mhurhangee/ep-ind-claims huggingface dataset:
A system for continuous measurement of an analyte in a host, the system including: a continuous analyte sensor configured to continuously measure a concentration of the analyte in the host; and a sensor electronics module physically connected to the continuous analyte sensor during sensor use, the sensor electronics module including electronics configured to process a data stream associated with an analyte concentration measured by the continuous analyte sensor in order to generate sensor information that includes raw sensor data, transformed sensor data, and/or other sensor data, wherein: the sensor electronics module is configured to receive a user-initiated NFC wakeup to switch the sensor electronics module from a low power storage mode to a higher power operational mode; once the sensor electronics module has been switched from the low power storage mode to the higher power operational mode, sensor initialization occurs during a period of time in which the sensor stabilizes after the insertion of the sensor; and the sensor electronics module is configured for periodic transmission of the sensor information to a display device. a continuous analyte sensor configured to continuously measure a concentration of the analyte in the host; and a sensor electronics module physically connected to the continuous analyte sensor during sensor use, the sensor electronics module including electronics configured to process a data stream associated with an analyte concentration measured by the continuous analyte sensor in order to generate sensor information that includes raw sensor data, transformed sensor data, and/or other sensor data, wherein: the sensor electronics module is configured to receive a user-initiated NFC wakeup to switch the sensor electronics module from a low power storage mode to a higher power operational mode; once the sensor electronics module has been switched from the low power storage mode to the higher power operational mode, sensor initialization occurs during a period of time in which the sensor stabilizes after the insertion of the sensor; and the sensor electronics module is configured for periodic transmission of the sensor information to a display device. the sensor electronics module is configured to receive a user-initiated NFC wakeup to switch the sensor electronics module from a low power storage mode to a higher power operational mode; once the sensor electronics module has been switched from the low power storage mode to the higher power operational mode, sensor initialization occurs during a period of time in which the sensor stabilizes after the insertion of the sensor; and the sensor electronics module is configured for periodic transmission of the sensor information to a display device.
A lock for a door or window comprising a housing, locking elements that can be actuated by means of a locking mechanism via a push rod, and a spring-loaded catch, which can be brought into a retracted position via a handle disposed on a tumbler, the tumbler being blocked in its neutral position by the push rod when the locking elements are in a locked position, the tumbler having on its periphery a substantially circular segment-shaped recess, by virtue of which a flat stop face is formed, which engages against a corresponding control face of the push rod in the locked condition of the lock.
A PAP system adapted for treatment of respiratory disease or sleep disordered breathing comprising: a headgear adapted for engaging a patient's head wherein the headgear includes an extension portion for covering at least a section of the top of the patient's head; a patient interface adapted to be secured to and sealed against a portion of the patient's face, in use, by the headgear; and a flow generator adapted to be connected to the patient interface and adapted to be secured by a portion of the headgear to the patient's head, wherein the flow generator is mounted on the extension portion, and wherein the flow generator comprises a blower, wherein the blower comprises a blower housing, a stator component positioned within and supported by the blower housing and a motor positioned within the stator component and adapted to drive an impeller to thereby provide pressurised breathable gas to a patient through the patient interface, characterised in that the PAP system comprises an EMF shielding that is inserted or encapsulated within the headgear and is in use positioned between the motor and the patient's head. a headgear adapted for engaging a patient's head wherein the headgear includes an extension portion for covering at least a section of the top of the patient's head; a patient interface adapted to be secured to and sealed against a portion of the patient's face, in use, by the headgear; and a flow generator adapted to be connected to the patient interface and adapted to be secured by a portion of the headgear to the patient's head, wherein the flow generator is mounted on the extension portion, and wherein the flow generator comprises a blower, wherein the blower comprises a blower housing, a stator component positioned within and supported by the blower housing and a motor positioned within the stator component and adapted to drive an impeller to thereby provide pressurised breathable gas to a
A silver particle synthesizing method comprising: separating first silver particles each covered with a dispersant from a liquid phase, followed by washing or heating the first silver particles; and synthesizing second silver particles each in a polyhedral shape while synthesizing third silver particles by causing a reaction between a first silver compound and a first reductant in a liquid phase containing the first silver particles after the washing or the heating, the second silver particles having a first particle diameter distribution, the third silver particles having a second particle diameter distribution different from the first particle diameter distribution, wherein the first silver particles have an average particle diameter of at least 100 nanometers and no greater than 500 nanometers, the first silver compound is silver nitrate, acetic acid silver, or silver carboxylate, the first reductant is a first polyalcohol, in the synthesizing the second silver particles, the second silver particles and the third silver particles are synthesized by heating the first polyalcohol in which the first silver compound is dissolved and in which the first silver particles after the washing or the heating are dispersed, the first particle diameter distribution ranges an average particle diameter of at least 1 micrometer and no greater than 15 micrometers, and the second particle diameter distribution ranges an average particle diameter of at least 100 nanometers and less than 1 micrometer. separating first silver particles each covered with a dispersant from a liquid phase, followed by washing or heating the first silver particles; and synthesizing second silver particles each in a polyhedral shape while synthesizing third silver particles by causing a reaction between a first silver compound and a first reductant in a liquid phase containing the first silver particles after the washing or the heating, the second silver particles having a first particle diameter distribution, the third silver particles having a second particle diameter distribution different from the first particle diameter distribution, wherein the first silver particles have an average particle diameter of at least 100 nanometers and no greater than 500 nanometers, the first silver compound is silver nitrate, acetic acid silver, or silver carboxylate, the first reductant is a first polyalcohol, in the synthesizing the second silver particles, the second silver particles and the third silver particles are synthesized by heating the first polyalcohol in which the first silver compound is dissolved and in which the first silver particles after the washing or the heating are dispersed, the first particle diameter distribution ranges an average particle diameter of at least 1 micrometer and no greater than 15 micrometers, and the second particle diameter distribution ranges an average particle diameter of at least 100 nanometers and less than 1 micrometer.
Compactor arrangement, having: • a supporting frame for supporting a compactor; • an empty-container transport device for transporting empty containers in the compactor arrangement; • a function module arrangement which is installed on the supporting frame above the empty-container transport device, wherein the function module arrangement has: a module receptacle for receiving multiple function modules, the multiple function modules, which are designed to match the module receptacle such that the multiple function modules can each be selectively received in multiple configurations (1100c, 1100d, 1100e, 1100f) in the module receptacle; and • at least one processor, which is configured to determine an actual configuration of the multiple configurations (1100c, 1100d, 1100e, 1100f); and • to operate the function module arrangement and/or the compactor arrangement on the basis of the determined actual configuration, characterized in that the module receptacle has one or more electrical interfaces for supply to the function module respectively received in the module receptacle and/or for communication with the respective function modules received in the module receptacle. • a supporting frame for supporting a compactor; • an empty-container transport device for transporting empty containers in the compactor arrangement; • a function module arrangement which is installed on the supporting frame above the empty-container transport device, wherein the function module arrangement has: a module receptacle for receiving multiple function modules, the multiple function modules, which are designed to match the module receptacle such that the multiple function modules can each be selectively received in multiple configurations (1100c, 1100d, 1100e, 1100f) in the module receptacle; and a module receptacle for receiving multiple function modules, the multiple function modules, which are designed to match the module receptacle such that the multiple function modules can each be selectively received in multiple configurations (1100c, 1100d, 1100e, 1100f) in the module receptacle; and • at least one processor, which is configured to determine an actual configuration of the multiple configurations (1100c, 1100d, 1100e, 1100f); and • to operate the function module arrangement and/or the compactor arrangement on the basis of the determined actual configuration, characterized in that the module receptacle has one or more electrical interfaces for supply to the function module respectively received in the module receptacle and/or for communication with the respective function modules received in the module receptacle.
Furniture hinge (1, 1', 1", 1'") with a damper and with a mounting plate on which a first hinge part is fixed via an intermediate piece, and a relative to the first hinge part pivotally arranged second hinge part which is articulated on a support lever and a guide lever in the manner of a parallel link, wherein the guide lever is coupled to the damper with a piston rod, and the piston rod is movable along its longitudinal axis in a direction extending between an axis of the support lever and an axis of the guide lever on the first hinge part, whereby the damper is arranged in a direction along the piston rod between the intermediate piece and the guide lever, whereby the damper has in an opening direction a lower resistance than in the closing direction, whereby the damper is formed as a pull damper, which means that the damping force occurs when the piston rod is pulled by means of a boom of the guide lever which is rotatably connected to the piston rod, whereby in the opposite direction only a reduced damping force occurs, whereby the damper is held rotatably around an axis of the first hinge part, whereby the axis is elongated toward the outside by means of pins, said pins being held on a housing of the damper, whereby the pins engage in openings on the first hinge part, so that that the damper is pivotally supported in the first hinge part, whereby a spring is provided which biases the hinge in the closed position, whereby the damper is provided as a hydraulic damper, and during movement of a piston body with the piston rod a volume compensation is achieved because the volume of the piston rod inside the damper increases or decreases.
A method of stimulated emission depletion microscopy using adaptive optics comprising: a) capturing a fluorescence image of a sample from a stimulated emission depletion microscope having an excitation light path and a first light modulator in a depletion light path; (b) calculating a metric combining a measure of image brightness and a measure of image sharpness of the fluorescence image; (c) adjusting a phase pattern on the pattern of the first light modulator; and repeating (a), (b) and (c) to reduce optical aberrations and/or to align the depletion light path and the excitation light path by maximising or minimising the metric, wherein the first light modulator is a spatial light modulator or a deformable mirror, and wherein the metric M is defined by M = S + σβBf S wherein S is an image sharpness measure, B is an image brightness measure σ is a constant that has a value -1 or 1 depending on whether the aberration mode being corrected produces a maximum or minimum brightness, β is a constant and f is a function of S that has a larger absolute value for a value of S above a threshold value S T and a lower absolute value for a value of S below the threshold value S T a) capturing a fluorescence image of a sample from a stimulated emission depletion microscope having an excitation light path and a first light modulator in a depletion light path; (b) calculating a metric combining a measure of image brightness and a measure of image sharpness of the fluorescence image; (c) adjusting a phase pattern on the pattern of the first light modulator; and wherein S is an image sharpness measure, B is an image brightness measure σ is a constant that has a value -1 or 1 depending on whether the aberration mode being corrected produces a maximum or minimum brightness, β is a constant and f is a function of S that has a larger absolute value for a value of S above a threshold value S T and a lower absolute value for a value of S below the threshold value S T
Regulating unit for providing an output signal with a regulated output frequency and output voltage, wherein the regulating unit comprises: an input connection for receiving an input signal with an input frequency and input voltage, the input connection being connectable to an electric generator driven by an engine of a road vehicle, the engine being arranged to operate with a variable speedrange in an operational range between zero and a maximum frequency; at least one output connection for providing an output signal with an output frequency and an output voltage, wherein the at least one output connection is connectable to at least one consumer (3; 16; 17) that can only be driven with a limited bandwidth smaller than the operational bandwidth; a frequency regulator arranged to control the output frequency, wherein the output frequency substantially increases linearly with increasing speed of the engine in a range from 0 to a nominal frequency, and above the nominal frequency is kept substantially constant; wherein the regulating unit further comprises a connection for receiving an external signal from the at least one consumer (3; 16; 17) and wherein the regulating unit is arranged so that after receiving the external signal the output frequency is regulated back to a lower frequency and then, after a predetermined period of time, the output frequency is allowed to increase linearly again. an input connection for receiving an input signal with an input frequency and input voltage, the input connection being connectable to an electric generator driven by an engine of a road vehicle, the engine being arranged to operate with a variable speedrange in an operational range between zero and a maximum frequency; at least one output connection for providing an output signal with an output frequency and an output voltage, wherein the at least one output connection is connectable to at least one consumer (3; 16; 17) that can only be driven with a limited bandwidth smaller than the operational bandwidth; a frequency regulator arranged to control the output frequency, wherein the output frequency substantially increases linearly with increasing speed of the engine in a range from 0 to a nominal frequency, and above the nominal frequency is kept substantially constant; wherein the regulating unit further comprises a connection for receiving an external signal from the at least one consumer (3; 16; 17) and wherein the regulating unit is arranged so that after receiving the external signal the output frequency is regulated back to a lower frequency and then, after a predetermined period of time, the output frequency is allowed to increase linearly again.
A method of reactive power regulation in a wind park connected to an electrical grid, the wind park comprising a plurality of wind turbines (100, 200...n00) and a central reactive power control system, wherein at least a first portion of the plurality of wind turbines (100, 200...n00) comprises a local reactive power control system (120, 220... n20, x20), characterised in that the local reactive power control system is adapted to switch between a central control mode and a local control mode and work either in the central control mode or the local control mode, wherein the central reactive power control system sends commands indicative of local reactive power demands to the local reactive power control systems (120, 220... n20) in accordance with at least one measured variable of the grid, and wherein in a central control mode, the local reactive power control system (120, 220... n20) operates a wind turbine (100, 200...n00) to generate reactive power in accordance with the commands indicative of local reactive power demands received from the central reactive power control system, and wherein in a local control mode, the local reactive power control system (120, 220... n20, x20) receives the commands indicative of local reactive power demands from the central reactive power control system, and determines an amount of reactive power to be generated regardless of said commands indicative of local reactive power demands received from said central control system and controls a wind turbine (100, 200...n00) to generate said amount of reactive power, and wherein a local reactive power control system (120, 220...n20) switches from the central control mode to the local control mode when a measured local variable passes a local limit value for the wind turbine (100, 200...n00) during at least a predetermined period of time, and wherein said local limit values for each wind turbine (100, 200...n00) are determined substantially such that in normal grid conditions, the wind park operates in the central control mode and that in or near exceptional grid conditions, the wind park operates in the local control mode, and wherein in the local control mode, the amount of reactive power to be generated is the maximum or minimum amount of reactive power a wind turbine (100, 200...n00) can generate.
A switch comprising: a movable contact piece having one end as a supporting point of turn and another end arranged with a movable contact; a turning member having one end as a supporting point of turn on a same end side as said another end of said movable contact piece; a coil spring having one end locked to another end of the turning member and another end locked to an intermediate portion of the movable contact piece; and a push button supported to be slidable in an up and down direction and for pushing down said another end of the turning member with a lower end face; wherein the movable contact piece is adapted to be inverted by pushing down said another end of the turning member with the push button so as to make the movable contact approach a fixed contact; characterized in that the turning member includes a position regulating portion that is brought into contact with the coil spring so as to be in a contact state with the coil spring when the movable contact piece is being inverted and that brings the movable contact into contact with the fixed contact while maintaining said contact state with the coil spring. a movable contact piece having one end as a supporting point of turn and another end arranged with a movable contact; a turning member having one end as a supporting point of turn on a same end side as said another end of said movable contact piece; a coil spring having one end locked to another end of the turning member and another end locked to an intermediate portion of the movable contact piece; and a push button supported to be slidable in an up and down direction and for pushing down said another end of the turning member with a lower end face; wherein the movable contact piece is adapted to be inverted by pushing down said another end of the turning member with the push button so as to make the movable contact approach a fixed contact; characterized in that the turning member includes a position regulating portion that is brought into contact with the coil spring so as to be in a contact state with the coil spring when the movable contact piece is being inverted and that brings the movable contact into contact with the fixed contact while maintaining said contact state with the coil spring.
An image reading device comprising: an image reading unit configured to read an image formed on a sheet; a first conveyor disposed upstream from the image reading unit in a conveyance direction of the sheet to convey the sheet; a second conveyor disposed downstream from the image reading unit in the conveyance direction to convey the sheet; and circuitry configured to control conveyance speeds of the sheet by the first conveyor and the second conveyor, characterised in that the image reading device further comprises a conveyance timing sensor configured to detect a trailing end of the sheet when the sheet passes through the first conveyor, wherein the circuitry is configured to change, based on the image read by the image reading unit, a difference between the conveyance speeds of the sheet by the first conveyor and the second conveyor at the timing when the conveyance timing sensor detects the trailing end of the sheet. an image reading unit configured to read an image formed on a sheet; a first conveyor disposed upstream from the image reading unit in a conveyance direction of the sheet to convey the sheet; a second conveyor disposed downstream from the image reading unit in the conveyance direction to convey the sheet; and circuitry configured to control conveyance speeds of the sheet by the first conveyor and the second conveyor, characterised in that the image reading device further comprises a conveyance timing sensor configured to detect a trailing end of the sheet when the sheet passes through the first conveyor, wherein the circuitry is configured to change, based on the image read by the image reading unit, a difference between the conveyance speeds of the sheet by the first conveyor and the second conveyor at the timing when the conveyance timing sensor detects the trailing end of the sheet.