mhurhangee/ep-ind-claims huggingface dataset:
A coaxial gear, comprising - an axially oriented tooth system with respect to a rotational axis of the coaxial gear, - a tooth carrier having axially oriented guideways, - tooth pins received within the guideways for engaging with the tooth system, wherein the tooth pins are axially oriented within the guideways by their respective longitudinal axes and are mounted within the guideways in an axially displaceable manner, and - a cam disc rotatable about the rotational axis for axially driving the tooth pins, - characterized in that a plurality of bearing segments is disposed between the cam disc and the tooth pins for bearing the tooth pins, and - wherein, on a side facing the tooth pins, the bearing segments have an elevation formed as a spherical cap for bearing the respective tooth pin. - an axially oriented tooth system with respect to a rotational axis of the coaxial gear, - a tooth carrier having axially oriented guideways, - tooth pins received within the guideways for engaging with the tooth system, wherein the tooth pins are axially oriented within the guideways by their respective longitudinal axes and are mounted within the guideways in an axially displaceable manner, and - a cam disc rotatable about the rotational axis for axially driving the tooth pins, - characterized in that a plurality of bearing segments is disposed between the cam disc and the tooth pins for bearing the tooth pins, and - wherein, on a side facing the tooth pins, the bearing segments have an elevation formed as a spherical cap for bearing the respective tooth pin.
A composition comprising: a polymer base resin; from 10 wt.% to 60 wt.% of a fiber filler comprising a sizing component comprising a sizing agent and a reactive aid comprising a diisocyanate compound which comprises hexamethylene diisocyanate, wherein the sizing component is present as a coating on the fiber filler, and wherein the sizing component is present in an amount of from 0.1 wt.% to 2 wt.% based on the weight of the fiber filler, and the reactive aid comprising the diisocyanate compound is present in an amount of from 1 wt.% to 30 wt.% based on the weight of the sizing component; and an additive. a polymer base resin; from 10 wt.% to 60 wt.% of a fiber filler comprising a sizing component comprising a sizing agent and a reactive aid comprising a diisocyanate compound which comprises hexamethylene diisocyanate, wherein the sizing component is present as a coating on the fiber filler, and wherein the sizing component is present in an amount of from 0.1 wt.% to 2 wt.% based on the weight of the fiber filler, and the reactive aid comprising the diisocyanate compound is present in an amount of from 1 wt.% to 30 wt.% based on the weight of the sizing component; and an additive.
A honeycomb structure comprising a thermoplastic resin composition containing a polyamide and a modified polyolefin, wherein: the polyamide comprises a diamine unit that contains a xylylenediamine unit for 70 mol% or more and a dicarboxylic acid unit that contains an α,ω-linear aliphatic dicarboxylic acid unit with a carbon number of 4-20 for 50 mol% or more; the modified polyolefin is a polyolefin having a reactive functional group that is selected from an epoxy group, an acid anhydride group, an amino group, a cyanate group, a carboxyl group and a combination thereof; and the blending ratio of polyamide /modified polyolefin is in a range of 100/15-70 on a mass basis. the polyamide comprises a diamine unit that contains a xylylenediamine unit for 70 mol% or more and a dicarboxylic acid unit that contains an α,ω-linear aliphatic dicarboxylic acid unit with a carbon number of 4-20 for 50 mol% or more; the modified polyolefin is a polyolefin having a reactive functional group that is selected from an epoxy group, an acid anhydride group, an amino group, a cyanate group, a carboxyl group and a combination thereof; and the blending ratio of polyamide /modified polyolefin is in a range of 100/15-70 on a mass basis.
A compound of Formula I: and pharmaceutically acceptable hydrates, solvates, enantiomers, and stereoisomers thereof for use in treatment of xerostomia, dry mouth and dry mouth in Sjögren's syndrome; Wherein, RH independently represents omega 3 fatty acids, omega 6 fatty acids, alpha lipoic acid or R-lipoic acid. and pharmaceutically acceptable hydrates, solvates, enantiomers, and stereoisomers thereof for use in treatment of xerostomia, dry mouth and dry mouth in Sjögren's syndrome; Wherein, RH independently represents omega 3 fatty acids, omega 6 fatty acids, alpha lipoic acid or R-lipoic acid.
A system configured to correlate grip pressure and action quality, the system comprising: a grip pressure sensor positionable, in use, on a tool configured to be gripped by a user; an action quality sensor positionable, in use, on the tool or the user, the action quality sensor configured to measure a quality of an action of the user with said tool; and a processor configured to: receive action quality data from the action quality sensor; determine information related to the occurrence of said action including a motion of the tool; receive pressure data from the grip pressure sensor, the pressure data related to the pressure of the user's grip on the tool during the action; determine a correlation between the pressure data and the action quality data such that a relationship between the user's grip on the tool during the action and a quality of the action is inferred; and output a first indicator corresponding to the correlation between the pressure data and the action quality data. a grip pressure sensor positionable, in use, on a tool configured to be gripped by a user; an action quality sensor positionable, in use, on the tool or the user, the action quality sensor configured to measure a quality of an action of the user with said tool; and a processor configured to: receive action quality data from the action quality sensor; determine information related to the occurrence of said action including a motion of the tool; receive pressure data from the grip pressure sensor, the pressure data related to the pressure of the user's grip on the tool during the action; determine a correlation between the pressure data and the action quality data such that a relationship between the user's grip on the tool during the action and a quality of the action is inferred; and output a first indicator corresponding to the correlation between the pressure data and the action quality data. receive action quality data from the action quality sensor; determine information related to the occurrence of said action including a motion of the tool; receive pressure data from the grip pressure sensor, the pressure data related to the pressure of the user's grip on the tool during the action; determine a correlation between the pressure data and the action quality data such that a relationship between the user's grip on the tool during the action and a quality of the action is inferred; and output a first indicator corresponding to the correlation between the pressure data and the action quality data.
Rotatable inspection device for inspection of the integrity of an axisymmetric portion of parts, for example a threaded tube, said inspection device including a measuring unit configured to be rotated about the symmetry axis of the axisymmetric portion, the measuring unit comprising: - a radially movable measuring structure comprising a defect detection sensor, - an electronic device for processing and transmitting the signal measured by the defect detection sensor along said portion, and - a measuring unit support supporting the radially movable measuring structure, wherein the electronic device is configured to wirelessly transmit the processed signal to a remote monitoring unit. characterized in that said measuring structure is configured to urge the defect detection sensor to press against said portion to be inspected. - a radially movable measuring structure comprising a defect detection sensor, - an electronic device for processing and transmitting the signal measured by the defect detection sensor along said portion, and - a measuring unit support supporting the radially movable measuring structure, wherein the electronic device is configured to wirelessly transmit the processed signal to a remote monitoring unit. characterized in that said measuring structure is configured to urge the defect detection sensor to press against said portion to be inspected.
A method, comprising: determining a predicted time of a request to be made by a device for an item of content to be delivered over a data connection; determining, based on the predicted time of the request, a predicted consumption timeframe of when the item of content would be sent over the data connection for real time consumption in response to the request; determining a predicted data connection quality of the data connection over time; determining, based on the predicted data connection quality, a predicted timeframe of insufficient data connection quality when the predicted data connection quality will be below a threshold value for real-time consumption of the item of content over the data connection; determining a part of the item of content whose predicted consumption timeframe coincides with the predicted timeframe of insufficient data connection quality; pre-delivering the part of the item of content to the device prior to the predicted time of the request; receiving the request for the item of content; and streaming a remaining part of the item of content for real-time consumption after the request is received. determining a predicted time of a request to be made by a device for an item of content to be delivered over a data connection; determining, based on the predicted time of the request, a predicted consumption timeframe of when the item of content would be sent over the data connection for real time consumption in response to the request; determining a predicted data connection quality of the data connection over time; determining, based on the predicted data connection quality, a predicted timeframe of insufficient data connection quality when the predicted data connection quality will be below a threshold value for real-time consumption of the item of content over the data connection; determining a part of the item of content whose predicted consumption timeframe coincides with the predicted timeframe of insufficient data connection quality; pre-delivering the part of the item of content to the device prior to the predicted time of the request; receiving the request for the item of content; and streaming a remaining part of the item of content for real-time consumption after the request is received.
A regenerative laser amplifier for amplifying seed light coupled in by means of an external seed laser, and which is designed to produce pulses having a single-pulse individually adjustable pulse duration, having - a resonator chamber, - a polarization-dependent outlet component (13; 23; 33; 32A) designed to decouple radiation from the resonator chamber, - at least one Pockel cell which can be controlled and is arranged in the resonator chamber, wherein by activating the at least one Pockel cell, radiation in the resonator chamber can be polarized such that the radiation can be decoupled from the resonator chamber by the polarization-dependent outlet component (13; 23; 33, 32A), and - a polarization-dependent resonator path (PR-1; PR-2; PR-3) having an optically dispersive element (15; 25; 35) arranged in the resonator chamber and configured such that radiation in the resonator chamber, as a function of its polarization which can be controlled by the at least one Pockel cell, either - passes through the polarization-dependent resonator path (PR-1; PR-2; PR-3) under the effect of a first interaction with the optically dispersive element (15; 25; 35), or - passes through the polarization-dependent resonator path (PR-1; PR-2; PR-3) without interaction or under the effect of a reduced interaction of the same type as the first interaction with the optically dispersive element (15; 25; 35); wherein the optically dispersive element (15, 25; 35) is configured such that the first interaction of the optically dispersive element (15, 25; 35) with the radiation modifies the pulse duration of the radiation. - a resonator chamber, - a polarization-dependent outlet component (13; 23; 33; 32A) designed to decouple radiation from the resonator chamber, - at least one Pockel cell which can be controlled and is arranged in the resonator chamber, wherein by activating the at least one Pockel cell, radiation in the resonator chamber can be polarized such that the radiation can be decoupled from the resonator chamber by the polarization-dependent outlet component (13; 23; 33, 32A), and - a polarization-dependent resonator path (PR-1; PR-2; PR-3) having an optically dispersive element (15; 25; 35) arranged in the resonator chamber and configured such that radiation in the resonator chamber, as a function of its polarization which can be controlled by the at least one Pockel cell, either - passes through the polarization-dependent resonator path (PR-1; PR-2; PR-3) under the effect of a first interaction with the optically dispersive element (15; 25; 35), or - passes through the polarization-dependent resonator path (PR-1; PR-2; PR-3) without interaction or under the effect of a reduced interaction of the same type as the first interaction with the optically dispersive element (15; 25; 35); wherein the optically dispersive element (15, 25; 35) is configured such that the first interaction of the optically dispersive element (15, 25; 35) with the radiation modifies the pulse duration of the radiation.
Pulsatile medical device (101; 201; 301; 401; 501) placed between the body of a patient and a heart-lung machine of CEC type, enabling the circulation of a blood flow characterised in that it comprises: - an aortic cannula; - an external tube presenting an inner wall, an outer wall and two ends (6, 7), one end designed to be connected to a heart-lung machine and one end designed to be connected to the body of the patient by way of the said aortic cannula; - an inner tube (103; 203; 303) inserted in said outer tube, presenting an inner wall, an outer wall and two ends (110, 111; 210, 211; 310, 311) attached, along their entire periphery, to the outer tube, along its entire periphery, the blood flow circulating through said inner tube (103; 203; 303); the inner tube being compressible, flexible; - the outer wall of the inner tube (103; 203; 303) and the inner wall of the outer tube defining a space designed to be filled with fluid, said space able to be connected by a connecting port to a device enabling the creation of inflation(s)/deflation(s) of said space provoking the creation of pulse (s) of blood flow; in that said connecting port is connected to said space by means of at least two openings on said outer tube and at least two diametrically opposite positions, and in that a valve (14A, 14B) is attached to one or two ends (310, 311) of said inner tube. - an aortic cannula; - an external tube presenting an inner wall, an outer wall and two ends (6, 7), one end designed to be connected to a heart-lung machine and one end designed to be connected to the body of the patient by way of the said aortic cannula; - an inner tube (103; 203; 303) inserted in said outer tube, presenting an inner wall, an outer wall and two ends (110, 111; 210, 211; 310, 311) attached, along their entire periphery, to the outer tube, along its entire periphery, the blood flow circulating through said inner tube (103; 203; 303); the inner tube being compressible, flexible; - the outer wall of the inner tube (103; 203; 303) and the inner wall of the outer tube defining a space designed to be filled with fluid, said space able to be connected by a connecting port to a device enabling the creation of inflation(s)/deflation(s) of said space provoking the creation of pulse (s) of blood flow; in that said connecting port is connected to said space by means of at least two openings on said outer tube and at least two diametrically opposite positions, and in that a valve (14A, 14B) is attached to one or two ends (310, 311) of said inner tube.
A lead-acid rechargeable battery comprising: an electrolyte; a positive plate with a positive electrode grid of a Pb-Ca alloy; a negative electrode plate with a negative electrode grid of a Pb-Ca alloy, wherein the negative electrode plate is arranged such that an electrode surface of the negative electrode plate may initially be entirely soaked by the electrolyte; a separator formed of a fibrous mat; and a negative electrode strap collectively welding an ear portion of the negative electrode plate, wherein the negative electrode strap is formed of a Pb-Sn alloy, and a control valve section (21, 41, 61) installed inside a cylindrical body of a liquid-inlet cap provided in a battery casing, the control valve section (21, 41, 61) being arranged such that the control valve section may open in response to an internal pressure of the battery and such that when the control valve section is closed, the control valve section prevents oxygen from flowing from the outside of the battery to the inside of the battery. an electrolyte; a positive plate with a positive electrode grid of a Pb-Ca alloy; a negative electrode plate with a negative electrode grid of a Pb-Ca alloy, wherein the negative electrode plate is arranged such that an electrode surface of the negative electrode plate may initially be entirely soaked by the electrolyte; a separator formed of a fibrous mat; and a negative electrode strap collectively welding an ear portion of the negative electrode plate, wherein the negative electrode strap is formed of a Pb-Sn alloy, and a control valve section (21, 41, 61) installed inside a cylindrical body of a liquid-inlet cap provided in a battery casing, the control valve section (21, 41, 61) being arranged such that the control valve section may open in response to an internal pressure of the battery and such that when the control valve section is closed, the control valve section prevents oxygen from flowing from the outside of the battery to the inside of the battery.
A method to detect one or more environmental conditions in proximity to a surface, comprising: activating an environmental sensor module (110;210:710) proximate the surface, wherein the environmental sensor comprises an electrically resonant structure having a resonance frequency which varies in response to changes in at least one of: a humidity proximate the sensor module; a temperature proximate the sensor module; or the presence of a chemical or biological agent proximate the sensor module; wherein the environmental sensor module (110;210;710) comprises a local oscillator circuit, the electrically resonant structure modulating a local oscillator frequency generated by the local oscillator circuit; generating, in the environmental sensor module, an electromagnetic signal which comprises information about the resonance frequency, the electromagnetic signal being generated at a carrier frequency plus the local oscillator frequency; transmitting the electromagnetic signal; receiving, in a remote receiver, the electromagnetic signal comprising the signal generated by the environmental sensor module; and determining an environmental condition from the electromagnetic signal, characterized in that the electrically resonant structure is a metamaterial-based electrically resonant structure. activating an environmental sensor module (110;210:710) proximate the surface, wherein the environmental sensor comprises an electrically resonant structure having a resonance frequency which varies in response to changes in at least one of: a humidity proximate the sensor module; a temperature proximate the sensor module; or the presence of a chemical or biological agent proximate the sensor module; a humidity proximate the sensor module; a temperature proximate the sensor module; or the presence of a chemical or biological agent proximate the sensor module; wherein the environmental sensor module (110;210;710) comprises a local oscillator circuit, the electrically resonant structure modulating a local oscillator frequency generated by the local oscillator circuit; generating, in the environmental sensor module, an electromagnetic signal which comprises information about the resonance frequency, the electromagnetic signal being generated at a carrier frequency plus the local oscillator frequency; transmitting the electromagnetic signal; receiving, in a remote receiver, the electromagnetic signal comprising the signal generated by the environmental sensor module; and determining an environmental condition from the electromagnetic signal, characterized in that the electrically resonant structure is a metamaterial-based electrically resonant structure.
A method of distributing information from at least one information distribution server (1, 2) to a plurality of terminals via a network, comprising: receiving an information request generated at a requesting terminal, and determining (20, 30, 40) whether conversion of requested information is necessary based on whether the requested information has a data format that can be utilized by the requesting terminal according to environment information identifying an application executing on the requesting terminal; converting (20, 50) at least a relevant part of the requested information into response information in a type and format that can be utilized by the requesting terminal based on the environment information for the requesting terminal, when it is determined that the conversion of the requested information is necessary; determining (20, 30, 40) whether to perform said converting by using the identification of the application to access an application function management table cross referencing a plurality of registered applications and functions provided by the registered applications, and by transmitting an inquiry to the requesting terminal when the application function management table is unable to determine whether a required function included in the requested information can be performed at the requesting terminal; the method being further characterised by the following steps: sending sample data requiring users of the requesting terminal to perform a certain action to the requesting terminal; and registering the application function management table depending on a response to the sample data from the requesting terminal. receiving an information request generated at a requesting terminal, and determining (20, 30, 40) whether conversion of requested information is necessary based on whether the requested information has a data format that can be utilized by the requesting terminal according to environment information identifying an application executing on the requesting terminal; converting (20, 50) at least a relevant part of the requested information into response information in a type and format that can be utilized by the requesting terminal based on the environment information for the requesting terminal, when it is determined that the conversion of the requested information is necessary; determining (20, 30, 40) whether to perform said converting by using the identification of the application to access an application function management table cross referencing a plurality of registered applications and functions provided by the registered applications, and by transmitting an inquiry to the requesting terminal when the application function management table is unable to determine whether a required function included in the requested information can be performed at the requesting terminal; the method being further characterised by the following steps: sending sample data requiring users of the requesting terminal to perform a certain action to the requesting terminal; and registering the application function management table depending on a response to the sample data from the requesting terminal.