mhurhangee/ep-ind-claims huggingface dataset:
A breathing apparatus comprising: a gas monitor for monitoring at least one gas, including a pump for controlling a sidestream flow from a patient circuit to said gas monitor via a sampling line having a first end being connectable to said gas monitor and a second end being connectable to said patient circuit; at least a first pressure sensor in operation measuring a sidestream pressure at said sidestream gas monitor, and in operation providing a first pressure signal for said pressure, said sidestream pressure being indicative of a breathing circuit pressure when said sampling line is connected at its ends; at least a second pressure sensor (122, 124, 126) for measuring a breathing circuit pressure and a processing unit characterized in that said processing unit is operative to determine if a leakage of said sampling line is occurring by comparing at least an amplitude of the measured first pressure signal and a predetermined reference amplitude or a measured reference amplitude for said first pressure signal based at least on a pressure signal provided by the second pressure sensor (122, 124, 126). a gas monitor for monitoring at least one gas, including a pump for controlling a sidestream flow from a patient circuit to said gas monitor via a sampling line having a first end being connectable to said gas monitor and a second end being connectable to said patient circuit; at least a first pressure sensor in operation measuring a sidestream pressure at said sidestream gas monitor, and in operation providing a first pressure signal for said pressure, said sidestream pressure being indicative of a breathing circuit pressure when said sampling line is connected at its ends; at least a second pressure sensor (122, 124, 126) for measuring a breathing circuit pressure and a processing unit characterized in that said processing unit is operative to determine if a leakage of said sampling line is occurring by comparing at least an amplitude of the measured first pressure signal and a predetermined reference amplitude or a measured reference amplitude for said first pressure signal based at least on a pressure signal provided by the second pressure sensor (122, 124, 126).
A light-emitting diode, hereinafter LED, display device comprising: an LED module including a plurality of LED lines; an LED driver configured to drive the LED module with a consecutive LED line scan order; and a controller configured to determine whether a line flicker will occur, by comparing a level of an input image signal input to the LED display device to a pre-set value, wherein the level of the input image signal determines a brightness of an image displayable on the LED display device according to the input image signal, based on the determination that the level is higher than the pre-set value so that the line flicker will not occur, the controller is arranged to control the LED driver to continue to drive the LED module using the consecutive LED line scan order; based on the determination that the level is less than or equal to the pre-set value so that the line flicker will occur, the controller is arranged to obtain a non-consecutive LED line scan order corresponding to the level of the input image signal for which the line flicker will not occur, and to control the LED driver to drive the LED module based on the non-consecutive LED line scan order. an LED module including a plurality of LED lines; an LED driver configured to drive the LED module with a consecutive LED line scan order; and a controller configured to determine whether a line flicker will occur, by comparing a level of an input image signal input to the LED display device to a pre-set value, wherein the level of the input image signal determines a brightness of an image displayable on the LED display device according to the input image signal, based on the determination that the level is higher than the pre-set value so that the line flicker will not occur, the controller is arranged to control the LED driver to continue to drive the LED module using the consecutive LED line scan order; based on the determination that the level is less than or equal to the pre-set value so that the line flicker will occur, the controller is arranged to obtain a non-consecutive LED line scan order corresponding to the level of the input image signal for which the line flicker will not occur, and to control the LED driver to drive the LED module based on the non-consecutive LED line scan order.
Method for electrically controlling a valve actuator in a two-stroke or four-stroke combustion engine where the actuator comprises a solenoid, a plunger and a spring, wherein the spring of the actuator keeps the plunger in a home position when the solenoid is not activated, wherein the engine has at least one cylinder with at least one freely controllable engine valve with a valve disc with corresponding valve stem and a valve spring, where an acceleration distance is provided between the lower end of the plunger and the upper end of the valve stem, and where air is supplied, or exhaust gases are evacuated from, a combustion chamber past a lower part of the valve stem with the valve disc via at least one channel in the cylinder, wherein the valve actuator is activatable to open the engine valve, wherein opening of the engine valve is initiated after activation of the solenoid, where the following acceleration of the plunger brings its lower end to strike the upper end of the valve stem for initial opening of the valve, and in that movement of the plunger continues until the movement is interrupted when the plunger reaches a stop in the solenoid where the force from the solenoid acting on the plunger is at its maximum, wherein, after the plunger has reached said stop, opening movement of the engine valve continues while the upper end of the valve stem is separated from the lower end of the plunger until valve spring force brings the opening movement of the engine valve to stop whereby the engine valve starts its return towards the valve seat, wherein the upper end of the valve stem is separated from the lower end of the plunger when the engine valve is at a fully open position.
A drilling information system for use with a drilling rig, which drilling rig is supplied by a supply chain, said drilling information system comprising: a rig site network including a drilling equipment controller and a drilling parameter sensor; a downhole sensor (118; 302) communicatively coupled to the rig site network; a data center communicatively coupled to the rig site network; a remote access site communicatively coupled to the data center; and an equipment health monitoring application communicatively coupled to the rig site network, wherein the equipment health monitoring application receives performance and health data from the drilling parameter sensor and/or the downhole sensor (118; 302), and analyzes the performance and health data to determine if spare parts or replacement tools are needed; characterized in that said data center is remote from said rig site network, which data centre comprises a service centre; said remote access site comprises an external portal for the acquisition of replacement tools or spare parts; and in that said equipment health monitoring application communicates the outcome of said analysis of the performance and health data to said service center and to said external portal enabling said supply chain to acquire the spare parts or replacement tools. a rig site network including a drilling equipment controller and a drilling parameter sensor; a downhole sensor (118; 302) communicatively coupled to the rig site network; a data center communicatively coupled to the rig site network; a remote access site communicatively coupled to the data center; and an equipment health monitoring application communicatively coupled to the rig site network, wherein the equipment health monitoring application receives performance and health data from the drilling parameter sensor and/or the downhole sensor (118; 302), and analyzes the performance and health data to determine if spare parts or replacement tools are needed; characterized in that said data center is remote from said rig site network, which data centre comprises a service centre; said remote access site comprises an external portal for the acquisition of replacement tools or spare parts; and in that said equipment health monitoring application communicates the outcome of said analysis of the performance and health data to said service center and to said external portal enabling said supply chain to acquire the spare parts or replacement tools.
A method of manufacturing a substrate integrated gasket, the method characterized by comprising: a step of forming an application layer of a gasket forming paste to a surface of a substrate according to a screen printing, such that a height of the application layer is higher than a height of the gasket to be formed; and a step of pressing an application layer correcting member onto the application layer, such that the height of the application layer is pressed down to be corrected to the height of the gasket to be formed, and curing the application layer. a step of forming an application layer of a gasket forming paste to a surface of a substrate according to a screen printing, such that a height of the application layer is higher than a height of the gasket to be formed; and a step of pressing an application layer correcting member onto the application layer, such that the height of the application layer is pressed down to be corrected to the height of the gasket to be formed, and curing the application layer.
A method for changing the identification code modulated onto the light of a light source in a visible light communication system, the visible light communication system comprising the light source, a driver system to drive the light source, and a server that is not able to communicate directly with the driver system, the method making use of a first mobile device comprising an image sensor, a processing unit, a network adapter, and a transmitter, wherein the processing unit is configured to process an output of the image sensor, and to communicate with the server via the network adapter, and wherein the processing unit is further configured to send signals to the driver system using the transmitter, said method comprising the following steps: a. receiving a signal from the server by the network adapter of the first mobile device, said signal comprising a command to change the identification code of the light source from a first ID code to a second ID code; and b. transmitting, by the transmitter of the first mobile device, a signal to the driver system, said signal comprising a command to change the identification code of the light source to a second ID code. a. receiving a signal from the server by the network adapter of the first mobile device, said signal comprising a command to change the identification code of the light source from a first ID code to a second ID code; and b. transmitting, by the transmitter of the first mobile device, a signal to the driver system, said signal comprising a command to change the identification code of the light source to a second ID code.
A thermal printer (100; 200) comprising: a thermal print head (101; 201) for applying thermal media onto a receiver (105; 205); a capstan roller (103; 203; 502; 602; 702) disposed between the thermal print head (101; 201) and a supply (106; 206) of the receiver (105; 205) for controlling a feed of the receiver (105; 205) to the print head (101; 201); and a motor and a torque limiter for maintaining a minimum tension of the receiver (105; 205) between the supply (106; 206) of receiver (105; 205) and the capstan roller (103; 203; 502; 602; 702). a thermal print head (101; 201) for applying thermal media onto a receiver (105; 205); a capstan roller (103; 203; 502; 602; 702) disposed between the thermal print head (101; 201) and a supply (106; 206) of the receiver (105; 205) for controlling a feed of the receiver (105; 205) to the print head (101; 201); and a motor and a torque limiter for maintaining a minimum tension of the receiver (105; 205) between the supply (106; 206) of receiver (105; 205) and the capstan roller (103; 203; 502; 602; 702).
A retail display device (10, 310) comprising: a carriage (40, 360) mounted to a retail hook rail (20, 320) adapted to be cantileveredly supported by a support structure, the carriage (40, 360) comprising a pair of hingedly attached arms (41, 341, 42, 342), including: a first arm (41, 341) pivotal about a hinge (43, 343), the hinge mounted to a second arm (42, 342), the first arm (41, 341) adapted to slide along the hook rail (20, 320), and a second arm (42, 342) adapted to reciprocate along the hook rail (20, 320), the pair of arms (41, 341, 42, 342) biased to pivot apart, such that the first arm (41, 341) tends to assume an inclined position relative to the hook rail (20, 320) and the first arm (41, 341) is adapted to be drawn towards an upper portion of the second arm by a gathering device extending between the respective first and second arms (41, 341, 42, 342), characterised in that: the gathering device is flexible and extends forward beyond the second arm (42, 342) to a lever (80, 388) mounted to the front of the hook rail (20, 320); and includes a scissor mechanism in which the pair of hingedly attached arms (41, 341, 42, 342) are adapted to incrementally advance along the hook rail (20, 320) in response to the rotation of the lever (80, 388) to which the gathering device is attached. a carriage (40, 360) mounted to a retail hook rail (20, 320) adapted to be cantileveredly supported by a support structure, the carriage (40, 360) comprising a pair of hingedly attached arms (41, 341, 42, 342), including: a first arm (41, 341) pivotal about a hinge (43, 343), the hinge mounted to a second arm (42, 342), the first arm (41, 341) adapted to slide along the hook rail (20, 320), and a second arm (42, 342) adapted to reciprocate along the hook rail (20, 320), the pair of arms (41, 341, 42, 342) biased to pivot apart, such that the first arm (41, 341) tends to assume an inclined position relative to the hook rail (20, 320) and the first arm (41, 341) is adapted to be drawn towards an upper portion of the second arm by a gathering device extending between the respective first and second arms (41, 341, 42, 342), a first arm (41, 341) pivotal about a hinge (43, 343), the hinge mounted to a second arm (42, 342), the first arm (41, 341) adapted to slide along the hook rail (20, 320), and a second arm (42, 342) adapted to reciprocate along the hook rail (20, 320), the pair of arms (41, 341, 42, 342) biased to pivot apart, such that the first arm (41, 341) tends to assume an inclined position relative to the hook rail (20, 320) and the first arm (41, 341) is adapted to be drawn towards an upper portion of the second arm by a gathering device extending between the respective first and second arms (41, 341, 42, 342), characterised in that: the gathering device is flexible and extends forward beyond the second arm (42, 342) to a lever (80, 388) mounted to the front of the hook rail (20, 320); and includes a scissor mechanism in which the pair of hingedly attached arms (41, 341, 42, 342) are adapted to incrementally advance along the hook rail (20, 320) in response to the rotation of the lever (80, 388) to which the gathering device is attached.
A power regulator for an inductive power receiver configured to provide energy to an electric load, said inductive power receiver comprising: at least one secondary inductive coil for forming an inductive couple with at least one primary inductive coil of an inductive power outlet; and a signal transmitter operable to send power control signals to said inductive power outlet, said power regulator comprising: at least one power monitor operable to monitor power received by the electric load; and at least one controller in communication with said power monitor and said signal transmitter, said controller operable to instruct said signal transmitter to transmit a power-increase signal if the power received by the electric load is below a minimum power-threshold; wherein said power regulator further comprises: a receiver-side signal-timer operable to measure duration of a series of consecutive power-increase signals; and at least one time-triggered current limiter operable to limit the current required by the electric load thereby reducing said minimum power-threshold, said time-triggered current limiter in communication with said receiver-side signal-timer and configured to activate if said duration of the series of consecutive power-increase signals exceeds a maximum time-threshold. at least one power monitor operable to monitor power received by the electric load; and at least one controller in communication with said power monitor and said signal transmitter, said controller operable to instruct said signal transmitter to transmit a power-increase signal if the power received by the electric load is below a minimum power-threshold; a receiver-side signal-timer operable to measure duration of a series of consecutive power-increase signals; and at least one time-triggered current limiter operable to limit the current required by the electric load thereby reducing said minimum power-threshold, said time-triggered current limiter in communication with said receiver-side signal-timer and configured to activate if said duration of the series of consecutive power-increase signals exceeds a maximum time-threshold.
A display package comprising: a cylindrical neck portion at a first end; a main body having a front wall, a back wall, and side walls that contour inwards to connect to the cylindrical neck portion, the main body having a flat base at a second end opposite to the cylindrical neck portion; wherein the walls of the main body form a cavity there within; and wherein at least one tray (170, 190) is located within the cavity having a plurality of open indentations (180, 200) for holding items; and wherein the package is separable into a first portion and a second portion to divide the main body and the cylindrical neck portion to allow placement of the at least one tray in the cavity, and are joined together to form the display package. a cylindrical neck portion at a first end; a main body having a front wall, a back wall, and side walls that contour inwards to connect to the cylindrical neck portion, the main body having a flat base at a second end opposite to the cylindrical neck portion; wherein the walls of the main body form a cavity there within; and wherein at least one tray (170, 190) is located within the cavity having a plurality of open indentations (180, 200) for holding items; and wherein the package is separable into a first portion and a second portion to divide the main body and the cylindrical neck portion to allow placement of the at least one tray in the cavity, and are joined together to form the display package.
A reflective beam shaper for generating a desired radiation characteristic from a radiation characteristic of a planar light source, comprising: a beam-shaping planar structure having a plurality of translucent beam-shaping openings which extend from a first side to be facing the planar light source to a second side opposite to the first side through the beam-shaping planar structure; wherein the translucent beam-shaping openings comprise reflective sidewalls; and wherein a lateral extension of the translucent beam-shaping openings on the first side of the beam-shaping planar structure is smaller than a lateral extension of the translucent beam-shaping openings on the second side of the beam-shaping planar structure so that the radiation characteristic of the planar light source is altered to the desired radiation characteristic when passing through the beam-shaping planar structure, characterized in that: the beam-shaping planar structure (710-1; 710-2) is reflective on its first side. a beam-shaping planar structure having a plurality of translucent beam-shaping openings which extend from a first side to be facing the planar light source to a second side opposite to the first side through the beam-shaping planar structure; wherein the translucent beam-shaping openings comprise reflective sidewalls; and wherein a lateral extension of the translucent beam-shaping openings on the first side of the beam-shaping planar structure is smaller than a lateral extension of the translucent beam-shaping openings on the second side of the beam-shaping planar structure so that the radiation characteristic of the planar light source is altered to the desired radiation characteristic when passing through the beam-shaping planar structure, characterized in that: the beam-shaping planar structure (710-1; 710-2) is reflective on its first side. the beam-shaping planar structure (710-1; 710-2) is reflective on its first side.
A residence system comprising: a plurality of self-assembling structures, each structure of the plurality of structures comprising: a first side; and a first attachment point on the first side, wherein the first attachment point is configured to attach in vivo to a second attachment point on another structure of the plurality of structures, wherein the plurality of structures are sized and shaped to form an aggregate structure that is sized and shaped to maintain an in vivo position relative to an internal orifice, and wherein the attachment between the first attachment point and the second attachment point is configured to degrade after a period of time when the plurality of structures are placed in vivo. a first side; and a first attachment point on the first side, wherein the first attachment point is configured to attach in vivo to a second attachment point on another structure of the plurality of structures, wherein the plurality of structures are sized and shaped to form an aggregate structure that is sized and shaped to maintain an in vivo position relative to an internal orifice, and wherein the attachment between the first attachment point and the second attachment point is configured to degrade after a period of time when the plurality of structures are placed in vivo.
Thermal management system for a motor vehicle passenger compartment, said system including a processing unit designed to determine an operative temperature setpoint TOC(t), also called operative comfort temperature, at a given time, and to use this operative temperature setpoint to manage thermal comfort in the passenger compartment, this operative temperature setpoint TOC(t) at the given time (t) being dependent on a reference operative temperature value (TOCRef), on a variation DeltaCORP(t) in a corpulence value CORP(t) of a person at the time (t) compared to a reference corpulence value, on a variation DeltaCLO(t) in a clothing value CLO(t) at the time (t) compared to a reference clothing value and on a variation DeltaMET(t) in a metabolism activity value MET(t) at the time (t) compared to a reference metabolism activity value, characterized in that the operative temperature setpoint TOC(t) at the given time (t) is defined by the following relationship: TOC(t) = TOCRef + A(CORP,CLO,MET) x DeltaCORP(t) + B(CORP,CLO,MET) x DeltaCLO(t) + C(CORP,CLO,MET) x DeltaMET(t), in which relationship the coefficients A(CORP,CLO,MET), B(CORP,CLO,MET) and C(CORP,CLO,MET) characterize the sensitivity of the setpoint temperature to a variation in the corpulence CORP(t), the clothing CLO(t) and the metabolism MET(t), respectively, these coefficients being dependent in particular on the corpulence CORP of the passenger and on the range in which the CLO and the MET vary.