mhurhangee/patent-ind-claim-en huggingface dataset:
A flame detection apparatus comprising: a controller component ; and at least one flame detecting component in electronic communication with the controller component , the at least one flame detecting component configured to: detect infrared radiation associated with a fire in an environment, receive and transmit infrared (IR) control signals, and in response to detecting a first infrared (IR) control signal, provide an indication of the first IR control signal to the controller component , wherein the controller component is configured to: analyze the first IR control signal, and cause modification of at least one configuration setting of the flame detecting component based at least in part on analysis of the first IR control signal, wherein the at least one configuration setting of the flame detecting component comprises adjusting a field of view associated with the flame detecting component . a controller component ; and at least one flame detecting component in electronic communication with the controller component , the at least one flame detecting component configured to: detect infrared radiation associated with a fire in an environment, receive and transmit infrared (IR) control signals, and in response to detecting a first infrared (IR) control signal, provide an indication of the first IR control signal to the controller component , wherein the controller component is configured to: analyze the first IR control signal, and cause modification of at least one configuration setting of the flame detecting component based at least in part on analysis of the first IR control signal, wherein the at least one configuration setting of the flame detecting component comprises adjusting a field of view associated with the flame detecting component . detect infrared radiation associated with a fire in an environment, receive and transmit infrared (IR) control signals, and in response to detecting a first infrared (IR) control signal, provide an indication of the first IR control signal to the controller component , wherein the controller component is configured to: analyze the first IR control signal, and cause modification of at least one configuration setting of the flame detecting component based at least in part on analysis of the first IR control signal, wherein the at least one configuration setting of the flame detecting component comprises adjusting a field of view associated with the flame detecting component . analyze the first IR control signal, and cause modification of at least one configuration setting of the flame detecting component based at least in part on analysis of the first IR control signal, wherein the at least one configuration setting of the flame detecting component comprises adjusting a field of view associated with the flame detecting component .
Electromagnetic injection valve , comprising - an inlet tube , - a valve body having a longitudinal axis and comprising a cavity, in which a valve needle is axially moveable; - an upper magnetic ring press-fitted with the inlet tube or the valve body ; - a lower magnetic ring press-fitted with the valve body ; - a housing part surrounding an electromagnetic actuator unit of the injection valve for moving the valve needle; wherein - the lower magnetic ring is positioned on the valve body in such a way that an upper side of the lower magnetic ring is in close contact with an underside of the housing part , - the electromagnetic actuator unit abuts the upper magnetic ring and the lower magnetic ring on opposite axial sides, and - the housing part and/or the lower magnetic ring comprise at least one cut which extends in axial direction. - an inlet tube , - a valve body having a longitudinal axis and comprising a cavity, in which a valve needle is axially moveable; - an upper magnetic ring press-fitted with the inlet tube or the valve body ; - a lower magnetic ring press-fitted with the valve body ; - a housing part surrounding an electromagnetic actuator unit of the injection valve for moving the valve needle; wherein - the lower magnetic ring is positioned on the valve body in such a way that an upper side of the lower magnetic ring is in close contact with an underside of the housing part , - the electromagnetic actuator unit abuts the upper magnetic ring and the lower magnetic ring on opposite axial sides, and - the housing part and/or the lower magnetic ring comprise at least one cut which extends in axial direction.
A method for controlling the propulsion of a vehicle comprising an electric motogenerator and an accelerator pedal and a relating sensor connected thereto for detecting an inclination of the accelerator pedal, wherein a torque curve (EMTrq) delivered/absorbed by the electric motogenerator is a function (F(AccPed%, p)) of two variables, wherein a first variable coincides with said inclination of said accelerator pedal and a second variable coincides with an actual momentum (p) of the hybrid vehicle, wherein said torque curve has a partial derivative, in respect to said inclination of the accelerator pedal (AccPed%), linear in a relating entire domain (0% - 100%) and said domain is continuous between a condition of complete release (0%) of the accelerator pedal and a condition of total lowering (100%) of the accelerator pedal.
An appliance cabinet , comprising: - first and second sidewalls ; - a rear wall disposed between the first and second sidewalls ; - a machine compartment defined by a lower portion of the rear wall ; - an attachment feature defining openings and coupled to at least one of the first and second sidewalls ; and - a side access panel selectively coupled to at least one of the first and second sidewalls via fasteners extending through the openings defined by the attachment feature , characterised in that a controller is coupled to an interior surface of the side access panel . - first and second sidewalls ; - a rear wall disposed between the first and second sidewalls ; - a machine compartment defined by a lower portion of the rear wall ; - an attachment feature defining openings and coupled to at least one of the first and second sidewalls ; and - a side access panel selectively coupled to at least one of the first and second sidewalls via fasteners extending through the openings defined by the attachment feature ,
A method for controlling a braking system for an automobile vehicle which is able to implement a parking brake function, the braking system including in particular a disk, a brake calliper and at least one movable piston and which cooperates with the calliper to exert on the disk a disk clamping force, the braking system further including electric means and hydraulic means for driving the piston in order to produce a disk clamping force, the method including a step of determining whether the power which the electric means are able to produce is high enough to perform a disk locking, wherein when at the end of the determining step , it has been determined that the electric means are able to exert a high enough force to perform a disk locking, the determining step is followed by a step of actuating the electric means only to exert a disk clamping force, wherein when at the end of the determining step , it has been determined that the electric means are not able to exert a high enough force to perform a disk locking, the determining step is followed by a step of actuating the hydraulic means which consists in exerting on the piston a clamping force, which is followed by the step of actuating the electric means. the braking system further including electric means and hydraulic means for driving the piston in order to produce a disk clamping force, the method including a step of determining whether the power which the electric means are able to produce is high enough to perform a disk locking, wherein when at the end of the determining step , it has been determined that the electric means are able to exert a high enough force to perform a disk locking, the determining step is followed by a step of actuating the electric means only to exert a disk clamping force, wherein when at the end of the determining step , it has been determined that the electric means are not able to exert a high enough force to perform a disk locking, the determining step is followed by a step of actuating the hydraulic means which consists in exerting on the piston a clamping force, which is followed by the step of actuating the electric means.
A honeycomb body comprising: intersecting porous walls forming a matrix of repeating structural units arranged in a repeating pattern, wherein each of the repeating structural units comprises: a plurality of inlet channels and a plurality of outlet channels that extend parallel to each other in an axial direction from an inlet face to an outlet face ; wherein an I/O ratio of a number of the inlet channels to a number of the outlet channels in each of the repeating structural units is between 2.0 and 3.0; each of the inlet channels and the outlet channels have a same cross-sectional size and cross-sectional shape in a transverse plane orthogonal to the axial direction; and each of the inlet channels directly abuts at least one of the outlet channels , wherein each of the inlet channels and the outlet channels in each of the repeating structural units is square in cross-section in the transverse plane, characterised in that the repeating pattern of repeating structural units comprises a series of co-parallel groups of four diagonally-aligned outlet channels , or wherein the repeating pattern of repeating structural units comprises a series of co-parallel groups of three diagonally-aligned outlet channels , or wherein the repeating pattern of repeating structural units comprises a series of co-parallel groups of two diagonally-aligned outlet channels , wherein each group is bounded on either end by inlet channels . a plurality of inlet channels and a plurality of outlet channels that extend parallel to each other in an axial direction from an inlet face to an outlet face ; wherein an I/O ratio of a number of the inlet channels to a number of the outlet channels in each of the repeating structural units is between 2.0 and 3.0; each of the inlet channels and the outlet channels have a same cross-sectional size and cross-sectional shape in a transverse plane orthogonal to the axial direction; and each of the inlet channels directly abuts at least one of the outlet channels , wherein each of the inlet channels and the outlet channels in each of the repeating structural units is square in cross-section in the transverse plane, characterised in that the repeating pattern of repeating structural units comprises a series of co-parallel groups of four diagonally-aligned outlet channels , or wherein the repeating pattern of repeating structural units comprises a series of co-parallel groups of three diagonally-aligned outlet channels , or wherein the repeating pattern of repeating structural units comprises a series of co-parallel groups of two diagonally-aligned outlet channels , wherein each group is bounded on either end by inlet channels .
A system for pacing a heart, comprising: an electrostimulation circuit configured to generate a His-bundle pacing (HBP) pulse for delivery at or near a His bundle of the heart; a sensing circuit configured to sense, in response to the delivery of the HBP pulse, a near-field para-Hisian myocardial activity representative of excitation of a para-Hisian myocardial tissue, and a far-field cardiac activity representative of excitation of the His bundle and a ventricle; and a control circuit coupled to the sensing circuit and configured to classify a tissue response to the delivery of the HBP pulse into one of a plurality of capture types based on the sensed near-field para-Hisian myocardial activity and the sensed far-field cardiac activity. an electrostimulation circuit configured to generate a His-bundle pacing (HBP) pulse for delivery at or near a His bundle of the heart; a sensing circuit configured to sense, in response to the delivery of the HBP pulse, a near-field para-Hisian myocardial activity representative of excitation of a para-Hisian myocardial tissue, and a far-field cardiac activity representative of excitation of the His bundle and a ventricle; and a control circuit coupled to the sensing circuit and configured to classify a tissue response to the delivery of the HBP pulse into one of a plurality of capture types based on the sensed near-field para-Hisian myocardial activity and the sensed far-field cardiac activity.
A virucidal composition comprising: from 70 wt.-% to 95 wt.-% of a C 2 to C 3 monoalcohol, from 0.01 wt.-% to 0.5 wt.-% of tocopheryl or tocopheryl acetate, from 0.01 wt.-% to 1.0 wt.-% of panthenol; from 0.1 wt.-% to 5.0 wt.-% of glycerol; and from 0.01 wt.-% to 5.0 wt.-% of myristyl alcohol. from 70 wt.-% to 95 wt.-% of a C 2 to C 3 monoalcohol, from 0.01 wt.-% to 0.5 wt.-% of tocopheryl or tocopheryl acetate, from 0.01 wt.-% to 1.0 wt.-% of panthenol; from 0.1 wt.-% to 5.0 wt.-% of glycerol; and from 0.01 wt.-% to 5.0 wt.-% of myristyl alcohol.
A lithium metal-skeleton carbon composite, comprising a porous carbon material carrier and lithium metal formed in pores of the carbon material carrier, wherein the porous carbon material carrier is a porous carbon nanotube microsphere material, said carbon nanotube microsphere material being spherical or spheroidal particles each of which is composed of carbon nanotubes, wherein a large number of nanoscale pores are formed by interlaced carbon nanotubes inside the particle, and the spherical or spheroidal particles have an average diameter of 1 μm to 100 μm.
A device for sending or receiving a video according to a video wireless transmission standard for transmitting a video via one-to-one wireless communication, the device comprising: a connection control unit which controls establishment of connection according to the video wireless transmission standard between the device and a destination device for sending or receiving, and a state changing unit which changes the state of one of the device and the destination device prior to the establishment of the connection to a receiving-side state if both of the device and the destination device are in a sending-side state of functioning, or to a sending-side state if both of the device and the destination device are in a receiving-side state of functioning, wherein the device comprises both of the sending-side state function and the receiving-side state function, the destination device comprises at least one of the sending-side state function and the receiving-side state function, and the state changing unit decides a target device whose state is to be changed, from among the device and the destination device, if the states of both of the device and the destination device are the same, changes the state of the device if the target device is the device, and changes the state of the destination device by sending a request to change the state of the destination device, to the destination device, if the target device is the destination device. a connection control unit which controls establishment of connection according to the video wireless transmission standard between the device and a destination device for sending or receiving, and a state changing unit which changes the state of one of the device and the destination device prior to the establishment of the connection to a receiving-side state if both of the device and the destination device are in a sending-side state of functioning, or to a sending-side state if both of the device and the destination device are in a receiving-side state of functioning, wherein the device comprises both of the sending-side state function and the receiving-side state function, the destination device comprises at least one of the sending-side state function and the receiving-side state function, and the state changing unit decides a target device whose state is to be changed, from among the device and the destination device, if the states of both of the device and the destination device are the same, changes the state of the device if the target device is the device, and changes the state of the destination device by sending a request to change the state of the destination device, to the destination device, if the target device is the destination device. decides a target device whose state is to be changed, from among the device and the destination device, if the states of both of the device and the destination device are the same, changes the state of the device if the target device is the device, and changes the state of the destination device by sending a request to change the state of the destination device, to the destination device, if the target device is the destination device.
A method performed by a user equipment, LTE, for transmitting an uplink scheduling request, SR, the method comprising: identifying whether SR information is a positive SR or a negative SR; generating uplink control information including a bit for SR information and at least one other bit for acknowledgement, ACK/non-ACK, NACK, information; if the SR information is the negative SR, transmitting the uplink control information by using an ACK/NACK channel constructed according to a cyclic shift index and an orthogonal sequence index to a base station, BS, through a control channel; and if the SR information is the positive SR, reconfiguring the orthogonal sequence index and transmitting the uplink control information by using the ACK/NACK channel constructed according to the cyclic shift index and the reconfigured orthogonal sequence index to the BS through the control channel. identifying whether SR information is a positive SR or a negative SR; generating uplink control information including a bit for SR information and at least one other bit for acknowledgement, ACK/non-ACK, NACK, information; if the SR information is the negative SR, transmitting the uplink control information by using an ACK/NACK channel constructed according to a cyclic shift index and an orthogonal sequence index to a base station, BS, through a control channel; and if the SR information is the positive SR, reconfiguring the orthogonal sequence index and transmitting the uplink control information by using the ACK/NACK channel constructed according to the cyclic shift index and the reconfigured orthogonal sequence index to the BS through the control channel.
A robotic hand-held device comprising a first connection flange (14.1) which is designed for connecting the robotic hand-held device to a tool flange of a robotic arm , a second connection flange (14.2) which is designed for attaching a tool to be handled by the robotic arm to the robotic hand-held device , and a transmission device which is designed to transmit forces and torques between the first connection flange (14.1) and the second connection flange (14.2) and a sensor device attached to the transmission device , which is designed to detect the forces and torques transmitted via the transmission device , is characterized in that the robot hand-held device has at least one first connecting device (16.1) which is connected to the first connection flange (14.1) and that at least one first connecting device (16.1) is formed for the detachable connection of a guide handle of the robot hand-held device to the first connection flange (14.1) and wherein the robotic hand-held device has, in addition to at least one first connecting device (16.1), at least one second connecting device (16.2) which is connected to the second connection flange (14.2), and at least one first connecting device (16.1) and at least one second connecting device (16.2) are designed for optional detachable Connecting the guide handle of the robot hand-held device to the first connection flange (14.1) or the second connection flange (14.2).
A system for detecting a polypeptide of interest in a sample comprising: an optical sensor that comprises a ring resonator configured to resonate at a resonant wavelength; a first antibody that specifically binds to the polypeptide of interest, wherein the first antibody is attached to a surface of the optical sensor; and a second antibody that specifically binds to the polypeptide of interest; and a particle attached to the second antibody or a particle capable of binding the second antibody; and a detector, wherein said resonant wavelength is shifted when said second antibody is bound to said polypeptide of interest, and when said polypeptide of interest is bound to said first antibody, such that said optical sensor is configured to sense said second antibody combined with said polypeptide bound to said first antibody, and the particle is adapted to amplify the shift of the resonant wavelength, and wherein said detector is capable of detecting the shift in the resonant wavelength. an optical sensor that comprises a ring resonator configured to resonate at a resonant wavelength; a first antibody that specifically binds to the polypeptide of interest, wherein the first antibody is attached to a surface of the optical sensor; and a second antibody that specifically binds to the polypeptide of interest; and a particle attached to the second antibody or a particle capable of binding the second antibody; and a detector, wherein said resonant wavelength is shifted when said second antibody is bound to said polypeptide of interest, and when said polypeptide of interest is bound to said first antibody, such that said optical sensor is configured to sense said second antibody combined with said polypeptide bound to said first antibody, and the particle is adapted to amplify the shift of the resonant wavelength, and wherein said detector is capable of detecting the shift in the resonant wavelength.
A reciprocating compressor comprising: a shell having an internal space ; a compressing unit (C) installed in the internal space of the shell, having a reciprocating motor with a mover that reciprocates, and having a vibration body that reciprocates together with the mover of the reciprocating motor, and configured to compress a refrigerant as the vibration body reciprocates in a compression space (S1) of a fixed body; and a plurality of support springs configured to support both sides of the compressing unit in a reciprocating direction with respect to the shell, wherein the plurality of support springs include a first support spring installed at one side of the compressing unit in a vibration direction based on the compressing unit and a second support spring installed at the other side of the compressing unit in the vibration direction based on the compressing unit, characterized in that when a natural frequency of the first support spring is F s1 , a natural frequency of the second support spring is F s2 , and an operating frequency of the compressing unit is F e , a relational expression F s1 〈 F e 〈 F s2 is satisfied. a shell having an internal space ; a compressing unit (C) installed in the internal space of the shell, having a reciprocating motor with a mover that reciprocates, and having a vibration body that reciprocates together with the mover of the reciprocating motor, and configured to compress a refrigerant as the vibration body reciprocates in a compression space (S1) of a fixed body; and a plurality of support springs configured to support both sides of the compressing unit in a reciprocating direction with respect to the shell, wherein the plurality of support springs include a first support spring installed at one side of the compressing unit in a vibration direction based on the compressing unit and a second support spring installed at the other side of the compressing unit in the vibration direction based on the compressing unit, characterized in that when a natural frequency of the first support spring is F s1 , a natural frequency of the second support spring is F s2 , and an operating frequency of the compressing unit is F e , a relational expression F s1 〈 F e 〈 F s2 is satisfied.