided by the component of the first device ; and if the shared location data is selected, receiving, at the first device , the shared location data from the second device , and determining the location of the first device based, at least in part, on the shared location data defining the location of the second device . detecting, at a first device , a presence of a second device ; verifying, at the first device , an authorization to initiate communication between the first device and the second device ; receiving, at the first device , data from the second device comprising accuracy data indicating a level of accuracy associated with shared location data defining a location of the second device , the data further comprising resource data indicating a level of resources associated with the shared location data ; selecting the shared location data or component location data provided by a component of the first device based, at least in part, on the accuracy data and the resource data ; if the component location data is selected, determining a location of the first device based, at least in part, on the component location data provided by the component of the first device ; and if the shared location data is selected, receiving, at the first device , the shared location data from the second device , and determining the location of the first device based, at least in part, on the shared location data defining the location of the second device . receiving, at the first device , the shared location data from the second device , and determining the location of the first device based, at least in part, on the shared location data defining the location of the second device .
Method of contrasting the jumping triggered by a resonance oscillation in a motor vehicle with three or four wheels, said motor vehicle comprising: - a forecarriage frame ; - at least a pair of front wheels (10', 10") kinematically connected to each other and to the forecarriage frame by means of a rolling kinematic mechanism ; - a roll block system suitable to block the rolling of the two front wheels (10', 10"), wherein said roll block system acts directly or indirectly on said rolling kinematic mechanism , said method comprising the operating steps of: - a) detecting a resonance oscillation which is triggered while driving the motor vehicle and generates an alternate jumping of the rolling kinematic mechanism , wherein said step a) of detecting generates selectively: an active resonance signal related to the presence of resonance oscillations of rolling kinematic mechanism ; and a passive resonance signal related to the non-presence of resonance oscillations of rolling kinematic mechanism ; - b) actuating said roll block system in presence of said active resonance signal; - b') keeping said roll block system neutral in presence of said passive resonance signal, wherein said step of actuating said roll block system is suitable to damp the resonance oscillations resulting in a progressive damping of the alternate jumping of the rolling kinematic mechanism and thus of the front wheels (10', 10"), until annulling said oscillations and wherein said detection of a resonance oscillation is achieved by means of at least one sensor placed on said front wheels (10', 10") and/or on said rolling kinematic mechanism . - a) detecting a resonance oscillation which is triggered while driving the motor vehicle and generates an alternate jumping of the rolling kinematic mechanism , wherein said step a) of detecting generates selectively: an active resonance signal related to the presence of resonance oscillations of rolling kinematic mechanism ; and a passive resonance signal related to the non-presence of resonance oscillations of rolling kinematic mechanism ; - b) actuating said roll block system in presence of said active resonance signal; - b') keeping said roll block system neutral in presence of said passive resonance signal,
A method implemented as part of an engine including a just-in-time compiler, the method being for executing a machine code based on a dynamic language, wherein the machine code is compiled from a byte code with the just-in-time compiler , and wherein the just-in-time compiler generates the machine code that is tailored to objects of a particular shape and values of a particular type, the method including: creating a guard as a value stored in a data structure and representative of expected conditions for a reusable portion of the machine code, wherein the guard is used to check the expected conditions including an object's type and attributes of an object's properties, wherein creating the guard includes allocating, with a recycler, an object to be the guard in memory, wherein a predetermined slot of the object is used as the guard; comparing, during execution of the machine code, the value representative of the expected conditions to an actual value encountered later during execution of a portion of the machine code, wherein remaining object contents are irrelevant in the comparing of the value representative of the expected type of input to an actual value encountered later during execution of a portion of the machine code; executing the machine code if the actual value corresponds with the value representative of the expected conditions; and invalidating the guard if any of the expected conditions changes, wherein if the attributes of any of the properties change, the guard is invalidated by writing a selected invalid value at an address of the guard. creating a guard as a value stored in a data structure and representative of expected conditions for a reusable portion of the machine code, wherein the guard is used to check the expected conditions including an object's type and attributes of an object's properties, wherein creating the guard includes allocating, with a recycler, an object to be the guard in memory, wherein a predetermined slot of the object is used as the guard; comparing, during execution of the machine code, the value representative of the expected conditions to an actual value encountered later during execution of a portion of the machine code, wherein remaining object contents are irrelevant in the comparing of the value representative of the expected type of input to an actual value encountered later during execution of a portion of the machine code; executing the machine code if the actual value corresponds with the value representative of the expected conditions; and invalidating the guard if any of the expected conditions changes, wherein if the attributes of any of the properties change, the guard is invalidated by writing a selected invalid value at an address of the guard.
An indoor gunshot detection system comprising: indoor sensors arranged to detect gunfire in a series of enclosed spaces having significant acoustic reverberation; wherein the sensors are constructed with IR detectors and with microphones designed to detect strong impulses preferably having amplitudes between 120 dB and 160 dB from nearby gunfire; one or more processing components and/or computer readable media configured to process potential gunshot data utilizing knowledge of particular sensor positions and designed to: analyze impulses received by the indoor sensors by classifying the shape or amplitude of the acoustic and IR impulses as consistent with known weapon or firework characteristics, determine whether or not the received impulses from the sensors with the IR detectors and microphone are gunfire, pass a detection of the gunfire to a communications network having knowledge of particular sensor locations, and pass alerts to at least one of local authorities, persons at risk, or a central alert facility; and at least one networking component constructed and arranged to transmit communications between the indoor acoustic sensors , the processing components and/or computer readable media, and computing devices that receive the alerts. indoor sensors arranged to detect gunfire in a series of enclosed spaces having significant acoustic reverberation; wherein the sensors are constructed with IR detectors and with microphones designed to detect strong impulses preferably having amplitudes between 120 dB and 160 dB from nearby gunfire; one or more processing components and/or computer readable media configured to process potential gunshot data utilizing knowledge of particular sensor positions and designed to: analyze impulses received by the indoor sensors by classifying the shape or amplitude of the acoustic and IR impulses as consistent with known weapon or firework characteristics, determine whether or not the received impulses from the sensors with the IR detectors and microphone are gunfire, pass a detection of the gunfire to a communications network having knowledge of particular sensor locations, and pass alerts to at least one of local authorities, persons at risk, or a central alert facility; and analyze impulses received by the indoor sensors by classifying the shape or amplitude of the acoustic and IR impulses as consistent with known weapon or firework characteristics, determine whether or not the received impulses from the sensors with the IR detectors and microphone are gunfire, pass a detection of the gunfire to a communications network having knowledge of particular sensor locations, and pass alerts to at least one of local authorities, persons at risk, or a central alert facility; and at least one networking component constructed and arranged to transmit communications between the indoor acoustic sensors , the processing components and/or computer readable media, and computing devices that receive the alerts.
Process for preparation of marine sausages characterized in that the process comprises the following steps: a) cooking octopus' heads between 40 and 60 minutes; b) lower the temperature of the cooked octopus' heads between 0 and 3°C for 40 to 60 minutes; c) crushing the octopus' heads of step b) at a temperature of between 0°C and 4°C; d) adding salt, vegetable fat and colatura di alici to the crushed heads and amalgamate the mixture between 10 and 30 minutes at a temperature between 0°C and 4°C; e) stabilizing the amalgamated mass of step d) at a temperature between 0°C and 4oC for a time between 10 and 14 hours; and f) stuffing the amalgamated mass of step e) into a casing; wherein the quantity of octopus' heads in the marine sausage is greater than 90% in weight of the final sausage. a) cooking octopus' heads between 40 and 60 minutes; b) lower the temperature of the cooked octopus' heads between 0 and 3°C for 40 to 60 minutes; c) crushing the octopus' heads of step b) at a temperature of between 0°C and 4°C; d) adding salt, vegetable fat and colatura di alici to the crushed heads and amalgamate the mixture between 10 and 30 minutes at a temperature between 0°C and 4°C; e) stabilizing the amalgamated mass of step d) at a temperature between 0°C and 4oC for a time between 10 and 14 hours; and f) stuffing the amalgamated mass of step e) into a casing;
A device for detecting the heartbeat of a patient , preferably during imaging in a magnetic resonance imaging, MRI, apparatus or other imaging apparatus, comprising a transmitter for ultrasonic waves , a receiver for Doppler-shifted ultrasonic waves , and evaluating means coupled to the receiver and configured to evaluate the moment t 1 , t 2 , t 3 , t 4 of a heartbeat of the patient out of the time-dependent signal from the receiver , wherein said evaluating means comprise: • spectrum analyzing means configured to extract at least one time-varying frequency component from the time-dependent signal delivered by the receiver ; and • determining means configured to evaluate the moment t 1 , t 2 , t 3 , t 4 of the heartbeat from the variation of at least one of the frequency components in time, characterized in that the determining means are configured to determine a window of interest, WOI, in time from the variation of the at least one frequency component in time, and to determine the moment where the time-dependent signal from the receiver assumes a maximum b 1 , b 2 , b 3 , b 4 within the WOI as the moment t 1 , t 2 , t 3 , t 4 of the heartbeat . • spectrum analyzing means configured to extract at least one time-varying frequency component from the time-dependent signal delivered by the receiver ; and • determining means configured to evaluate the moment t 1 , t 2 , t 3 , t 4 of the heartbeat from the variation of at least one of the frequency components in time,
A power dissipation monitoring method , comprising: receiving a measurement of current flow through an electrical device , the current flowing from a power source through the electrical device to an electrical load ; and calculating heat dissipation from the electrical device using the current flow measurement; and displaying the calculated heat dissipation on a user interface , wherein the heat dissipation is displayed in real-time with acquisition of the current flow measurement. receiving a measurement of current flow through an electrical device , the current flowing from a power source through the electrical device to an electrical load ; and calculating heat dissipation from the electrical device using the current flow measurement; and displaying the calculated heat dissipation on a user interface , wherein the heat dissipation is displayed in real-time with acquisition of the current flow measurement.
A method for calculating the solvent power of a light oil, SP (LO calculated) , said method comprising: titrating the light oil against a reference oil, optionally in the presence of a titrant, to determine a volume fraction of the light oil at the onset of asphaltene precipitation, V (onset fraction LO) , a volume fraction of the reference oil at the onset of asphaltene precipitation, V (onset fraction RO) , and, where a titrant is present, a volume fraction of the titrant at the onset of asphaltene precipitation, V (onset fraction T) , and determining the calculated solvent power of the light oil, SP( LO calculated) , according to the following formula: SP LO calculated = CSP RO − SP RO * V onset fraction RO − x * SP T * V onset fraction T V onset fraction LO wherein: CSP (RO) is the critical solvent power of the reference oil, SP (RO) is the solvent power of the reference oil, SP (T) is the solvent power of the titrant, and x is 1 where a titrant is present, and otherwise is 0, wherein the critical solvent power is the solvent power below which asphaltenes begin to precipitate from the oil, and wherein the reference oil is a heavy oil having an asphaltene content greater than that of the light oil. titrating the light oil against a reference oil, optionally in the presence of a titrant, to determine a volume fraction of the light oil at the onset of asphaltene precipitation, V (onset fraction LO) , a volume fraction of the reference oil at the onset of asphaltene precipitation, V (onset fraction RO) , and, where a titrant is present, a volume fraction of the titrant at the onset of asphaltene precipitation, V (onset fraction T) , and determining the calculated solvent power of the light oil, SP( LO calculated) , according to the following formula: SP LO calculated = CSP RO − SP RO * V onset fraction RO − x * SP T * V onset fraction T V onset fraction LO wherein: CSP (RO) is the critical solvent power of the reference oil, SP (RO) is the solvent power of the reference oil, SP (T) is the solvent power of the titrant, and x is 1 where a titrant is present, and otherwise is 0, wherein the critical solvent power is the solvent power below which asphaltenes begin to precipitate from the oil, and wherein the reference oil is a heavy oil having an asphaltene content greater than that of the light oil. SP (RO) is the solvent power of the reference oil, SP (T) is the solvent power of the titrant, and x is 1 where a titrant is present, and otherwise is 0, wherein the critical solvent power is the solvent power below which asphaltenes begin to precipitate from the oil, and wherein the reference oil is a heavy oil having an asphaltene content greater than that of the light oil.
A humidification and air cleaning apparatus comprising: a water tank for storing water; a top cover assembly disposed over the water tank , wherein the top cover assembly comprises a water supply flow passage disposed therein to supply water into the water tank ; a watering housing disposed inside the water tank , characterized in that : the watering housing is arranged below the water supply flow passage to let water supplied through the water supply flow passage drop onto an upper part of the watering housing ; and wherein the humidification and air cleaning apparatus further comprises: a reservoir disposed in the top cover assembly at the water supply flow passage to store supplied water, wherein the reservoir has a water outlet to discharge water stored in the reservoir , the watering housing being disposed under the water outlet . a water tank for storing water; a top cover assembly disposed over the water tank , wherein the top cover assembly comprises a water supply flow passage disposed therein to supply water into the water tank ; a watering housing disposed inside the water tank , characterized in that : the watering housing is arranged below the water supply flow passage to let water supplied through the water supply flow passage drop onto an upper part of the watering housing ; and wherein the humidification and air cleaning apparatus further comprises: a reservoir disposed in the top cover assembly at the water supply flow passage to store supplied water, wherein the reservoir has a water outlet to discharge water stored in the reservoir , the watering housing being disposed under the water outlet . the watering housing is arranged below the water supply flow passage to let water supplied through the water supply flow passage drop onto an upper part of the watering housing ; and wherein the humidification and air cleaning apparatus further comprises: a reservoir disposed in the top cover assembly at the water supply flow passage to store supplied water, wherein the reservoir has a water outlet to discharge water stored in the reservoir , the watering housing being disposed under the water outlet .
A sound insulator comprising: a flexible material (A) having a peak of loss tangent (tan δ), which is determined by dynamic viscoelasticity measurement, in a temperature range of -60°C to lower than 0°C; and a resin (B) having a peak of loss tangent (tan δ), which is determined by dynamic viscoelasticity measurement, in a temperature range of 0°C to 60°C, said sound insulator comprising said resin (B) at a ratio of 10 to 40 parts by mass with respect to 100 parts by mass of said flexible material (A), and said resin (B) comprises a 4-methyl-1-pentene· α -olefin copolymer (b-1) which contains 61 to 85% by mol of a structural unit (i) derived from 4-methyl-1-pentene, 15 to 39% by mol of a structural unit (ii) derived from at least one α -olefin selected from α -olefins having 2 to 20 carbon atoms excluding 4-methyl-1-pentene and 0 to 5% by mol of a structural unit (iii) derived from a non-conjugated polyene, with a proviso that the total amount of said structural units (i), (ii) and (iii) is 100% by mol. a flexible material (A) having a peak of loss tangent (tan δ), which is determined by dynamic viscoelasticity measurement, in a temperature range of -60°C to lower than 0°C; and a resin (B) having a peak of loss tangent (tan δ), which is determined by dynamic viscoelasticity measurement, in a temperature range of 0°C to 60°C, said sound insulator comprising said resin (B) at a ratio of 10 to 40 parts by mass with respect to 100 parts by mass of said flexible material (A), and said resin (B) comprises a 4-methyl-1-pentene· α -olefin copolymer (b-1) which contains 61 to 85% by mol of a structural unit (i) derived from 4-methyl-1-pentene, 15 to 39% by mol of a structural unit (ii) derived from at least one α -olefin selected from α -olefins having 2 to 20 carbon atoms excluding 4-methyl-1-pentene and 0 to 5% by mol of a structural unit (iii) derived from a non-conjugated polyene, with a proviso that the total amount of said structural units (i), (ii) and (iii) is 100% by mol.
An antibody comprising: (i) a heavy chain variable region having an amino acid sequence as shown in SEQ ID NO: 10; and (ii) a light chain variable region having an amino acid sequence as shown in SEQ ID NO: 20, wherein the antibody is a single chain antibody (scFv). (i) a heavy chain variable region having an amino acid sequence as shown in SEQ ID NO: 10; and (ii) a light chain variable region having an amino acid sequence as shown in SEQ ID NO: 20,
Control system for a micro-motor for dental or surgical use comprising a control box provided with an adjustment knob , mounted in a way rotatable about a rotational axis (A-A), characterized in that the said adjustment knob is made up of a control support rotatable about the said rotational axis (A-A) and integral with an encoder integrated in the said box , and a sterilizable button coupled magnetically in a removable way to the said control support , i.e. to allow manual assembly and disassembly of said sterilizable button without the use of tools.