mhurhangee/patent-ind-claim-en huggingface dataset:
A process for separating a fibrous target component from textile waste , said textile waste containing the target component and at least one ancillary component , whereby the target component consists of water-swellable textile fibers with a density higher than the density of water, wherein the ancillary component comprises non-cellulosic man-made fibers that are substantially non-swellable in the aqueous solution, the process comprising the steps: a) dispersing the comminuted textile waste in an aqueous solution to obtain a suspension containing the textile waste , and b) mechanically separating the dispersed textile waste into a high-density target fraction comprising the target component , and a low-density residual fraction comprising the at least one ancillary component , according to the respective density of said components , characterized in that , the aqueous solution is an alkaline aqueous solution and the target component fibers are swelled in the alkaline aqueous solution prior to step b), thereby increasing the density and weight of said target component relative to the density and weight of the ancillary component wherein the density difference between target and ancillary component fibers is increased. a) dispersing the comminuted textile waste in an aqueous solution to obtain a suspension containing the textile waste , and b) mechanically separating the dispersed textile waste into a high-density target fraction comprising the target component , and a low-density residual fraction comprising the at least one ancillary component , according to the respective density of said components ,
Anhydrous liquid composition comprising, preferably in a physiologically acceptable medium: a) an oily phase comprising: i) at least one non-volatile oil and ii) at least one volatile hydrocarbon oil and b) at least one monoalcohol comprising from 2 to 8 carbon atoms and c) at least one lipophilic film-forming polymer chosen from: (i) silicone resins of MQ type, (ii) silsesquioxane resins, (iii) vinyl polymers grafted with a carbosiloxane dendrimer, (iv) their mixtures, and d) at least one particulate material, the said composition comprising at least 30% by weight of non-volatile oil(s) with respect to the total weight of the composition. a) an oily phase comprising: i) at least one non-volatile oil and ii) at least one volatile hydrocarbon oil and i) at least one non-volatile oil and ii) at least one volatile hydrocarbon oil and b) at least one monoalcohol comprising from 2 to 8 carbon atoms and c) at least one lipophilic film-forming polymer chosen from: (i) silicone resins of MQ type, (ii) silsesquioxane resins, (iii) vinyl polymers grafted with a carbosiloxane dendrimer, (iv) their mixtures, and (i) silicone resins of MQ type, (ii) silsesquioxane resins, (iii) vinyl polymers grafted with a carbosiloxane dendrimer, (iv) their mixtures, and d) at least one particulate material, the said composition comprising at least 30% by weight of non-volatile oil(s) with respect to the total weight of the composition.
Method for producing an information sheet of an identity document , said information sheet comprising at least one information layer and a hinge , said hinge being an assembly of bonding layers comprising a hot-melt layer sandwiched between two woven layers having meshes, the hot-melt layer and the woven layers being subjected to at least one laminating step at a laminating temperature so that the hot-melt layer is inserted into the meshes of the woven layers after the laminating step, the hot-melt layer being made of a first material which is deformable and/or meltable at the laminating temperature, the woven layers and/or the hot-melt layer having characteristics enabling a trade-off to be obtained between a satisfactory strength for the hinge and a flexibility for the hinge that allows an identity document incorporating it to maintain a closed state, the method being characterized in that each mesh of the woven layers has a square or rectangular cross section and has a smallest dimension of between 0.23 and 0.26 mm.
Method of fixing, by welding, an interface support on a profile of a vehicle seat slide rail, comprising the steps of: a) providing an interface support having at least one wall with an inner face (F11I, F12I), and providing a slide rail profile having a substantially U-shaped cross-section with a transverse wall interconnecting two side walls , said side walls being substantially parallel to each other and said transverse wall being substantially perpendicular to said side walls , the transverse wall and each side wall having an inner face (F21I, F22I) and an outer face (F21E, F22E), b) positioning the interface support with the inner face (F11I, F12I) of its at least one wall against the outer face (F21E, F22E) of a wall of the profile , c) creating a welding joint between the wall of the interface support and the wall of the profile by moving a laser beam , emitted from an emitting source , relative to the wall of the profile , while keeping the laser beam in a position such that it passes successively through, and in this order from the emitting source : the inner face (F21I, F22I) of said wall of the profile , then the outer face (F21E, F22E) of said wall of the profile , then the inner face (F11I, F12I) of the wall of the interface support , and while remaining within the material of the wall of the interface support . a) providing an interface support having at least one wall with an inner face (F11I, F12I), and providing a slide rail profile having a substantially U-shaped cross-section with a transverse wall interconnecting two side walls , said side walls being substantially parallel to each other and said transverse wall being substantially perpendicular to said side walls , the transverse wall and each side wall having an inner face (F21I, F22I) and an outer face (F21E, F22E), b) positioning the interface support with the inner face (F11I, F12I) of its at least one wall against the outer face (F21E, F22E) of a wall of the profile , c) creating a welding joint between the wall of the interface support and the wall of the profile by moving a laser beam , emitted from an emitting source , relative to the wall of the profile , while keeping the laser beam in a position such that it passes successively through, and in this order from the emitting source : the inner face (F21I, F22I) of said wall of the profile , then the outer face (F21E, F22E) of said wall of the profile , then the inner face (F11I, F12I) of the wall of the interface support , and while remaining within the material of the wall of the interface support .
Method for transmitting sensor information between a sensor and a control device designed to process the sensor information in a vehicle, wherein the control device sends out a request to transmit sensor information to the sensor in the form of a synchronization pulse , wherein the sensor, in a manner triggered by the synchronization pulse , records a sampled value of a measured variable at a time defined relative to the synchronization pulse in terms of time, in particular substantially simultaneously or immediately following the synchronization pulse , following which the sampled value is converted into sensor information and transmitted to the control device in a time slot defined by a data transmission protocol, wherein the data transmission protocol defines a format for the time sequence when transmitting sensor information, wherein a data frame is repeated periodically in accordance with the data transmission protocol and comprises a synchronization pulse of the control device and at least two, preferably three, subsequent time slots , characterized in that a check is carried out to determine whether the minimum or average time interval that the sensor requires to convert the sampled value into sensor information is greater than the time interval of a data frame without the last time slot , and if this is the case, the sensor records the sampled value before the synchronization pulse in a manner offset by this time difference.
A fluid conduit heating system comprising: a semi-conductive sleeve for disposal over a fluid conduit ; and an electrical power supply coupled to each end of said sleeve to provide a voltage across said sleeve and a resulting electrical current through said semi-conductive sleeve, heating said sleeve and said fluid conduit, wherein said sleeve comprises a fabric sleeve having carbon fiber threads, characterised in that the carbon fiber threads are semi-conductive. a semi-conductive sleeve for disposal over a fluid conduit ; and an electrical power supply coupled to each end of said sleeve to provide a voltage across said sleeve and a resulting electrical current through said semi-conductive sleeve, heating said sleeve and said fluid conduit, wherein said sleeve comprises a fabric sleeve having carbon fiber threads, characterised in that the carbon fiber threads are semi-conductive.
An aerosol substrate consumable loading mechanism for loading an aerosol substrate consumable into an aerosol generating device , the loading mechanism comprising: an actuator configured to load a partially inserted aerosol substrate consumable further into said aerosol generating device , in use; and an insertion sensor configured to detect an activation input, wherein the actuator is configured to load said aerosol substrate consumable further into said aerosol generating device upon detection of the activation input. an actuator configured to load a partially inserted aerosol substrate consumable further into said aerosol generating device , in use; and an insertion sensor configured to detect an activation input, wherein the actuator is configured to load said aerosol substrate consumable further into said aerosol generating device upon detection of the activation input.
A light grid for detecting objects in a surveillance area, having a number of beam axes which are each formed by a transmitter emitting transmitted light beams and an associated receiver , the longitudinal axis of the light grid being inclined by an angle of inclination relative to the vertical, the beam axes not being broken when the surveillance area is free, and at least one beam axis being broken in the surveillance area in case of an object intrusion, and having an evaluation unit, by means of which an object message can be generated if a security-critical object penetrates into the surveillance area, characterised in that a non-security-critical object can be identified in the evaluation unit as it passes through the surveillance area, in that , during at least one entry phase and one passage phase, the beam axes broken by the non-safety-critical object are registered as different muting phases and using these elements, the system checks whether specific object features of the non-safety-critical object which are stored in the evaluation unit and are specific for the entry phase and the passage phase are fulfilled, the front edge of the non-safety-critical object entering the surveillance area during the entry phase and the entire height of the non-safety-critical object being detected during the passage phase, in that a muting signal is generated in the evaluation unit in the case of an identified non-safety-critical object, and in that the muting signal is switched off in a time-resolved manner by the detection of the non-safety-critical object in the individual muting phases.
A path selection method, wherein the method comprises: obtaining a required latency of a service; and determining a target path for the service from m strict explicit paths based on the required latency, wherein a latency of the target path is less than or equal to the required latency, any subpath of a first strict explicit path in the m strict explicit paths exists in only the first strict explicit path, the first strict explicit path is any path in the m strict explicit paths, and m is an integer greater than or equal to 1; the method characterized in that all the m strict explicit paths are unallocated paths. obtaining a required latency of a service; and determining a target path for the service from m strict explicit paths based on the required latency, wherein a latency of the target path is less than or equal to the required latency, any subpath of a first strict explicit path in the m strict explicit paths exists in only the first strict explicit path, the first strict explicit path is any path in the m strict explicit paths, and m is an integer greater than or equal to 1; the method characterized in that all the m strict explicit paths are unallocated paths.
A second wireless communication apparatus using data defined in IEEE 802.11, comprising: circuitry configured to transmit (S82) a request signal, including at least second service information specifying a second service which is available at the second wireless communication apparatus; receive (S84) from a first wireless communication apparatus a response signal including at least first service information specifying a first service which is available at the first wireless communication apparatus, wherein the request signal and the response signal are compliant with an action frame defined in IEEE 802.11; in response to receiving the response signal, discover the first wireless communication apparatus and recognize the first service which is available at the first wireless communication apparatus, wherein the first service information and the second service information is interpreted in a link layer; and based on the first service information included in the response signal, select the first wireless communication apparatus as a device for image transfer and select a communication mode that decides a parentage at the time of forming a connection group under Wi-Fi Alliance standards, wherein in the selected communication mode, the second wireless communication apparatus is configured to connect with the first wireless communication apparatus directly. transmit (S82) a request signal, including at least second service information specifying a second service which is available at the second wireless communication apparatus; receive (S84) from a first wireless communication apparatus a response signal including at least first service information specifying a first service which is available at the first wireless communication apparatus, wherein the request signal and the response signal are compliant with an action frame defined in IEEE 802.11; in response to receiving the response signal, discover the first wireless communication apparatus and recognize the first service which is available at the first wireless communication apparatus, wherein the first service information and the second service information is interpreted in a link layer; and based on the first service information included in the response signal, select the first wireless communication apparatus as a device for image transfer and select a communication mode that decides a parentage at the time of forming a connection group under Wi-Fi Alliance standards, wherein in the selected communication mode, the second wireless communication apparatus is configured to connect with the first wireless communication apparatus directly.
A suture fastener for fastening one or more sutures , the suture fastener shaped so as to define: a spiral portion ; and a radially-inward portion that is disposed radially inward from the spiral portion , wherein the suture fastener , when in a resting state, has an unlocked conical helical configuration , in which the spiral portion is conically helical, wherein the suture fastener is configured, when one or more portions of the one or more sutures pass through respective portions of the suture fastener , to transition from the unlocked conical helical configuration to a planar spiral configuration, in which the spiral portion is planar spiral and the one or more sutures are coupled to the suture fastener , wherein the radially-inward portion is neither helical nor spiral, both when the suture fastener is in the unlocked conical helical configuration and when the suture fastener is in the planar spiral configuration, and wherein the planar spiral configuration is a locked planar spiral configuration , characterised in that the suture fastener is configured to be axially plastically deformed, when the one or more portions of the one or more sutures pass through the respective portions of the suture fastener , and to thereby transition from the unlocked conical helical configuration to the locked planar spiral configuration , in which the spiral portion is planar spiral and the one or more sutures are fixedly coupled to the suture fastener . a spiral portion ; and a radially-inward portion that is disposed radially inward from the spiral portion , wherein the suture fastener , when in a resting state, has an unlocked conical helical configuration , in which the spiral portion is conically helical, wherein the suture fastener is configured, when one or more portions of the one or more sutures pass through respective portions of the suture fastener , to transition from the unlocked conical helical configuration to a planar spiral configuration, in which the spiral portion is planar spiral and the one or more sutures are coupled to the suture fastener , wherein the radially-inward portion is neither helical nor spiral, both when the suture fastener is in the unlocked conical helical configuration and when the suture fastener is in the planar spiral configuration, and wherein the planar spiral configuration is a locked planar spiral configuration , characterised in that the suture fastener is configured to be axially plastically deformed, when the one or more portions of the one or more sutures pass through the respective portions of the suture fastener , and to thereby transition from the unlocked conical helical configuration to the locked planar spiral configuration , in which the spiral portion is planar spiral and the one or more sutures are fixedly coupled to the suture fastener .
A system for assessing the physiological state of a subject, comprising: a task delivery module configured to communicate to a subject at least two sets of information, each set of information relating to a cognitive task requiring a spoken response from the subject; a response detection module configured to record the respective spoken responses from the subject as an audio signal, the response detection module comprising a microphone; an analysis module configured to analyse the audio signals corresponding to the respective spoken responses recorded by the response detection module to determine from the respective spoken responses one or more characteristics indicative of the physiological state of the subject, compare said characteristics from the respective spoken responses, and determine the physiological state of the subject based on said comparison; characterised in that the at least two sets of information are different sets of information, the at least two different sets of information being selected such that each cognitive task related to each different set of information has different associated cognitive load. a task delivery module configured to communicate to a subject at least two sets of information, each set of information relating to a cognitive task requiring a spoken response from the subject; a response detection module configured to record the respective spoken responses from the subject as an audio signal, the response detection module comprising a microphone; an analysis module configured to analyse the audio signals corresponding to the respective spoken responses recorded by the response detection module to determine from the respective spoken responses one or more characteristics indicative of the physiological state of the subject, compare said characteristics from the respective spoken responses, and determine the physiological state of the subject based on said comparison; characterised in that the at least two sets of information are different sets of information, the at least two different sets of information being selected such that each cognitive task related to each different set of information has different associated cognitive load.
An aircraft comprising a fuselage , and a forward-swept wing in shoulder-wing configuration with a portside wing section and a starboard side wing section , each one of the portside and starboard side wing sections comprising a wing root that is connected to the fuselage , and a wing tip , wherein the portside wing section comprises a portside longitudinal front spar and a portside longitudinal rear spar which extend from the wing root of the portside wing section to the wing tip of the portside wing section , wherein the starboard side wing section comprises a starboard side longitudinal front spar and a starboard side longitudinal rear spar which extend from the wing root of the starboard side wing section to the wing tip of the starboard side wing section , characterized in that a center wing section is formed in an upper portion of the fuselage and interconnects the portside wing section and the starboard side wing section of the forward-swept wing , wherein the center wing section comprises a center wing spar that is attached to the portside longitudinal front spar , the portside longitudinal rear spar , the starboard side longitudinal front spar , and the starboard side longitudinal rear spar , and wherein the center wing spar comprises a center spar web with a lower cap and an upper flange .