mhurhangee/ep-ind-claims huggingface dataset:
An induction cooker, the induction cooker comprising: an induction coil arranged to receive a varying electric current and to produce a corresponding varying electromagnetic field; a power circuit constructed and arranged to provide the varying electric current; the power circuit comprising at least a first transistor and a second transistor which are each arranged in series with the induction coil and which are arranged in parallel to each other, the transistors (24, 26) being controllable so as to control the current that is provided to the induction coil by the power circuit, characterised by: a first current sensor for sensing the current flowing through the first transistor; a second current sensor for sensing the current flowing through the second transistor; and a controller for controlling the power circuit, the controller being arranged to compare a current flowing through the first transistor and a current flowing through the second transistor, and to cause an indication to be output in the case that the current flowing through the first transistor and the current flowing through the second transistor differ by more than a threshold. an induction coil arranged to receive a varying electric current and to produce a corresponding varying electromagnetic field; a power circuit constructed and arranged to provide the varying electric current; the power circuit comprising at least a first transistor and a second transistor which are each arranged in series with the induction coil and which are arranged in parallel to each other, the transistors (24, 26) being controllable so as to control the current that is provided to the induction coil by the power circuit, characterised by: a first current sensor for sensing the current flowing through the first transistor; a second current sensor for sensing the current flowing through the second transistor; and a controller for controlling the power circuit, the controller being arranged to compare a current flowing through the first transistor and a current flowing through the second transistor, and to cause an indication to be output in the case that the current flowing through the first transistor and the current flowing through the second transistor differ by more than a threshold. a first current sensor for sensing the current flowing through the first transistor; a second current sensor for sensing the current flowing through the second transistor; and a controller for controlling the power circuit, the controller being arranged to compare a current flowing through the first transistor and a current flowing through the second transistor, and to cause an indication to be output in the case that the current flowing through the first transistor and the current flowing through the second transistor differ by more than a threshold.
Gas cooking appliance with a gas device and a gas pipe that are connected to one another by means of a connecting arrangement of the gas pipe of the gas appliance to a gas connection of the gas device of the gas cooking appliance, the connecting arrangement of the gas cooking appliance comprising a connecting device to connect the gas pipe to the gas connection, wherein the gas connection has an opening with an opening inner surface having a diameter bigger than a diameter of a pipe outer surface of the gas pipe, which define an opening tubular space between them, the connecting device has an insertion part inserted in the mounting axial direction of the gas pipe into the opening tubular space with a meshing section fixed at least axially to the opening inner surface and a gripping section in contact with the pipe outer surface of the gas pipe, wherein the connecting arrangement also comprises a sealing device mounted in the opening tubular space between the pipe outer surface and the opening inner surface, characterized in that the sealing device is made in one piece with the connecting device.
A system comprising: - one or more sets of reflective visual markers, wherein each set of reflective visual markers is coupled to a component of a welding system; - one or more cameras; - a light source configured to emit light, wherein each reflective visual marker is configured to reflect the emitted light received from the light source towards said one or more cameras; - a welding helmet; - a controller communicatively coupled to the light source, wherein the controller is configured to control illumination settings of the light source based at least in part on a status of the welding system being utilized to perform a live-arc welding operation, wherein the one or more cameras are configured to detect the one or more sets of reflective visual markers and one or more sets of active visual markers, characterized in that the controller is configured to control the illumination settings of the light source during non-live welding intervals to pulse or continuously emit light of a wave length or intensity that reduces or eliminates unintentional activation of an auto-darkening circuit of the welding helmet of the welding system caused by the light source being utilized to perform a simulated welding operation. - one or more sets of reflective visual markers, wherein each set of reflective visual markers is coupled to a component of a welding system; - one or more cameras; - a light source configured to emit light, wherein each reflective visual marker is configured to reflect the emitted light received from the light source towards said one or more cameras; - a welding helmet; - a controller communicatively coupled to the light source, wherein the controller is configured to control illumination settings of the light source based at least in part on a status of the welding system being utilized to perform a live-arc welding operation, wherein the one or more cameras are configured to detect the one or more sets of reflective visual markers and one or more sets of active visual markers, characterized in that the controller is configured to control the illumination settings of the light source during non-live welding intervals to pulse or continuously emit light of a wave length or intensity that reduces or eliminates unintentional activation of an auto-darkening circuit of the welding helmet of the welding system caused by the light source being utilized to perform a simulated welding operation.
A rotor assembly for a gas turbine engine, the rotor assembly comprising: a disc supporting a plurality of radially extending blades, the blades defining passages therebetween and each passage having an annulus filler assembly; and the annulus filler assembly comprising at least two bodies (41, 42) and a brace, each of the bodies arranged to abut respective adjacent blades and the brace arranged to occupy a position centrally of the two bodies, and each body and the brace arranged to engage one another to form an airwash surface, and wherein, the brace is mounted to the disc, and characterised in that each body is attached to its respective adjacent blade by a fastening, and wherein the engagement of the brace with at least one body forms an unlinked and moveable seal. a disc supporting a plurality of radially extending blades, the blades defining passages therebetween and each passage having an annulus filler assembly; and the annulus filler assembly comprising at least two bodies (41, 42) and a brace, each of the bodies arranged to abut respective adjacent blades and the brace arranged to occupy a position centrally of the two bodies, and each body and the brace arranged to engage one another to form an airwash surface, and wherein, the brace is mounted to the disc, and characterised in that each body is attached to its respective adjacent blade by a fastening, and wherein the engagement of the brace with at least one body forms an unlinked and moveable seal.
The in vitro use of SEQ ID NO: 2 (miR-23a) as a biomarker for predicting response of a human subject suffering from rheumatoid arthritis to anti-TNFα therapy, comprising determining the expression level thereof.
A method of controlling an electricity generating system that includes at least one intermittent energy source generating plant (42, 44, 46, 48, 50), the method comprising: calculating forecast operating parameters of the at least one intermittent energy source generating plant (42, 44, 46, 48, 50); characterized by generating intermittent energy source contingency definitions from the forecast operating parameters; analysing the intermittent energy source contingency definitions to provide contingency analyses, wherein the contingency analyses identify critical contingencies from a set of credible contingencies; and controlling the electricity generating system in dependence upon such contingency analyses. calculating forecast operating parameters of the at least one intermittent energy source generating plant (42, 44, 46, 48, 50); characterized by generating intermittent energy source contingency definitions from the forecast operating parameters; analysing the intermittent energy source contingency definitions to provide contingency analyses, wherein the contingency analyses identify critical contingencies from a set of credible contingencies; and controlling the electricity generating system in dependence upon such contingency analyses.
Method for determining a speed and a reversal of the direction of movement between a sensor comprising at least one coil and a ferromagnetic sensor element changing the inductance of the at least one coil in a vehicle with the aid of an inductive speed sensor comprising at least the coil and the ferromagnetic sensor element, in which a change in the inductance of the at least one coil is detected and the speed is determined based on the changed inductance of the at least one coil, wherein an inductive speed sensor is provided as a wheel speed sensor for at least two wheels (A, B) of the vehicle, characterized in that a reversal of the direction of movement of the ferromagnetic sensor element relative to the at least one coil or a reversal of the direction of travel of the vehicle from forwards travel to reverse travel or from reverse travel to forwards travel is detected on the basis of at least one temporal phase offset (Δt1, Δt2) of the temporal curves of the inductances detected by means of the wheel speed sensors of the at least two wheels (A, B), and in that a standstill of the vehicle is detected in that a section is identified in the temporal curve of the inductance in which the inductance does not change and/or the gradient of the temporal curve of the inductance is essentially equal to zero and in that a passive inductive speed sensor provided as a wheel speed sensor is used as the inductive speed sensor, wherein the inductance of the at least one coil is detected in that a) the at least one coil is connected in a parallel or series resonant circuit and the inductance of the at least one coil is detected as a function of the resonant frequency of the resonant circuit, or in that b) an electrical pulse is applied to the at least one coil and the inductance of the at least one coil is detected as a function of the response of the at least one coil to the electrical pulse, or in that c) a constant frequency is applied to the at least one coil and then the inductance of the at least one coil is detected. a) the at least one coil is connected in a parallel or series resonant circuit and the inductance of the at least one coil is detected as a function of the resonant frequency of the resonant circuit, or in that b) an electrical pulse is applied to the at least one coil and the inductance of the at least one coil is detected as a function of the response of the at least one coil to the electrical pulse, or in that c) a constant frequency is applied to the at least one coil and then the inductance of the at least one coil is detected.
A method of calculating and outputting pressure information about the status of an actual pressure of a gas bottle of an aircraft door damper at 20 0 C, performed on a smart device, said method comprising, on the smart device: receiving, from a non-compensated pressure gauge, a pressure input indicating an actual pressure of said gas bottle of said aircraft door damper at ambient temperature (120, 160, 170), receiving a temperature input indicating an actual temperature of said gas bottle of said aircraft door damper, and using said inputs to calculate and convert said actual pressure of said gas bottle of said aircraft door damper at ambient temperature to a pressure at a temperature of 20°C, and further comprising outputting pressure information about the status of the gas bottle of said aircraft door damper based on said converted pressure at 20°C. said method comprising, on the smart device: receiving, from a non-compensated pressure gauge, a pressure input indicating an actual pressure of said gas bottle of said aircraft door damper at ambient temperature (120, 160, 170), receiving a temperature input indicating an actual temperature of said gas bottle of said aircraft door damper, and using said inputs to calculate and convert said actual pressure of said gas bottle of said aircraft door damper at ambient temperature to a pressure at a temperature of 20°C, and further comprising outputting pressure information about the status of the gas bottle of said aircraft door damper based on said converted pressure at 20°C.
A cable-type secondary battery having a horizontal cross section of a predetermined shape and extending longitudinally, comprising: a core for supplying lithium ions, which comprises an electrolyte; an inner electrode, comprising an open-structured inner current collector surrounding the outer surface of the core for supplying lithium ions, an inner electrode active material layer formed on the surface of the inner current collector, and an electrolyte-absorbing layer formed on the outer surface of the inner electrode active material layer; a separation layer surrounding the outer surface of the inner electrode to prevent a short circuit between electrodes; and an outer electrode surrounding the outer surface of the separation layer and comprising an outer electrode active material layer and an outer current collector. a core for supplying lithium ions, which comprises an electrolyte; an inner electrode, comprising an open-structured inner current collector surrounding the outer surface of the core for supplying lithium ions, an inner electrode active material layer formed on the surface of the inner current collector, and an electrolyte-absorbing layer formed on the outer surface of the inner electrode active material layer; a separation layer surrounding the outer surface of the inner electrode to prevent a short circuit between electrodes; and an outer electrode surrounding the outer surface of the separation layer and comprising an outer electrode active material layer and an outer current collector.
A pulse generator, comprising: electrode nodes, wherein each of the electrode nodes is configured to be coupled to one of a plurality of electrodes in contact with a patient's tissue; stimulation circuity comprising first memory locations configured to store data for consecutive first phases of a first stimulation pulse in consecutive ones of the first memory locations; digital-to-analog converter circuitry configured to form the consecutive first pulse phases at selected ones of the electrode nodes, wherein the DAC circuity is powered by a compliance voltage; and compliance circuitry configured to process voltages at the electrode nodes to determine whether to adjust the compliance voltage; wherein at least some of the first memory locations are each formatted to include compliance voltage monitoring data along with the data for one of the first pulse phases, wherein the compliance voltage monitoring data is configured to be set or not set with an instruction, wherein the instruction is configured to instruct the compliance circuitry to process the voltages at the selected electrode nodes during the first pulse phase whose data is stored in one of the first memory locations with the instruction. electrode nodes, wherein each of the electrode nodes is configured to be coupled to one of a plurality of electrodes in contact with a patient's tissue; stimulation circuity comprising first memory locations configured to store data for consecutive first phases of a first stimulation pulse in consecutive ones of the first memory locations; digital-to-analog converter circuitry configured to form the consecutive first pulse phases at selected ones of the electrode nodes, wherein the DAC circuity is powered by a compliance voltage; and compliance circuitry configured to process voltages at the electrode nodes to determine whether to adjust the compliance voltage; wherein at least some of the first memory locations are each formatted to include compliance voltage monitoring data along with the data for one of the first pulse phases, wherein the compliance voltage monitoring data is configured to be set or not set with an instruction, wherein the instruction is configured to instruct the compliance circuitry to process the voltages at the selected electrode nodes during the first pulse phase whose data is stored in one of the first memory locations with the instruction.
A computer-implemented method comprising: transmitting, amongst devices that are Digital Rights Management, "DRM", client devices and associate with a DRM domain, a message including data describing a capability of each device by broadcasting sequentially, at each device associated with the DRM domain, a message including a capability of the each device; performing, amongst the devices, an election competition based on comparing, at the each device, the capability of the each device with a capability within a message which is broadcasted from another device associated with the DRM domain when the each device receives the message which is broadcasting from the another device, wherein if the capability of the each device is higher than the capability within the message, the each device is survival, or else the each device stops broadcasting of the message including the capability of the each device; and electing one of the devices a reference point controller for the DRM domain based on the election competition performed by the devices, wherein the elected device by the electing has the highest capability among the devices. transmitting, amongst devices that are Digital Rights Management, "DRM", client devices and associate with a DRM domain, a message including data describing a capability of each device by broadcasting sequentially, at each device associated with the DRM domain, a message including a capability of the each device; performing, amongst the devices, an election competition based on comparing, at the each device, the capability of the each device with a capability within a message which is broadcasted from another device associated with the DRM domain when the each device receives the message which is broadcasting from the another device, wherein if the capability of the each device is higher than the capability within the message, the each device is survival, or else the each device stops broadcasting of the message including the capability of the each device; and electing one of the devices a reference point controller for the DRM domain based on the election competition performed by the devices, wherein the elected device by the electing has the highest capability among the devices.
A projected beam smoke detector comprising: a source of a beam of radiant energy; a reflector having a predetermined size; a multi-pixel sensor of the radiant energy; and control circuits that receive an image from the multi-pixel sensor and calculate a distance between the reflector and the multi-pixel sensor based on a size parameter of the reflector in the image and the predetermined size of the reflector. a source of a beam of radiant energy; a reflector having a predetermined size; a multi-pixel sensor of the radiant energy; and control circuits that receive an image from the multi-pixel sensor and calculate a distance between the reflector and the multi-pixel sensor based on a size parameter of the reflector in the image and the predetermined size of the reflector.
A gas turbine engine comprising: a fan, compressor, combustor, high pressure turbine, and low pressure turbine disposed in serial flow communication; said compressor including rows of compressor blades for pressurizing air sequentially in corresponding stages; said HP turbine including a row of hollow nozzle vanes having forward and aft internal cooling channels (52,54) followed by a row of hollow rotor blades having forward and aft internal cooling channels (60,62); first, second, third, and fourth bleed circuits joined in flow communication with different stages of said compressor for bleeding pressurized air therefrom at different pressures to provide first, second, third, and fourth coolants (34a-d) to said vane forward and aft channels (52,54) and said blade forward and aft channels (60,62), respectively, the first, second, third and fourth bleed circuits being independent of one another. a fan, compressor, combustor, high pressure turbine, and low pressure turbine disposed in serial flow communication; said compressor including rows of compressor blades for pressurizing air sequentially in corresponding stages; said HP turbine including a row of hollow nozzle vanes having forward and aft internal cooling channels (52,54) followed by a row of hollow rotor blades having forward and aft internal cooling channels (60,62); first, second, third, and fourth bleed circuits joined in flow communication with different stages of said compressor for bleeding pressurized air therefrom at different pressures to provide first, second, third, and fourth coolants (34a-d) to said vane forward and aft channels (52,54) and said blade forward and aft channels (60,62), respectively, the first, second, third and fourth bleed circuits being independent of one another.
A drug conjugate of formula, D-L-P wherein D is prednisone, prednisolone, or methylprednisolone; L is a linkage; and P is a plant steroid selected from the group consisting of β-sitosterol, campesterol, stigmasterol, brassicasterol, sitostanol, campestanol, brassicastanol, stigmastanol, 24,25-epoxycholsterol, and 5-6-epoxycampesterol. D is prednisone, prednisolone, or methylprednisolone; L is a linkage; and P is a plant steroid selected from the group consisting of β-sitosterol, campesterol, stigmasterol, brassicasterol, sitostanol, campestanol, brassicastanol, stigmastanol, 24,25-epoxycholsterol, and 5-6-epoxycampesterol.