mhurhangee/patent-ind-claim-en huggingface dataset:
Valve comprising a valve body , a cartridge element and a valve support guide , the valve body having at least one seat configured to accommodate at least partially the cartridge , the cartridge comprising an external surface configured to support at least partially an actuation element , said cartridge containing at least one core configured to cooperate with a nozzle fluidly connected with a first fluid passage , said at least one core being movable inside said cartridge between at least a first position in which said at least one core closes the first passage and a second position in which said at least one core allows a flow through the first passage so as to control the flow of a fluid through the valve, wherein the valve comprises quick coupling means for the valve support guide , said quick coupling means being made on an intermediate element interposed between the valve body and the valve support guide , characterized in that the at least one core is movable inside the cartridge against the action of an elastic element , and in that the intermediate element is snapped-on the valve body . the at least one core is movable inside the cartridge against the action of an elastic element , and in that the intermediate element is snapped-on the valve body .
A wheelchair system comprising: a wheelchair comprising a seat; one or more first sensors disposed on or within the seat; one or more second sensors configured to communicate with the one or more first sensors and configured to be associated with a user to determine if the user is falling out of the wheelchair; and a master controller configured to: receive data from the one or more first sensors and the one or more second sensors comprising a distance between each of the one or more first sensors and a corresponding one of the one or more second sensors; and determine that the user is falling out of the wheelchair and cause the wheelchair to stop if the distance between any of the one or more first sensors and a corresponding one of the one or more second sensors is greater than a predetermined threshold. a wheelchair comprising a seat; one or more first sensors disposed on or within the seat; one or more second sensors configured to communicate with the one or more first sensors and configured to be associated with a user to determine if the user is falling out of the wheelchair; and a master controller configured to: receive data from the one or more first sensors and the one or more second sensors comprising a distance between each of the one or more first sensors and a corresponding one of the one or more second sensors; and determine that the user is falling out of the wheelchair and cause the wheelchair to stop if the distance between any of the one or more first sensors and a corresponding one of the one or more second sensors is greater than a predetermined threshold. receive data from the one or more first sensors and the one or more second sensors comprising a distance between each of the one or more first sensors and a corresponding one of the one or more second sensors; and determine that the user is falling out of the wheelchair and cause the wheelchair to stop if the distance between any of the one or more first sensors and a corresponding one of the one or more second sensors is greater than a predetermined threshold.
Electrically operated aerosol-generating device for generating an aerosol, the device comprising: - a receiving cavity for removably receiving an aerosol-forming substrate or at least a portion of an aerosol-generating article comprising an aerosol-forming substrate ; - an air path which extends through the device and is configured to support an airflow in the device ; - a sound generating member which is arranged in fluid communication with the air path and configured to generate sound caused by an airflow passing the sound generating member in use of the device when a user takes a puff, wherein the sound generating member is located in a distal end portion of the receiving cavity ; and - a puff detector comprising a vibration sensor , wherein the vibration sensor is fluidly separated from the air path and configured to detect the sound propagating from the sound generating member to the vibration sensor . - a receiving cavity for removably receiving an aerosol-forming substrate or at least a portion of an aerosol-generating article comprising an aerosol-forming substrate ; - an air path which extends through the device and is configured to support an airflow in the device ; - a sound generating member which is arranged in fluid communication with the air path and configured to generate sound caused by an airflow passing the sound generating member in use of the device when a user takes a puff, wherein the sound generating member is located in a distal end portion of the receiving cavity ; and - a puff detector comprising a vibration sensor , wherein the vibration sensor is fluidly separated from the air path and configured to detect the sound propagating from the sound generating member to the vibration sensor .
A steering system that is telescopically extendable and retractable using a motor driving force, the steering system comprising: a motor ; a telescopic steering shaft ; a supporting member that supports the steering shaft such that the steering shaft is rotatable, the supporting member being movable with telescopic movement of the steering shaft; an energy absorbing member connected to the supporting member ; and a movable member connected to the energy absorbing member and configured to move the supporting member by being moved by a driving force of the motor , wherein the energy absorbing member has a stiffness that moves the supporting member by transmitting the driving force of the motor from the movable member to the supporting member , and the energy absorbing member is deformable to absorb impact energy when an impact force is applied to the energy absorbing member through the steering shaft and the supporting member during a secondary collision, characterized in that the steering system further comprises a limiter member that limits deformation of the energy absorbing member , wherein the limiter element is breakable by the impact force during the secondary collision to allow the deformation of the energy absorbing member . a motor ; a telescopic steering shaft ; a supporting member that supports the steering shaft such that the steering shaft is rotatable, the supporting member being movable with telescopic movement of the steering shaft; an energy absorbing member connected to the supporting member ; and a movable member connected to the energy absorbing member and configured to move the supporting member by being moved by a driving force of the motor , wherein the energy absorbing member has a stiffness that moves the supporting member by transmitting the driving force of the motor from the movable member to the supporting member , and the energy absorbing member is deformable to absorb impact energy when an impact force is applied to the energy absorbing member through the steering shaft and the supporting member during a secondary collision, characterized in that the steering system further comprises a limiter member that limits deformation of the energy absorbing member , wherein the limiter element is breakable by the impact force during the secondary collision to allow the deformation of the energy absorbing member .
A riveting tool for setting blind rivet nuts and/or blind rivet screws, comprising - a drive piston which is able to be hydraulically adjusted from an initial position toward an end position, - a pull rod which is releasably and operatively connected to the drive piston and which is able to be adjusted by the drive piston from a rivet receiving position into a setting position and - a coupling element fixing the pull rod and a drawing mandrel to one another in the longitudinal axial direction, wherein the riveting tool for fixing the setting position has an adjusting unit with a stroke-limiting element which is axially adjustable relative to the coupling element in the longitudinal axial direction of the pull rod , wherein the setting movement is determined by a stop of the coupling element at a stop surface of the stroke-limiting element and the adjusting unit as a stroke-limiting element has a stop sleeve which is mounted fixedly in terms of rotation relative to the pull rod and which is adjustable in the longitudinal axial direction, characterized in that the stop sleeve is in engagement via an external thread with an internal thread of an adjusting ring rotatably mounted on the riveting tool . - a drive piston which is able to be hydraulically adjusted from an initial position toward an end position, - a pull rod which is releasably and operatively connected to the drive piston and which is able to be adjusted by the drive piston from a rivet receiving position into a setting position and - a coupling element fixing the pull rod and a drawing mandrel to one another in the longitudinal axial direction,
A DPP-4 inhibitor which is of formula (I) wherein R1 denotes (4-methyl-quinazolin-2-yl)methyl, and R2 denotes 3-( R )-amino-piperidin-1-yl, or a pharmaceutically acceptable salt thereof; optionally in combination with one or more other active agents, for use in increasing survival rate and/or reducing mortality of a patient with or at risk of SIRS and/or sepsis (SIRS / sepsis). wherein R1 denotes (4-methyl-quinazolin-2-yl)methyl, and R2 denotes 3-( R )-amino-piperidin-1-yl, or a pharmaceutically acceptable salt thereof; optionally in combination with one or more other active agents, for use in increasing survival rate and/or reducing mortality of a patient with or at risk of SIRS and/or sepsis (SIRS / sepsis).
A ram air turbine deployment system comprising: a plunger mechanically configured to move between a first position and a second position ; a turbine defining a rotational axis , the turbine including at least one notch therein configured to receive the plunger ; a bore coupled to the turbine; the plunger being configured to prevent rotation of the turbine; wherein the system further comprises a first bearing contacting at least a portion of an outer surface of the plunger configured to reduce friction produced when the plunger moves between the first positon and the second position, wherein the first bearing is partially housed within the bore ; and wherein the plunger is partially housed within the bore; and wherein the first bearing is a linear bearing located within the bore between an inner surface of the bore and an outer surface of the plunger. a plunger mechanically configured to move between a first position and a second position ; a turbine defining a rotational axis , the turbine including at least one notch therein configured to receive the plunger ; a bore coupled to the turbine; the plunger being configured to prevent rotation of the turbine; wherein the system further comprises a first bearing contacting at least a portion of an outer surface of the plunger configured to reduce friction produced when the plunger moves between the first positon and the second position, wherein the first bearing is partially housed within the bore ; and wherein the plunger is partially housed within the bore; and wherein the first bearing is a linear bearing located within the bore between an inner surface of the bore and an outer surface of the plunger.
A connector for coaxial cables, comprising a head to connect with an implementation device and a tubular body provided with an inner thread for threaded coupling on a coaxial cable to be connected, characterised in that : the body incorporates on the outer portion one or more formations by way of fins that extend longitudinally with respect to said body ; and the formations by way of fins are made of the same material as the connector and are formed together with it. the body incorporates on the outer portion one or more formations by way of fins that extend longitudinally with respect to said body ; and the formations by way of fins are made of the same material as the connector and are formed together with it.
A method for replacing a first sensor with a second sensor in a field device system configured to determine a process variable, each of the first and second sensor being provided with near field communication, NFC, functionality, the method comprising: connecting the second sensor to an initiation device and initiating the second sensor based on information uniquely identifying the first sensor; disconnecting the second sensor from the initiation device; placing the second sensor in the vicinity of the first sensor so that NFC-communication is enabled; with the first sensor being connected to a power source and the second sensor not being connected to an external power source, communicatively connecting the first sensor to the second sensor via NFC and transferring settings from the first sensor to the second sensor; replacing the first sensor of the field device system with the second sensor; connecting the first sensor to the initiation device; and transferring a verification from the first sensor to the initiation device confirming that the transfer of settings from the first sensor to the second sensor was completed. connecting the second sensor to an initiation device and initiating the second sensor based on information uniquely identifying the first sensor; disconnecting the second sensor from the initiation device; placing the second sensor in the vicinity of the first sensor so that NFC-communication is enabled; with the first sensor being connected to a power source and the second sensor not being connected to an external power source, communicatively connecting the first sensor to the second sensor via NFC and transferring settings from the first sensor to the second sensor; replacing the first sensor of the field device system with the second sensor; connecting the first sensor to the initiation device; and transferring a verification from the first sensor to the initiation device confirming that the transfer of settings from the first sensor to the second sensor was completed.
A method for performing nuclear magnetic resonance spectroscopy, the method comprising the steps of: - positioning a sample in a homogeneous stationary magnetic field directed along an axis; - preparing nuclei in at least a predetermined volume of said sample for resonant emission of an NMR signal and creating said NMR signal, in which said preparing and creating comprises irradiating said sample with at least one radio-frequency excitation pulse in accordance with an MRI sequence preparation module and/or an MRI sequence evolution module; and - sensing said NMR signal in the absence of frequency encoding magnetic field gradients such that analysis of said NMR signal yields a chemical shift spectrum from said nuclei; characterized in that , during said sensing , a plurality of intermittently blipped phase gradient pulses are applied to incrementally shift a position in k-space such that different time segments of said NMR signal, demarcated by said blipped phase gradient pulses, correspond to different predetermined locations in k-space wherein a Fourier transform is applied to said time segments, or to extrapolated NMR signals, of both k-space and time domain dimensions, to provide chemical species spectra as function of spatial location in the sample, wherein, if the Fourier transform is applied to said extrapolated NMR signals, the extrapolated NMR signals are obtained by performing a signal processing step to each of said different time segments of said NMR signal for extending said time segments in time over at least half of the time interval as said NMR signal was sensed. - positioning a sample in a homogeneous stationary magnetic field directed along an axis; - preparing nuclei in at least a predetermined volume of said sample for resonant emission of an NMR signal and creating said NMR signal, in which said preparing and creating comprises irradiating said sample with at least one radio-frequency excitation pulse in accordance with an MRI sequence preparation module and/or an MRI sequence evolution module; and - sensing said NMR signal in the absence of frequency encoding magnetic field gradients such that analysis of said NMR signal yields a chemical shift spectrum from said nuclei;
Large manipulator , in particular truck-mounted concrete pump, with a turntable which can be rotated about a vertical axis by means of a rotary drive and which is arranged on a chassis , an articulated boom which comprises two or more boom segments , wherein the boom segments are connected in a pivotably movable manner by way of articulation joints to the turntable or boom segment which is adjacent in each case by means of one drive each, with a control device for the boom movement which actuates the drives in normal operation, and a boom sensor system for detecting the position of at least one point on the articulated boom or a pivot angle ( φ 1 , φ 2 , φ 3 , φ 4 ) of at least one articulation joint, wherein the control device is set up to limit the speed of the boom movement dependent upon the current output signals of the boom sensor system, characterised in that the drives in an emergency mode are manually controllable, wherein at least one limitation means is provided which in emergency operation limits the speed of movement of at least one of the drives to a fixed maximum value.
An image processing apparatus for detecting a singular portion extending in a predetermined direction from a plurality of pixel signals corresponding to a plurality of pixels of image data, said plurality of pixels being arranged in a two-dimensional manner, comprising: stochastic resonance processing means configured to perform parallel steps (m) in each of which a noise (N) is added and the result is subjected to binarization processing (j), to synthesize the results of the parallel steps and to output the result (J), with regard to each of the plurality of pixel signals (I); and means configured to detect the singular portion based on the output signal value from the stochastic resonance processing means for each of the plurality of pixel signals; characterized in that the stochastic resonance processing means performs the binarization processing on a pixel as a processing target among the plurality of pixels based on the pixel signal of the pixel as the processing target and a pixel signal of a pixel adjacent to the pixel as the processing target in the predetermined direction. stochastic resonance processing means configured to perform parallel steps (m) in each of which a noise (N) is added and the result is subjected to binarization processing (j), to synthesize the results of the parallel steps and to output the result (J), with regard to each of the plurality of pixel signals (I); and means configured to detect the singular portion based on the output signal value from the stochastic resonance processing means for each of the plurality of pixel signals; characterized in that the stochastic resonance processing means performs the binarization processing on a pixel as a processing target among the plurality of pixels based on the pixel signal of the pixel as the processing target and a pixel signal of a pixel adjacent to the pixel as the processing target in the predetermined direction.
A device for measuring and tracking over time the quantity or concentration of a component (C) in a fluid (F), comprising: - a sensor capable of measuring a quantity or concentration of the component (C) in the fluid (F) and providing a quantitative signal for tracking this quantity or concentration over time, - a signal-processing module comprising a low-pass filter of the quantitative tracking signal, - an output interface for providing the filtered quantitative tracking signal, characterized in that the signal-processing module comprises: - an estimator of a value (V) of instantaneous trend of variation of the quantitative tracking signal in a predetermined sliding time window, and - means for adjusting over time a high cutoff frequency of the low-pass filter according to the estimated value (V) of instantaneous trend of variation. - a sensor capable of measuring a quantity or concentration of the component (C) in the fluid (F) and providing a quantitative signal for tracking this quantity or concentration over time, - a signal-processing module comprising a low-pass filter of the quantitative tracking signal, - an output interface for providing the filtered quantitative tracking signal, - an estimator of a value (V) of instantaneous trend of variation of the quantitative tracking signal in a predetermined sliding time window, and - means for adjusting over time a high cutoff frequency of the low-pass filter according to the estimated value (V) of instantaneous trend of variation.
A network regulator comprising a hardware processor and a memory , the hardware processor is configured to: in response to installation within a local network wherein a router assigns network addresses from a first range of addresses to a plurality of client systems [12a-f], impersonate a fictitious device located at a first network address currently assigned to a client system of the plurality of client systems [12a-f]; in response to impersonating the fictitious device and in response to the client system relinquishing the first network address, offer a second network address to the client system , the second network address selected from a second range of addresses; in response to the client system accepting the offer, intercept a request from the client system to access a resource located outside the local network ; and in response to intercepting the request, transmit an indicator of the request to a remote security server for analysis, wherein the security server is configured to determine based on said analysis whether accessing the resource constitutes a computer security threat to the client system . in response to installation within a local network wherein a router assigns network addresses from a first range of addresses to a plurality of client systems [12a-f], impersonate a fictitious device located at a first network address currently assigned to a client system of the plurality of client systems [12a-f]; in response to impersonating the fictitious device and in response to the client system relinquishing the first network address, offer a second network address to the client system , the second network address selected from a second range of addresses; in response to the client system accepting the offer, intercept a request from the client system to access a resource located outside the local network ; and in response to intercepting the request, transmit an indicator of the request to a remote security server for analysis, wherein the security server is configured to determine based on said analysis whether accessing the resource constitutes a computer security threat to the client system .