mhurhangee/patent-ind-claim-en huggingface dataset:
Ground coffee dispenser intended to cooperate with a coffee machine , which comprises a ground coffee storage reservoir provided with a contour and a bottom and a ground coffee distributor pouring a predefined quantity of ground coffee from the storage reservoir into a brewing area of the coffee machine, the ground coffee distributor comprising a disc driven in rotation on which at least one curved blade (33-36) is attached onto a lower face of said disc , the disc having a periphery inscribed in a diameter (D), the bottom of the storage reservoir comprising an opening for transferring the ground coffee arranged under the disc and the curved blade (33-36) extends from the periphery towards the inside of the disc to transfer the ground coffee admitted by a peripheral space into the transfer opening when the disc rotates, characterised in that the quantity of ground coffee poured is defined by the peripheral space arranged between the diameter (D) of the periphery of the disc and an inner wall of the contour , close to the bottom of the storage reservoir and in that the disc is extended in the upper portion by a body in the shape of a bell, with the peripheral edge forming a lower portion of said disc.
A process comprising: (i) forming a composition comprising a peroxide-modified ethylene-based polymer selected from the group consisting of a peroxide-modified ethylene/α-olefin multi-block copolymer, a peroxide-modified low density polyethylene, and combinations thereof; wherein the peroxide-modified ethylene-based polymer is an ethylene-based polymer that has been melt blended with a peroxide such that the peroxide acts as a rheology modifying agent in such a way (i) that the degree of long chain branching (LCB) in the peroxide-modified ethylene-based polymer is greater than the degree of LCB in the base ethylene-based polymer prior to peroxide modification, but (ii) the addition of peroxide does not induce crosslinking, as evidenced by the peroxide-modified ethylene-based polymer having a gel content of 0% as measured by extraction in boiling decalin at 180 °C for 5 hours according to ASTM 2765; (ii) contacting the composition with a blowing agent to form a foam composition; and (iii) forming foam beads comprising the foam composition; wherein the foam bead has a gel content of 0% as measured by extraction in boiling decalin at 180 °C for 5 hours according to ASTM 2765. (i) forming a composition comprising a peroxide-modified ethylene-based polymer selected from the group consisting of a peroxide-modified ethylene/α-olefin multi-block copolymer, a peroxide-modified low density polyethylene, and combinations thereof; wherein the peroxide-modified ethylene-based polymer is an ethylene-based polymer that has been melt blended with a peroxide such that the peroxide acts as a rheology modifying agent in such a way (i) that the degree of long chain branching (LCB) in the peroxide-modified ethylene-based polymer is greater than the degree of LCB in the base ethylene-based polymer prior to peroxide modification, but (ii) the addition of peroxide does not induce crosslinking, as evidenced by the peroxide-modified ethylene-based polymer having a gel content of 0% as measured by extraction in boiling decalin at 180 °C for 5 hours according to ASTM 2765; (ii) contacting the composition with a blowing agent to form a foam composition; and (iii) forming foam beads comprising the foam composition;
A method of constructing a wind turbine, the method comprising: selecting a proposed wind turbine site at which the wind turbine is to be located; using one or more wind speed sensors, measuring wind speeds at the proposed wind turbine site during a measurement period; calculating a wind speed associated with a return period for the proposed wind turbine site by: providing wind speed measurements associated with the proposed wind turbine site, the wind speed measurements measured during a measurement period; transforming the wind speed measurements into a frequency domain to generate a measured wind speed spectrum; providing modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period, the extended period longer than the measurement period; transforming the modelled wind speeds into the frequency domain to generate a modelled wind speed spectrum; combining the measured wind speed spectrum and the modelled wind speed spectrum to generate a hybrid spectrum; transforming the hybrid spectrum from the frequency domain into a time domain to provide hybrid wind speed measurements; and calculating the return period wind speed using the hybrid wind speed measurements; altering a design parameter of the wind turbine based on the wind speed associated with the return period, the design parameter being at least one of a construction material, a tower strength, a tower thickness, a blade strength and a foundation depth; and constructing a wind turbine based on the design parameter. selecting a proposed wind turbine site at which the wind turbine is to be located; using one or more wind speed sensors, measuring wind speeds at the proposed wind turbine site during a measurement period; calculating a wind speed associated with a return period for the proposed wind turbine site by: providing wind speed measurements associated with the proposed wind turbine site, the wind speed measurements measured during a measurement period; transforming the wind speed measurements into a frequency domain to generate a measured wind speed spectrum; providing modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period, the extended period longer than the measurement period; transforming the modelled wind speeds into the frequency domain to generate a modelled wind speed spectrum; combining the measured wind speed spectrum and the modelled wind speed spectrum to generate a hybrid spectrum; transforming the hybrid spectrum from the frequency domain into a time domain to provide hybrid wind speed measurements; and calculating the return period wind speed using the hybrid wind speed measurements; altering a design parameter of the wind turbine based on the wind speed associated with the return period, the design parameter being at least one of a construction material, a tower strength, a tower thickness, a blade strength and a foundation depth; and constructing a wind turbine based on the design parameter.
A capacitive sensor comprising: a plurality of first electrodes that are placed on the same circumference of a circle and generate a capacitance according to a distance to a manipulating body ; and a capacitance detecting means that is configured to detect capacitances generated in the plurality of first electrodes , characterised by a deciding means that is configured to decide a direction in which the manipulating body is positioned according to a capacitance detected for each of the plurality of first electrodes under a condition that a sum of the capacitances detected for the plurality of first electrodes is equal to or larger than a first threshold. a plurality of first electrodes that are placed on the same circumference of a circle and generate a capacitance according to a distance to a manipulating body ; and a capacitance detecting means that is configured to detect capacitances generated in the plurality of first electrodes , characterised by a deciding means that is configured to decide a direction in which the manipulating body is positioned according to a capacitance detected for each of the plurality of first electrodes under a condition that a sum of the capacitances detected for the plurality of first electrodes is equal to or larger than a first threshold.
A method implemented by a wireless transmit receive unit, WTRU, the method being characterized by : the WTRU receiving a radio resource control, RRC, connection reconfiguration message via a first component carrier, wherein the RRC connection reconfiguration message comprises configuration information for at least a second component carrier; the WTRU activating the second component carrier in response to receiving a medium access control, MAC, control element, CE, wherein the MAC CE indicates which component carrier is to be activated; the WTRU determining that a component carrier inactivity timer for the second component carrier has expired; and the WTRU deactivating the second component carrier in response to the expiration of the component carrier inactivity timer for the second component carrier. the WTRU receiving a radio resource control, RRC, connection reconfiguration message via a first component carrier, wherein the RRC connection reconfiguration message comprises configuration information for at least a second component carrier; the WTRU activating the second component carrier in response to receiving a medium access control, MAC, control element, CE, wherein the MAC CE indicates which component carrier is to be activated; the WTRU determining that a component carrier inactivity timer for the second component carrier has expired; and the WTRU deactivating the second component carrier in response to the expiration of the component carrier inactivity timer for the second component carrier.
A particulate filler composition useful for print systems applications, comprising functionalized infra-red absorbing particulates, the infra-red absorbing particulates being functionalized by adsorbing a polymer onto the surface of the infra-red absorbing particulates to surface passivate the infra-red absorbing particulates, wherein the polymer comprises poly-(pentafluorostyrene/Maleimide-b-pentafluorostyrene) (P(PFS/MI-b-PFS)).
A glass panel assembly for use in a roof of a vehicle, the glass panel assembly comprising: • a glass panel comprising an interior main surface , the interior main surface of the glass panel being configured to be directed to a passenger compartment of the vehicle; • a frame adhered to the interior main surface, the frame comprising a shaped element, wherein the shaped element is an elongated recess extending between the interior main surface and the frame along a length direction of at least a part of the frame, ; and • an elongate lighting device having a mating shape so as to be mechanically retained in the recess; wherein an opening of the recess allows light of the lighting device inside the recess to leave the recess and directly illuminate at least a part of the passenger compartment of the vehicle. • a glass panel comprising an interior main surface , the interior main surface of the glass panel being configured to be directed to a passenger compartment of the vehicle; • a frame adhered to the interior main surface, the frame comprising a shaped element, wherein the shaped element is an elongated recess extending between the interior main surface and the frame along a length direction of at least a part of the frame, ; and • an elongate lighting device having a mating shape so as to be mechanically retained in the recess;
A method of manufacturing a metal frame for spectacles of the type comprising a front frame with a pair of lens-carrying eyepieces of metal wire on each of which there is attached on the outermost part a hinge projection for a corresponding temple arm , and a central bridge for support on the nose connected to the lens-carrying eyepieces and incorporating a pair of nose pads , the method comprising the stage of: - providing the bridge as a single part obtained by bending a wire of metal material, forming a central cross-piece extended on opposing sides into a pair of corresponding lengths of wire capable of being attached to the corresponding lens-holding eyepieces , the bridge having corresponding means of attachment for corresponding nose pads at its respective free ends, characterised in that it further comprises the stages of: - producing a recess , through milling with the removal of material, on each of the said lengths of the central bridge , each recess forming a respective seat which is at least partly interference fitted to a corresponding external surface portion of the metal wire of the corresponding lens-holding eyepiece opposite to it in the zone in which they are attached, - making a weld between each of the lengths of the central bridge and the corresponding portion of the lens-holding eyepiece , corresponding to the respective recess , to secure each lens-holding eyepiece to the central bridge for support on the nose. - providing the bridge as a single part obtained by bending a wire of metal material, forming a central cross-piece extended on opposing sides into a pair of corresponding lengths of wire capable of being attached to the corresponding lens-holding eyepieces , the bridge having corresponding means of attachment for corresponding nose pads at its respective free ends, characterised in that it further comprises the stages of: - producing a recess , through milling with the removal of material, on each of the said lengths of the central bridge , each recess forming a respective seat which is at least partly interference fitted to a corresponding external surface portion of the metal wire of the corresponding lens-holding eyepiece opposite to it in the zone in which they are attached, - making a weld between each of the lengths of the central bridge and the corresponding portion of the lens-holding eyepiece , corresponding to the respective recess , to secure each lens-holding eyepiece to the central bridge for support on the nose. - producing a recess , through milling with the removal of material, on each of the said lengths of the central bridge , each recess forming a respective seat which is at least partly interference fitted to a corresponding external surface portion of the metal wire of the corresponding lens-holding eyepiece opposite to it in the zone in which they are attached, - making a weld between each of the lengths of the central bridge and the corresponding portion of the lens-holding eyepiece , corresponding to the respective recess , to secure each lens-holding eyepiece to the central bridge for support on the nose.
Cosmetic process for treating keratin fibres, preferably human keratin fibres such as the hair, comprising: (i) a step of mixing at least: - a first composition comprising one or more non-amino oxyalkylenated silicones, one or more first cationic surfactants, and less than 10% by weight of water relative to the total weight of the composition, and - a second composition comprising water and one or more second cationic surfactants, so as to obtain a final cosmetic composition, and then (ii) a step of applying the final cosmetic composition to the keratin fibres. (i) a step of mixing at least: - a first composition comprising one or more non-amino oxyalkylenated silicones, one or more first cationic surfactants, and less than 10% by weight of water relative to the total weight of the composition, and - a second composition comprising water and one or more second cationic surfactants, so as to obtain a final cosmetic composition, and then - a first composition comprising one or more non-amino oxyalkylenated silicones, one or more first cationic surfactants, and less than 10% by weight of water relative to the total weight of the composition, and - a second composition comprising water and one or more second cationic surfactants, so as to obtain a final cosmetic composition, and then (ii) a step of applying the final cosmetic composition to the keratin fibres.
Non-linear optical microscope , comprising: - an excitation laser beam source for exciting a sample to be tested, of the Bessel type, - a detector for detecting the coherent signals emitted in transmission by the sample to be tested, in response to the excitation by the excitation laser beam, characterized by - a filter arranged between the sample to be tested and the detector , in order to prevent the detector from detecting the signals emitted in transmission by the sample to be tested, extending in the vicinity of the optical axis (Z) of the microscope . - an excitation laser beam source for exciting a sample to be tested, of the Bessel type, - a detector for detecting the coherent signals emitted in transmission by the sample to be tested, in response to the excitation by the excitation laser beam, characterized by - a filter arranged between the sample to be tested and the detector , in order to prevent the detector from detecting the signals emitted in transmission by the sample to be tested, extending in the vicinity of the optical axis (Z) of the microscope .
A virtual human-machine interface system for a vehicle including at least a first projection surface and a second projection surface being spatially separated from one another and disposed within the vehicle; said virtual human-machine interface system comprising: - at least one micro-mirror projection means arranged for projecting an image on said first projection surface; - at least one sensor means arranged for detecting commands given by a user by determining the position of a part of the user's body within the vehicle; and - a control unit arranged for controlling said human-machine interface system ; the position of the image projected by the at least one projection means within the vehicle being modifiable by means of a specific command given by the user; and the image projected by the at least one projection means being moved from the first projection surface to the second projection surface by the user through said specific command. said virtual human-machine interface system comprising: - at least one micro-mirror projection means arranged for projecting an image on said first projection surface; - at least one sensor means arranged for detecting commands given by a user by determining the position of a part of the user's body within the vehicle; and - a control unit arranged for controlling said human-machine interface system ; - at least one micro-mirror projection means arranged for projecting an image on said first projection surface; - at least one sensor means arranged for detecting commands given by a user by determining the position of a part of the user's body within the vehicle; and - a control unit arranged for controlling said human-machine interface system ; the position of the image projected by the at least one projection means within the vehicle being modifiable by means of a specific command given by the user; and the image projected by the at least one projection means being moved from the first projection surface to the second projection surface by the user through said specific command.
Method for programming the control of a forming machine, the forming machine having a plurality of controllable machine axes, a control device for the coordinated control of axial movements of the machine axes, and an operator unit with an associated display unit for operating the forming machine, characterized in that the method has the following steps: a) displaying an axis selection menu (AAM) with graphical symbols for machine axes of the forming machine; b) receiving an input for selecting a machine axis to be programmed; c) displaying an axial movement menu (ABM) containing options for the input of position-based movement parameters for definition of a course of movement of the axial movement of the selected machine axis; d) receiving inputs for definition of position-based movement parameters; wherein the steps a) through d) are carried out for two or more machine axes for definition of two or more axial movements; displaying an axial movement coordination menu (ABKM) containing options for the input of coordination parameters for definition of a coordination of courses of movements of axial movements of machine axes; receiving inputs for definition of values for coordination parameters. a) displaying an axis selection menu (AAM) with graphical symbols for machine axes of the forming machine; b) receiving an input for selecting a machine axis to be programmed; c) displaying an axial movement menu (ABM) containing options for the input of position-based movement parameters for definition of a course of movement of the axial movement of the selected machine axis; d) receiving inputs for definition of position-based movement parameters;
A method for producing an oxidation reaction product, comprising the step of: irradiating a reaction system with light in the presence of a raw material and a chlorine dioxide radical, wherein the raw material is hydrocarbon or a derivative thereof, wherein the derivative is an organic compound containing an element other than carbon and hydrogen and is either: (a) an organic compound having a structure in which a hydrocarbon group and a substituent or atomic group are bound; or (b) a compound having a structure in which more than one hydrocarbon group is bound through an atomic group, wherein the hydrocarbon group may or may not be substituted with one or more substituents; wherein the substituent or the atomic group are selected from hydroxy groups, halogen groups, alkoxy groups, aryloxy groups, carboxy groups, alkoxycarbonyl groups, aryloxycarbonyl groups, mercapto groups, alkylthio groups, arylthio groups, amino groups each having or not having a substituent, ether bonds (-O-), ester bonds (-CO-O-), and thioether bonds (-S-); and the reaction system is a reaction system containing an organic phase; the organic phase contains the raw material and the chlorine dioxide radical; and in the step of irradiating a reaction system with light, the raw material is oxidized by the light irradiation to generate an oxidation reaction product of the raw material. irradiating a reaction system with light in the presence of a raw material and a chlorine dioxide radical, wherein the raw material is hydrocarbon or a derivative thereof, wherein the derivative is an organic compound containing an element other than carbon and hydrogen and is either: (a) an organic compound having a structure in which a hydrocarbon group and a substituent or atomic group are bound; or (b) a compound having a structure in which more than one hydrocarbon group is bound through an atomic group, wherein the hydrocarbon group may or may not be substituted with one or more substituents; (a) an organic compound having a structure in which a hydrocarbon group and a substituent or atomic group are bound; or (b) a compound having a structure in which more than one hydrocarbon group is bound through an atomic group, wherein the hydrocarbon group may or may not be substituted with one or more substituents; wherein the substituent or the atomic group are selected from hydroxy groups, halogen groups, alkoxy groups, aryloxy groups, carboxy groups, alkoxycarbonyl groups, aryloxycarbonyl groups, mercapto groups, alkylthio groups, arylthio groups, amino groups each having or not having a substituent, ether bonds (-O-), ester bonds (-CO-O-), and thioether bonds (-S-); and the reaction system is a reaction system containing an organic phase; the organic phase contains the raw material and the chlorine dioxide radical; and in the step of irradiating a reaction system with light, the raw material is oxidized by the light irradiation to generate an oxidation reaction product of the raw material.