mhurhangee/patent-ind-claim-en huggingface dataset:
A device for dispensing clip-type components (A) intended in particular for part assembly, comprising: - a main store for bulk storage of said components, - a tray for temporary storage of components (A) extracted from the main store configured to temporarily store the components (A) waiting to be transferred out of the device , said tray being mounted in reciprocating translation according to at least one longitudinal direction (D) so as to be able to agitate said temporarily stored components (A) and promote positioning thereof inside said tray according to at least one predetermined stable position (P1, P2) related to their shape, - an optical detection system configured to detect, among the components (A) temporarily stored inside the temporary storage tray , those having said predetermined stable position (P1, P2), - a transfer system configured to transfer, individually or in groups, the components (A) having said predetermined stable position (P1, P2) to a downstream processing area located outside the device , - an electronic control unit in electronic connection with the optical detection system and the transfer system , said unit being configured to control the transfer system in particular as a function of detection signals received from the optical detection system , characterized in that the temporary storage tray is provided with a series of individual housings , each of said housings being configured to receive one single component (A) according to said predetermined stable position (P1, P2). - a main store for bulk storage of said components, - a tray for temporary storage of components (A) extracted from the main store configured to temporarily store the components (A) waiting to be transferred out of the device , said tray being mounted in reciprocating translation according to at least one longitudinal direction (D) so as to be able to agitate said temporarily stored components (A) and promote positioning thereof inside said tray according to at least one predetermined stable position (P1, P2) related to their shape, - an optical detection system configured to detect, among the components (A) temporarily stored inside the temporary storage tray , those having said predetermined stable position (P1, P2), - a transfer system configured to transfer, individually or in groups, the components (A) having said predetermined stable position (P1, P2) to a downstream processing area located outside the device , - an electronic control unit in electronic connection with the optical detection system and the transfer system , said unit being configured to control the transfer system in particular as a function of detection signals received from the optical detection system ,
An air duct component for a cross-flow impeller , the air duct component comprising a first volute member and a second volute member , wherein the first volute member and the second volute member are oppositely arranged in a cross section perpendicular to an axis of the cross-flow impeller , so as to form a cross-flow air duct between the first volute member and the second volute member , in an axial direction of the cross-flow impeller , the cross-flow air duct comprises a middle air duct section and two end air duct sections located at two ends of the middle air duct section ; wherein an inner end of the first volute member comprises a volute tongue , drawing a vertical line towards the second volute member through the volute tongue in the cross section, a part of the middle air duct section located downstream of the vertical line is a middle air outlet duct , a part of the end air duct section located downstream of the vertical line is an end air outlet duct , a cross-sectional area S1 of the middle air outlet duct is larger than a cross-sectional area S2 of the end air outlet duct , characterized in that , a part of the volute tongue corresponding to the middle air duct section is a middle volute tongue section , a part of the volute tongue corresponding to the end air duct section is an end volute tongue section , wherein a minimum gap between the middle volute tongue section and the cross-flow impeller is T1, a minimum gap between the end volute tongue section and the cross-flow impeller is T2, T2>T1. wherein an inner end of the first volute member comprises a volute tongue , drawing a vertical line towards the second volute member through the volute tongue in the cross section, a part of the middle air duct section located downstream of the vertical line is a middle air outlet duct , a part of the end air duct section located downstream of the vertical line is an end air outlet duct , a cross-sectional area S1 of the middle air outlet duct is larger than a cross-sectional area S2 of the end air outlet duct , characterized in that , a part of the volute tongue corresponding to the middle air duct section is a middle volute tongue section , a part of the volute tongue corresponding to the end air duct section is an end volute tongue section , wherein a minimum gap between the middle volute tongue section and the cross-flow impeller is T1, a minimum gap between the end volute tongue section and the cross-flow impeller is T2, T2>T1.
A system , comprising: a radiant source characterized by an average excitation wavelength; a sample disposed to receive radiation from the radiant source, the sample comprising: a first dye; a second dye; and a detector configured to measure emissions from the sample; a first emission spectral element characterized by a first average emission wavelength; a second emission spectral element characterized by a second average emission wavelength that is different than the first average emission wavelength; at least one processor comprising at least one memory including instructions to: illuminate the sample with the radiant source and, in response, measure emissions from the sample using the detector and the first emission spectral element and measure emissions from the sample using the detector and the second emission spectral element, wherein at least one of the dyes is an off-axis dye, an "off-axis dye" being a dye having a first maximum absorption or excitation wavelength that is an absolute maximum over an entire spectrum of the dye and having a second maximum absorption or excitation wavelengths that is a local maximum and is separated from the first maximum absorption or excitation wavelength by at least 60 nanometers, wherein the radiant source is characterized by electromagnetic radiation within the visible light range, near infrared range, infrared range, or ultraviolet range. a radiant source characterized by an average excitation wavelength; a sample disposed to receive radiation from the radiant source, the sample comprising: a first dye; a second dye; and a detector configured to measure emissions from the sample; a first emission spectral element a first dye; a second dye; and a detector configured to measure emissions from the sample; a first emission spectral element characterized by a first average emission wavelength; a second emission spectral element characterized by a second average emission wavelength that is different than the first average emission wavelength; at least one processor comprising at least one memory including instructions to: illuminate the sample with the radiant source and, in response, measure emissions from the sample using the detector and the first emission spectral element and measure emissions from the sample using the detector and the second emission spectral element, wherein at least one of the dyes is an off-axis dye, an "off-axis dye" being a dye having a first maximum absorption or excitation wavelength that is an absolute maximum over an entire spectrum of the dye and having a second maximum absorption or excitation wavelengths that is a local maximum and is separated from the first maximum absorption or excitation wavelength by at least 60 nanometers, wherein the radiant source is characterized by electromagnetic radiation within the visible light range, near infrared range, infrared range, or ultraviolet range.
A lifting mechanism for separating a sealing plate from a tank body of a tank, the lifting mechanism comprising: a pin inserted into a flange of the tank body and extending through the sealing plate ; a threaded device coupled to the sealing plate , wherein the pin is positioned at a diameter from a centerline of the tank body that is less than an outer diameter from the centerline of the tank body , the lifting mechanism characterized in that the threaded device selectively contacts the pin to apply a pushing force in response to the threaded device being inserted into the sealing plate . a pin inserted into a flange of the tank body and extending through the sealing plate ; a threaded device coupled to the sealing plate , wherein the pin is positioned at a diameter from a centerline of the tank body that is less than an outer diameter from the centerline of the tank body , the lifting mechanism characterized in that the threaded device selectively contacts the pin to apply a pushing force in response to the threaded device being inserted into the sealing plate .
Process for preparing a foam (FA) with a Poisson's ratio in the range of from -0.8 to 0.3 comprising the steps (i) and (ii): (i) providing a foam (F1) with a flow resistance in the range of from 3000 to 8000 Pas/m 2 , determined according to DIN EN 29053, (ii) subjecting the foam (F1) to thermoforming comprising triaxial compression, wherein the foam (F1) is not reticulated prior to step (ii). (i) providing a foam (F1) with a flow resistance in the range of from 3000 to 8000 Pas/m 2 , determined according to DIN EN 29053, (ii) subjecting the foam (F1) to thermoforming comprising triaxial compression,
Apparatus for performing renal neuromodulation of a patient, the apparatus comprising: an electric field generator ; a first element configured for placement within a first vessel of the patient, the first element comprising a first electrode electrically coupled to the electric field generator; and a second element configured for placement within a second vessel of the patient that is different than the first vessel, the second element comprising a second electrode electrically coupled to the electric field generator, wherein the apparatus is configured for delivery of an electric field between the first electrode and the second electrode to modulate a neural fiber that contributes to renal function while the first element is located within the first vessel and the second element is located within the second vessel, wherein either the first vessel is a first branch vessel off a renal artery (RA) and the second vessel is a second branch vessel off a renal artery (RA), or wherein the first vessel is a renal artery (RA) and the second vessel is a renal vein (RV). an electric field generator ; a first element configured for placement within a first vessel of the patient, the first element comprising a first electrode electrically coupled to the electric field generator; and a second element configured for placement within a second vessel of the patient that is different than the first vessel, the second element comprising a second electrode electrically coupled to the electric field generator, wherein the apparatus is configured for delivery of an electric field between the first electrode and the second electrode to modulate a neural fiber that contributes to renal function while the first element is located within the first vessel and the second element is located within the second vessel, wherein either the first vessel is a first branch vessel off a renal artery (RA) and the second vessel is a second branch vessel off a renal artery (RA), or wherein the first vessel is a renal artery (RA) and the second vessel is a renal vein (RV).
A method for managing a frequency spectrum in a wavelength division multiplexing, WDM, network comprising: adjusting a frequency offset between individual carriers, for each individual carrier, depending on performance characteristics of the individual carriers, wherein a frequency offset between neighboring individual carriers is adjusted for each carrier individually depending on the performance characteristic of the individual carrier and on the performance characteristics of respective neighboring carriers the method being characterized in that the WDM network comprises a ring network and/or a mesh network, wherein the WDM network comprises a plurality of reconfigurable optical add-drop multiplexers , ROADMs, and wherein a frequency offset between carriers and passband frequency ranges of carriers are adjusted individually in incremental steps during a setup and/or during operation of said WDM network depending on the performance characteristics of the individual carriers. adjusting a frequency offset between individual carriers, for each individual carrier, depending on performance characteristics of the individual carriers, wherein a frequency offset between neighboring individual carriers is adjusted for each carrier individually depending on the performance characteristic of the individual carrier and on the performance characteristics of respective neighboring carriers the method being characterized in that the WDM network comprises a ring network and/or a mesh network, wherein the WDM network comprises a plurality of reconfigurable optical add-drop multiplexers , ROADMs, and wherein a frequency offset between carriers and passband frequency ranges of carriers are adjusted individually in incremental steps during a setup and/or during operation of said WDM network depending on the performance characteristics of the individual carriers.
Apparatus for hydrodynamic cavitation generation, comprising - a vacuum pipe mounted on a vibration plate , the vibration plate connected to four springs and to two electric vibrators for generating vertical oscillations of the vacuum pipe , - a valve input at the right end of the vacuum pipe for feeding a liquid into the vacuum pipe , - a valve output at the left end of the vacuum pipe for conducting the liquid out of the vacuum pipe , - a metering valve with a control at the right end of the vacuum pipe for controlling the amount of liquid introduced into the vacuum pipe , and - a fluid pump at the left end of the vacuum pipe for pumping the liquid. - a vacuum pipe mounted on a vibration plate , the vibration plate connected to four springs and to two electric vibrators for generating vertical oscillations of the vacuum pipe , - a valve input at the right end of the vacuum pipe for feeding a liquid into the vacuum pipe , - a valve output at the left end of the vacuum pipe for conducting the liquid out of the vacuum pipe , - a metering valve with a control at the right end of the vacuum pipe for controlling the amount of liquid introduced into the vacuum pipe , and - a fluid pump at the left end of the vacuum pipe for pumping the liquid.
A hydrogel particle that has an average cross-sectional diameter in the range from 3 micrometer (μm) to 1000 μm, wherein the particle comprises a first polymer network with an average mesh size that allows diffusion of a molecule with an hydrodynamic radius of 1000 nanometer (nm) or less into the first polymer network and which particle comprises a binding molecule that is immobilized by the polymer network, and which binding molecule binds a molecule with hydrodynamic radius of 1000 nanometer (nm) or less, wherein the hydrogel comprises a dextran-tyramine hydrogel; a hyaluronic acid-tyramine hydrogel; a PEG-tyramine hydrogel or a combination thereof, wherein the mesh size is determined according to the description, wherein the average cross-sectional diameter of the particle is measured, after incubation in a physiological aqueous saline solution being phosphate-buffered saline at pH7.4 until the hydrogel diameter has reached equilibrium, by microscopy in combination with digital image analysis, and wherein the hydrodynamic radius of the molecule is determined using dynamic light scattering (DLS) as according to Stetefeld et al, Biophys Rev. 2016 Dec; 8 : 409-427. wherein the average cross-sectional diameter of the particle is measured, after incubation in a physiological aqueous saline solution being phosphate-buffered saline at pH7.4 until the hydrogel diameter has reached equilibrium, by microscopy in combination with digital image analysis, and wherein the hydrodynamic radius of the molecule is determined using dynamic light scattering (DLS) as according to Stetefeld et al, Biophys Rev. 2016 Dec; 8 : 409-427.
An image processing apparatus comprising: a storage ; a controller configured to detect an image of an object from a captured image of at least one of a surrounding area and an inside of a moveable body, store a newly detected state of the object by including the newly detected state in a state history of the object stored in the storage , and determine an action of the moveable body based on the state history stored in the storage ; and an output interface configured to output to the moveable body information with an instruction to perform the action of the moveable body, characterized in that the controller is configured to update, when a state assumed to occur next by the history used to determine an action of the movable body and a newly detected state differ, an action to take associated with the history to an action to take for the assumed state. a storage ; a controller configured to detect an image of an object from a captured image of at least one of a surrounding area and an inside of a moveable body, store a newly detected state of the object by including the newly detected state in a state history of the object stored in the storage , and determine an action of the moveable body based on the state history stored in the storage ; and an output interface configured to output to the moveable body information with an instruction to perform the action of the moveable body, characterized in that the controller is configured to update, when a state assumed to occur next by the history used to determine an action of the movable body and a newly detected state differ, an action to take associated with the history to an action to take for the assumed state.
A cleaning device comprising a housing , which can be arranged on a feed line for cleaning fluid (RF) and which has an exit opening arranged lying opposite the feed line , wherein a nozzle head , which is rotatable about a first rotary axis (D1), is arranged at the exit opening , characterised in that a distributing device rotating about a second rotary axis (D2), which second rotary axis (D2) is different from the first rotary axis (D1), and having at least one blade element or at least one pendulum element is arranged on the rotatable nozzle head .
Use of dithio-2,2'-bis(benzmethylamide) for degrading 5-chloro-2-methyl-4-isothiazolin-3-one comprising contacting 5-chloro-2-methyl-4-isothiazolin-3-one with dithio-2,2'-bis(benzmethylamide) wherein after the 5-chloro-2-methyl-4-isothiazolin-3-one is contacted with dithio-2,2'-bis(benzmethylamide), 5-chloro-2-methyl-4-isothiazolin-3-one is present in an amount from 0 to 1.0 ppm.
An apparatus for applying electrical potentials to an electrochromic device and configured to electrochromically switch the electrochromic device , the apparatus comprising a photosensor , an electrochromic device , a power source and a controller , where the electrochromic device comprises a first electrode comprising a cathodically coloring conducting polymeric material, a second electrode comprising an anodically coloring conducting polymeric material, and an electrolyte disposed between and in electrochemical communication with the first and second electrode , wherein the photosensor is configured to receive light and convert such light to a photosensor potential; and the controller is in electrical communication with the photosensor and the electrochromic device , the controller configured to deliver a continuous voltage that is pulsed to the electrochromic device in response to the photosensor potential, the continuous voltage being the operating voltage and being sufficient to electrochromically switch the electrochromic device , the continuous voltage being pulsed according to a pulse sequence, the pulse sequence comprising applying at least one overpotential for less than about 0.5 seconds and then applying an operating potential for less than about 0.5 seconds, wherein the overpotential is greater in magnitude than the operating potential, wherein the at least one overpotential comprises a plurality of overpotentials, and wherein the delivery of the continuous voltage to the first and second electrode is halted once a selected transmittance state of the electrochromic device is reached based on the level of light incident on the photosensor; wherein the cathodically coloring conducting polymeric material comprises a substituted or unsubstituted 2,2-dibenzyl-3,4-propylenedioxythiophene monomer.
A dual-motor hybrid power system for a vehicle, the dual-motor hybrid power system comprising a single synchronizer , wherein the dual-motor hybrid power system further comprises: a first motor ; a second motor ; a first driving shaft configured to be turned by the first motor ; a second driving shaft configured to be turned by the second motor and disposed to be coaxial with the first driving shaft , the single synchronizer being disposed around the second driving shaft between the first motor and the second motor ; an engine disposed to be coupled with the second driving shaft via a clutch ; an intermediate shaft disposed to be parallel with the first driving shaft and the second driving shaft ; a first gear set disposed between the first driving shaft and the intermediate shaft and having a first speed-reducing ratio, wherein the first driving shaft is continuously coupled with the intermediate shaft via the first gear set ; a second gear set having a second speed-reducing ratio; a differential driven by the intermediate shaft ; and a first sleeve coupled to the first driving shaft , wherein the synchronizer is configured to be switched between a neutral position, a first-speed-ratio position, and a second-speed-ratio position, wherein in the neutral position, the second driving shaft is decoupled from the first gear set and the second gear set , wherein, in the first-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the first gear set , and wherein, in the second-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the second gear set . a first motor ; a second motor ; a first driving shaft configured to be turned by the first motor ; a second driving shaft configured to be turned by the second motor and disposed to be coaxial with the first driving shaft , the single synchronizer being disposed around the second driving shaft between the first motor and the second motor ; an engine disposed to be coupled with the second driving shaft via a clutch ; an intermediate shaft disposed to be parallel with the first driving shaft and the second driving shaft ; a first gear set disposed between the first driving shaft and the intermediate shaft and having a first speed-reducing ratio, wherein the first driving shaft is continuously coupled with the intermediate shaft via the first gear set ; a second gear set having a second speed-reducing ratio; a differential driven by the intermediate shaft ; and a first sleeve coupled to the first driving shaft , wherein the synchronizer is configured to be switched between a neutral position, a first-speed-ratio position, and a second-speed-ratio position, wherein in the neutral position, the second driving shaft is decoupled from the first gear set and the second gear set , wherein, in the first-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the first gear set , and wherein, in the second-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the second gear set .