mhurhangee/ep-ind-claims huggingface dataset:
A thermostat for cooking appliances supplied by gas, said thermostat comprising a body within which there are formed an inlet duct and an outlet duct, suitable to receive a gas flow from a supply source and to supply such a gas flow to a gas burner, respectively, as well as a chamber with a cylindrical shape arranged in fluid communication with said inlet duct, wherein said chamber is also arranged in fluid communication with said outlet duct either directly, through a main opening formed at one end thereof, or indirectly, through a secondary duct that is formed in the body of the thermostat and reaches the outlet duct bypassing said main opening, said main opening and secondary duct (70, 71) being respectively dimensioned for a maximum and a minimum flow rates of gas, the thermostat further comprising a valve arranged in the chamber and suitable to regulate the flow rate of the gas, wherein the valve is movable coaxially to the chamber in a first direction of the body between a first, maximum opening position, wherein the main opening is completely clear thus allowing the passage of a flow of gas towards the outlet duct, and a second, closing position, wherein the main opening is completely closed by the valve and the gas flow reaches the outlet duct through the secondary duct only, the valve being urged in said first, opening position by an helical spring fitted in the chamber at the main opening, the thermostat further comprises a thermostatic bulb with an expandable member, the position of the valve being controlled by way of the expandable member of the thermostatic bulb of the thermostat, which contacts the valve at the end opposite to the end on which the helical spring acts, characterized in that the valve is configured so as to be axially deformable beyond a predefined load threshold, said load threshold being higher than the maximum reaction force that the helical spring urging the valve towards the first, opening position may exert when the valve is in the second, closing position.
A method for identifying a functional antibody heavy and light chain pair or a T-cell receptor chain pair in a sample comprising a plurality of antibody secreting cells (ASCs) or T-cells, comprising: subjecting the sample to conditions suitable for expansion of one or more of the cells in the sample to form an expanded sample; partitioning the expanded sample into a plurality of individual vessels to provide a plurality of expanded sample subpopulations; performing a functional assay on one or more of the plurality of expanded sample subpopulations, wherein the functional assay measures a property of an antibody heavy and light chain pair or a T-cell receptor chain pair; identifying one or more functional subpopulations based on the results of the functional assay; lysing the functional subpopulations to produce lysed cells; amplifying the nucleic acid from the lysed cells; attaching a unique DNA barcode to the nucleic acid from the lysed cells, wherein the unique DNA barcode identifies the functional subpopulation from which the nucleic acid originated; pooling and sequencing the pooled barcoded nucleic acid to determine the identity of the chains in each sample subpopulation; determining the observed distribution of each of the chains across the functional subpopulations and calculating statistical probabilities that the observed distributions of chains are independent from one another; identifying the functional chain pair based on the calculated statistical probabilities. subjecting the sample to conditions suitable for expansion of one or more of the cells in the sample to form an expanded sample; partitioning the expanded sample into a plurality of individual vessels to provide a plurality of expanded sample subpopulations; performing a functional assay on one or more of the plurality of expanded sample subpopulations, wherein the functional assay measures a property of an antibody heavy and light chain pair or a T-cell receptor chain pair; identifying one or more functional subpopulations based on the results of the functional assay; lysing the functional subpopulations to produce lysed cells; amplifying the nucleic acid from the lysed cells; attaching a unique DNA barcode to the nucleic acid from the lysed cells, wherein the unique DNA barcode identifies the functional subpopulation from which the nucleic acid originated; pooling and sequencing the pooled barcoded nucleic acid to determine the identity of the chains in each sample subpopulation; determining the observed distribution of each of the chains across the functional subpopulations and calculating statistical probabilities that the observed distributions of chains are independent from one another; identifying the functional chain pair based on the calculated statistical probabilities.
An imaging device comprising: an imaging substrate which is provided with an imaging element; a signal processing substrate which processes a signal from the imaging element; a housing (2,3); and a belt-shaped cable which connects the imaging substrate and the signal processing substrate, wherein relative positions of the imaging substrate and the signal processing substrate can be adjusted, a securing part to which an end of the belt-shaped cable is secured is provided on at least one of the imaging substrate and the signal processing substrate, and the belt-shaped cable has a bent part (40a, 40b) to which a bending tendency is given and which is provided in at least a portion between the both ends, characterized in that Ltd. an insulator is disposed between the belt-shaped cable and an electronic component on the signal processing substrate and the belt-shaped cable and a cover of the housing (2,3). an imaging substrate which is provided with an imaging element; a signal processing substrate which processes a signal from the imaging element; a housing (2,3); and a belt-shaped cable which connects the imaging substrate and the signal processing substrate, wherein relative positions of the imaging substrate and the signal processing substrate can be adjusted, a securing part to which an end of the belt-shaped cable is secured is provided on at least one of the imaging substrate and the signal processing substrate, and the belt-shaped cable has a bent part (40a, 40b) to which a bending tendency is given and which is provided in at least a portion between the both ends, characterized in that Ltd. an insulator is disposed between the belt-shaped cable and an electronic component on the signal processing substrate and the belt-shaped cable and a cover of the housing (2,3).
A method for voiceprint creation and registration, wherein the method comprises: obtaining a speech request sent by a user; identifying an ID for the user who sends the speech request according to the speech request and in a voiceprint recognition manner; prompting to create a voiceprint and register, if an ID for the user is not identified; characterized in that the prompting to create a voiceprint and register comprises: marking a voiceprint model for which an ID for a user is not identified, with an ID number; judging a frequency of appearance of the voiceprint model marked with the ID number; deleting the ID number if the frequency of appearance is lower than a threshold; generating an ID for the user if the frequency of appearance is higher than the threshold; and storing the ID for the user and the voiceprint model correspondingly in a voiceprint registration database. obtaining a speech request sent by a user; identifying an ID for the user who sends the speech request according to the speech request and in a voiceprint recognition manner; prompting to create a voiceprint and register, if an ID for the user is not identified; characterized in that the prompting to create a voiceprint and register comprises: marking a voiceprint model for which an ID for a user is not identified, with an ID number; judging a frequency of appearance of the voiceprint model marked with the ID number; deleting the ID number if the frequency of appearance is lower than a threshold; generating an ID for the user if the frequency of appearance is higher than the threshold; and storing the ID for the user and the voiceprint model correspondingly in a voiceprint registration database. marking a voiceprint model for which an ID for a user is not identified, with an ID number; judging a frequency of appearance of the voiceprint model marked with the ID number; deleting the ID number if the frequency of appearance is lower than a threshold; generating an ID for the user if the frequency of appearance is higher than the threshold; and storing the ID for the user and the voiceprint model correspondingly in a voiceprint registration database.
A method comprising: monitoring data traffic transmitted between a first device and a second device in a network to identify a plurality of commands transmitted between the first device and second device; determining, from the plurality of commands, a first set of commands that were transmitted between the first device and a second device; determining, using at least one hardware processor, that the first set of commands includes a threshold number of commands from a first predetermined command group of a plurality of predetermined command groups, each predetermined command group including a listing of a plurality of commands; and generating, by the at least one hardware processor, a first policy based on the first predetermined command group. monitoring data traffic transmitted between a first device and a second device in a network to identify a plurality of commands transmitted between the first device and second device; determining, from the plurality of commands, a first set of commands that were transmitted between the first device and a second device; determining, using at least one hardware processor, that the first set of commands includes a threshold number of commands from a first predetermined command group of a plurality of predetermined command groups, each predetermined command group including a listing of a plurality of commands; and generating, by the at least one hardware processor, a first policy based on the first predetermined command group.
A one-time-programmable, OTP, memory, comprising: a first global word line; a first set of bit lines (BL1-BLJ); a first local word line; a first set of OTP memory cells (C11 - 1J) coupled to the first local word line and coupled to the first set of bit lines, respectively; and a first local word line driver configured to generate a first asserted signal on the local word line in response to receiving a second asserted signal from the first global word line and a third asserted signal, wherein the third asserted signal is generated in response to at least one of a first set of bit line programming signals; a first set of bit line drivers (BD1 - BDJ) configured to apply programming voltages on the first set of bit lines based on the first set of bit line programming signals (bl1 - blj); respectively, and a multiple-input OR-gate configured to generate the third asserted signal in response to at least one of the first set of bit line programming signals being asserted. a first global word line; a first set of bit lines (BL1-BLJ); a first local word line; a first set of OTP memory cells (C11 - 1J) coupled to the first local word line and coupled to the first set of bit lines, respectively; and a first local word line driver configured to generate a first asserted signal on the local word line in response to receiving a second asserted signal from the first global word line and a third asserted signal, wherein the third asserted signal is generated in response to at least one of a first set of bit line programming signals; a first set of bit line drivers (BD1 - BDJ) configured to apply programming voltages on the first set of bit lines based on the first set of bit line programming signals (bl1 - blj); respectively, and a multiple-input OR-gate configured to generate the third asserted signal in response to at least one of the first set of bit line programming signals being asserted.
Circuitry for reducing distortions in a plurality of amplified signals to be radiated by a multiple antenna system, said circuitry comprising: a plurality of inputs each for receiving a digital signal for a plurality of forward data paths; routing circuitry for routing said input digital signals received at said plurality of inputs to pre-distortion logic for applying a pre-distortion function to each of said input digital signals, said pre-distortion logic being operable to forward each of said signals towards a digital to radio frequency converter and subsequent amplifier for amplifying said signals prior to said signals being radiated; one or more feedback paths each comprising processing logic for comparing a feedback signal generated from one of said amplified signals with said digital input signal from which said amplified signal stemmed, to determine a function to be applied by said pre-distortion logic to said input signal; selecting logic for selecting said input signal to be provided with said feedback; wherein said pre-distortion logic comprises a plurality of pre-distortion logic units, and said routing circuitry comprises first switching logic for selectively routing at least one of said inputs to at least one of said plurality of pre-distortion logic units. a plurality of inputs each for receiving a digital signal for a plurality of forward data paths; routing circuitry for routing said input digital signals received at said plurality of inputs to pre-distortion logic for applying a pre-distortion function to each of said input digital signals, said pre-distortion logic being operable to forward each of said signals towards a digital to radio frequency converter and subsequent amplifier for amplifying said signals prior to said signals being radiated; one or more feedback paths each comprising processing logic for comparing a feedback signal generated from one of said amplified signals with said digital input signal from which said amplified signal stemmed, to determine a function to be applied by said pre-distortion logic to said input signal; selecting logic for selecting said input signal to be provided with said feedback; wherein said pre-distortion logic comprises a plurality of pre-distortion logic units, and said routing circuitry comprises first switching logic for selectively routing at least one of said inputs to at least one of said plurality of pre-distortion logic units.
A water turbine power generator comprising a power generation mechanism and a locking mechanism for engaging the power generation mechanism with a damming board, wherein the power generation mechanism comprises a water turbine unit and a power generator unit, wherein the water turbine unit comprises a vertically extending cylindrical casing provided with a water inlet port at an upper part of a circumferential side wall and a water outlet port at a lower end, and impellers (12a, 12b) installed in the cylindrical casing, and wherein the locking mechanism engages the cylindrical casing of the water turbine unit with the damming board which is installed in a water current canal, characterized in that the water turbine unit is provided with a pair of impellers disposed coaxially in the cylindrical casing with blades of one of the pair of impellers and blades of the other of the pair of impellers twisted in opposite directions relative to an extending direction of the central axis of the impellers, the power generator unit comprises an outer shaft, an inner shaft passed through the outer shaft, an outer rotational armature fixed to the outer shaft, and an inner rotational armature fixed to the inner shaft and opposing the outer rotational armature, and one of the pair of impellers is connected to the outer rotational armatures of the power generator unit and the other of the pair of impellers is connected to the inner rotational armatures of the power generator unit, and the locking mechanism engages the power generation mechanism with the damming board without firmly fixing the power generation mechanism to the damming board.
A non-transitory computer readable medium comprising software instructions, which when executed by a processor perform a method, the method comprising: receiving, by an input/output, "I/O", Subsystem, a request to use an I/O device from a process executing on a first Non-Uniform Memory Access, "NUMA", node of a plurality of NUMA nodes; determining, by the I/O Subsystem, a first resource to service the request; generating, by the I/O Subsystem, a first I/O object corresponding to the first resource, wherein the fist I/O object is unbound; sending, by the I/O Subsystem, the first I/O object to a NUMA I/O Framework; selecting, by the NUMA I/O Framework, a second NUMA node of the plurality of NUMA nodes; binding, by the NUMA I/O Framework, the first I/O object to the second NUMA node; providing, by a Locality Group Module, in response to receiving a NUMA node identifier corresponding to the I/O device from the NUMA I/O Framework, a reference to a third NUMA node of the plurality of NUMA nodes, wherein the third NUMA node is directly connected to a NUMA node corresponding to the received NUMA node identifier; in response to determining, by the NUMA I/O Framework, that the second NUMA, node set is not available: selecting, by the NUMA I/O Framework, the third NUMA node of a plurality of NUMA nodes, to which to bind the first I/O object; binding, by the NUMA I/O Framework, the first I/O object to the third NUMA node; and servicing the request by processing, on the selected NUMA node, the first resource corresponding to the first I/O object. receiving, by an input/output, "I/O", Subsystem, a request to use an I/O device from a process executing on a first Non-Uniform Memory Access, "NUMA", node of a plurality of NUMA nodes; determining, by the I/O Subsystem, a first resource to service the request; generating, by the I/O Subsystem, a first I/O object corresponding to the first resource, wherein the fist I/O object is unbound; sending, by the I/O Subsystem, the first I/O object to a NUMA I/O Framework; selecting, by the NUMA I/O Framework, a second NUMA node of the plurality of NUMA nodes; binding, by the NUMA I/O Framework, the first I/O object to the second NUMA node; providing, by a Locality Group Module, in response to receiving a NUMA node identifier corresponding to the I/O device from the NUMA I/O Framework, a reference to a third NUMA node of the plurality of NUMA nodes, wherein the third NUMA node is directly connected to a NUMA node corresponding to the received NUMA node identifier; in response to determining, by the NUMA I/O Framework, that the second NUMA, node set is not available: selecting, by the NUMA I/O Framework, the third NUMA node of a plurality of NUMA nodes, to which to bind the first I/O object; binding, by the NUMA I/O Framework, the first I/O object to the third NUMA node; and selecting, by the NUMA I/O Framework, the third NUMA node of a plurality of NUMA nodes, to which to bind the first I/O object; binding, by the NUMA I/O Framework, the first I/O object to the third NUMA node; and servicing the request by processing, on the selected NUMA node, the first resource corresponding to the first I/O object.
A method of controlling a flowrate of molten material at a downstream location in a glass manufacturing process comprising: mixing the molten material at an upstream location positioned upstream from the downstream location relative to a flow direction of the molten material with a shaft comprising a plurality of protrusions; measuring a torque of the shaft; measuring a level of the molten material at the upstream location; calculating a viscosity of the molten material at the upstream location based on the measured torque and the measured level; estimating the flowrate based on the calculated viscosity; and controlling the flowrate of molten material at the downstream location based on the estimated flowrate. mixing the molten material at an upstream location positioned upstream from the downstream location relative to a flow direction of the molten material with a shaft comprising a plurality of protrusions; measuring a torque of the shaft; measuring a level of the molten material at the upstream location; calculating a viscosity of the molten material at the upstream location based on the measured torque and the measured level; estimating the flowrate based on the calculated viscosity; and controlling the flowrate of molten material at the downstream location based on the estimated flowrate.
Steam cooking method for operating a steam cooking oven comprising at least the following steps: - placing vacuum packed food stuff in an oven cavity; - a heating step comprising heating up the oven cavity until the oven cavity centre has reached a defined temperature (T d) by operating a steam generator and supplying steam generated by the steam generator into said oven cavity, wherein a convection fan is operated within the oven cavity; - a maintaining step comprising maintaining said oven cavity at said defined temperature (T d) of the oven cavity centre by operating said steam generator and supplying steam generated by the steam generator into said oven cavity over a certain period of time, wherein a convection regime in the oven cavity center is maintained, while said defined temperature (T d) of the oven cavity centre is not allowed to vary about more than +/- 1,5°C; - wherein at least during said heating step and said maintaining step the actual temperature (T a) of the oven cavity centre is determined by a control unit of the steam cooking oven by means of an algorithm that is based on the temperature values measured by a temperature sensor within the oven cavity and wherein said actual temperature (T a) is used to operate the steam generator such, that said defined temperature ((T d) of the oven cavity centre is reached or maintained. - placing vacuum packed food stuff in an oven cavity; - a heating step comprising heating up the oven cavity until the oven cavity centre has reached a defined temperature (T d) by operating a steam generator and supplying steam generated by the steam generator into said oven cavity, wherein a convection fan is operated within the oven cavity; - a maintaining step comprising maintaining said oven cavity at said defined temperature (T d) of the oven cavity centre by operating said steam generator and supplying steam generated by the steam generator into said oven cavity over a certain period of time, wherein a convection regime in the oven cavity center is maintained, while said defined temperature (T d) of the oven cavity centre is not allowed to vary about more than +/- 1,5°C; - wherein at least during said heating step and said maintaining step the actual temperature (T a) of the oven cavity centre is determined by a control unit of the steam cooking oven by means of an algorithm that is based on the temperature values measured by a temperature sensor within the oven cavity and wherein said actual temperature (T a) is used to operate the steam generator such, that said defined temperature ((T d) of the oven cavity centre is reached or maintained.