mhurhangee/patent-ind-claim-en huggingface dataset:
A polyimide porous film, comprising: a polyimide porous film body; and resin particles, the resin particles adhering to one surface or both surfaces of the polyimide porous film body, and containing a fluorine-based resin or containing a fluorine-based resin and an acrylic resin, wherein in a case where an average pore diameter of the polyimide porous film body is represented by X and an average particle diameter of the resin particles is represented by Y, a relationship of X < Y is satisfied, wherein X and Y are measured in accordance with the description. a polyimide porous film body; and resin particles, the resin particles adhering to one surface or both surfaces of the polyimide porous film body, and containing a fluorine-based resin or containing a fluorine-based resin and an acrylic resin, wherein in a case where an average pore diameter of the polyimide porous film body is represented by X and an average particle diameter of the resin particles is represented by Y, a relationship of X < Y is satisfied, wherein X and Y are measured in accordance with the description.
An electrical connector configured to be mated to a complementary electrical connector along a longitudinal direction, the electrical connector comprising: an electrically insulative connector housing ; and first and second leadframe assemblies each including a leadframe housing , a plurality of signal contacts supported by the leadframe housing so as to define a plurality of mating ends along a mating interface, and a ground plate attached to the leadframe housing , the ground plate defining a plurality of ground mounting ends extending out from the connector housing substantially along the longitudinal direction and a plurality of ground mating ends , respective ones of the ground mating ends disposed between the mating ends of differential pairs of the signal contacts along a transverse direction that is substantially perpendicular to the longitudinal direction the differential pairs being defined by adjacent signal contacts along the transverse direction, wherein each of the plurality of mating ends comprises a first broadside and each of the plurality of ground mating ends comprises a second broadside , a plurality of opposed edges , and an enclosed aperture formed in the second broadside , and wherein the plurality of opposed edges are spaced apart from each other along the transverse direction and wherein the second broadside is longer than the first broadside along the transverse direction. an electrically insulative connector housing ; and first and second leadframe assemblies each including a leadframe housing , a plurality of signal contacts supported by the leadframe housing so as to define a plurality of mating ends along a mating interface, and a ground plate attached to the leadframe housing , the ground plate defining a plurality of ground mounting ends extending out from the connector housing substantially along the longitudinal direction and a plurality of ground mating ends , respective ones of the ground mating ends disposed between the mating ends of differential pairs of the signal contacts along a transverse direction that is substantially perpendicular to the longitudinal direction the differential pairs being defined by adjacent signal contacts along the transverse direction, wherein each of the plurality of mating ends comprises a first broadside and each of the plurality of ground mating ends comprises a second broadside , a plurality of opposed edges , and an enclosed aperture formed in the second broadside , and wherein the plurality of opposed edges are spaced apart from each other along the transverse direction and wherein the second broadside is longer than the first broadside along the transverse direction.
Use of a stationary phase comprising nanofibrillar cellulose derived from plant material in separation methods, wherein said nanofibrillar cellulose, obtained with mechanical disintegration, is in the form of hydrogel and wherein the separation methods are selected from methods based on electrophoresis or chromatography.
A method for generating speech through multi-speaker neural text-to-speech "TTS" synthesis, comprising: receiving a text input; providing , through at least one speaker model, speaker latent space information of a target speaker; predicting , through an acoustic feature predictor, at least one acoustic feature based on the text input and the speaker latent space information; generating , through a neural vocoder, a speech waveform corresponding to the text input based on the at least one acoustic feature and the speaker latent space information; generating at least one transformed acoustic feature based on the at least one acoustic feature through a first neural network; and generating transformed speaker latent space information based on the speaker latent space information through a second neural network, and wherein the generating the speech waveform comprises: generating the speech waveform based on a combination of the at least one transformed acoustic feature and the transformed speaker latent space information. receiving a text input; providing , through at least one speaker model, speaker latent space information of a target speaker; predicting , through an acoustic feature predictor, at least one acoustic feature based on the text input and the speaker latent space information; generating , through a neural vocoder, a speech waveform corresponding to the text input based on the at least one acoustic feature and the speaker latent space information; generating at least one transformed acoustic feature based on the at least one acoustic feature through a first neural network; and generating transformed speaker latent space information based on the speaker latent space information through a second neural network, and wherein the generating the speech waveform comprises: generating the speech waveform based on a combination of the at least one transformed acoustic feature and the transformed speaker latent space information.
A cooling apparatus for a component formed by super plastic forming comprising: a gas source configured to supply a gas to an interior space of the component via a gas inlet ; and a gas outlet configured to allow the gas to exit the interior space , characterised by further comprising a gas column connected to the gas outlet and configured to compensate for changes in an external pressure acting on the component , wherein the gas column is a substantially vertically aligned structure with a vertical height greater than its width, and wherein the gas column is at least partially filled with a gas. a gas source configured to supply a gas to an interior space of the component via a gas inlet ; and a gas outlet configured to allow the gas to exit the interior space , characterised by further comprising a gas column connected to the gas outlet and configured to compensate for changes in an external pressure acting on the component , wherein the gas column is a substantially vertically aligned structure with a vertical height greater than its width, and wherein the gas column is at least partially filled with a gas.
Liquid aqueous cleaning composition comprising: • 0.05 to 1.5 wt% one or more quaternary ammonium compound; • 0.5 to 4 wt% hydrogen peroxide; • 0.25 to 2.5 wt% organic acid having a p K a of from 1 to 5.5; wherein the composition has a pH of 2 to 5 and a viscosity at 25°C of 1 to 1000 mPa.s @ 20 s -1 ; wherein the composition is free of anionic surfactant; and wherein the composition optionally comprises: • 0.1 to 5 wt% amphoteric surfactant; • 0.01 to 3 wt% non-ionic surfactant; and • 0.01 to 1 wt% water soluble rheology modifying polymer. • 0.05 to 1.5 wt% one or more quaternary ammonium compound; • 0.5 to 4 wt% hydrogen peroxide; • 0.25 to 2.5 wt% organic acid having a p K a of from 1 to 5.5; • 0.1 to 5 wt% amphoteric surfactant; • 0.01 to 3 wt% non-ionic surfactant; and • 0.01 to 1 wt% water soluble rheology modifying polymer.
An apparatus comprising: a container defining a cavity, the cavity comprising at least one side and a bottom surface, the container comprising: an upper portion having an upper surface; a wall portion defining the at least one side of the cavity; and at least one bottom portion defining the bottom surface of the cavity; and a plurality of fanciful elements removably and loosely distributed within the cavity, each of the plurality of fanciful elements being granular, each of the plurality of fanciful elements having a coating, the coating being configured to reduce friction therebetween and to enable the plurality of fanciful elements to substantially fluidly displace when a user inserts a body part therein; characterised in that the apparatus further comprises: an impact absorbing lining on the bottom of the cavity defining an impact-absorbing surface ; and a covering disposed over the impact-absorbing surface and configured to prevent the plurality of fanciful elements from interfering with the impact absorbing lining. an upper portion having an upper surface; a wall portion defining the at least one side of the cavity; and at least one bottom portion defining the bottom surface of the cavity; and an impact absorbing lining on the bottom of the cavity defining an impact-absorbing surface ; and a covering disposed over the impact-absorbing surface and configured to prevent the plurality of fanciful elements from interfering with the impact absorbing lining.
A cruise path generating method for a combined robot (A), the combined robot (A) comprising a self-moving robot and a functional module coupled with the self-moving robot , the cruise path generating method comprising: providing or generating a working map of the self-moving robot (S100); marking a target point on the working map (S200); planning an operating path from a starting point to the target point according to a location of the target point in the working map to generate a planned path (S300); the combined robot beginning to walk in accordance with the planned path, and determining whether an obstacle is encountered during walking (S400): if the obstacle is encountered during walking, adjusting a path and updating the planned path according to a walking path to form an actual path; or if the obstacle is not encountered during walking, directly walking to form the actual path; and saving the actual path as a cruise path of the combined robot (S500), a working mode of the combined robot (A) comprising an uncombined mode and a combined mode, wherein: when the self-moving robot individually works, the combined robot (A) is in the uncombined mode, and when the self-moving robot is coupled with the functional module , the combined robot (A) is in the combined mode. providing or generating a working map of the self-moving robot (S100); marking a target point on the working map (S200); planning an operating path from a starting point to the target point according to a location of the target point in the working map to generate a planned path (S300); the combined robot beginning to walk in accordance with the planned path, and determining whether an obstacle is encountered during walking (S400): if the obstacle is encountered during walking, adjusting a path and updating the planned path according to a walking path to form an actual path; or if the obstacle is not encountered during walking, directly walking to form the actual path; and if the obstacle is encountered during walking, adjusting a path and updating the planned path according to a walking path to form an actual path; or if the obstacle is not encountered during walking, directly walking to form the actual path; and saving the actual path as a cruise path of the combined robot (S500), a working mode of the combined robot (A) comprising an uncombined mode and a combined mode, wherein: when the self-moving robot individually works, the combined robot (A) is in the uncombined mode, and when the self-moving robot is coupled with the functional module , the combined robot (A) is in the combined mode.
System for controlling at least one automation equipment item (21-27) equipping a building (1; 5), the system including: - a remote control unit controlling the automation equipment item or items (21-27) equipping the building (1; 5); - a gateway for communication between the remote control unit and at least one mobile terminal belonging to a user (U50) of the building (1; 5); and - at least one primary marker (81-84) readable by hardware and software recognition means equipping the mobile terminal , the primary marker (81-84) being associated with at least one predetermined automation equipment item (21-24); the system being characterized in that the remote control unit is configured to operate: - in a normal mode (M1), in which the remote control unit independently controls the automation equipment item (21-27), - and in an advanced mode (M2), in which the remote control unit controls the automation equipment item (21-27) on the basis of information transmitted by the mobile terminal communicating with the remote control unit via the gateway ; and so that the identification of the primary marker (81-84), by identification means equipping the remote control unit , authorizes an activation of the advanced mode (M2) for controlling the automation equipment item (21-27) associated with said primary marker (81-84). - a remote control unit controlling the automation equipment item or items (21-27) equipping the building (1; 5); - a gateway for communication between the remote control unit and at least one mobile terminal belonging to a user (U50) of the building (1; 5); and - at least one primary marker (81-84) readable by hardware and software recognition means equipping the mobile terminal , the primary marker (81-84) being associated with at least one predetermined automation equipment item (21-24); - in a normal mode (M1), in which the remote control unit independently controls the automation equipment item (21-27), - and in an advanced mode (M2), in which the remote control unit controls the automation equipment item (21-27) on the basis of information transmitted by the mobile terminal communicating with the remote control unit via the gateway ;
Method for labelling a conical plastics container (B), and banderole provided for this purpose which, in the form of a label (E), decorative sleeve or similar information carrier, is transferred from a feed strip , which can in particular be advanced intermittently, onto a feed die and is displaced therefrom by means of an advancement movement (H) into a particular mould cavity of a deep-drawing assembly , such that, during a subsequent in-mould processing phase, the single label (E) and the plastics container (B) to be moulded are respectively brought together in the common mould cavity , wherein, on at least one feed strip , respective subportions (T, T') are preformed so as to have a contour (KR) in the shape of an annulus sector in regions, and said feed strip is transferred intermittently onto a conical feed die , at least one isolating cut is carried out on the subportions (T, T') forming a connected series, and a subportion (T) separated thereby is conveyed into the mould cavity in each case as a single annulus sector-shaped label (EK), and the subportion (T) that is connected in each case to the feed strip as a front end thereof is displaced towards the feed die comprising a conical peripheral contour (K) at least in regions into a receiving position and wherein the front end of the feed strip or the single annulus sector-shaped, separated label (EK) is tangentially applied (distance L) to the conical peripheral part (K) of the feed die , is then displaced in an advancement direction inclined (inclination N) to an application plane (M') on the feed die and is thereby guided along the conical peripheral part (K).
A medical imaging apparatus comprising: an image processor configured to generate a monochromatic image based on projection data acquired by an X-ray detector from an object; and a display configured to display the monochromatic image, wherein the image processor is configured to generate a primary cross-sectional image as a scout image using the acquired projection data, determine a magnitude of a noise signal of the scout image , determine a physical quantity of the object corresponding to the determined magnitude of the noise signal, determine an energy value of the monochromatic image by comparing the determined physical quantity of the object and a preset reference physical quantity, and generate the monochromatic image as a final cross-sectional image by extracting data of the primary cross-sectional image corresponding to the determined energy value. an image processor configured to generate a monochromatic image based on projection data acquired by an X-ray detector from an object; and a display configured to display the monochromatic image, wherein the image processor is configured to generate a primary cross-sectional image as a scout image using the acquired projection data, determine a magnitude of a noise signal of the scout image , determine a physical quantity of the object corresponding to the determined magnitude of the noise signal, determine an energy value of the monochromatic image by comparing the determined physical quantity of the object and a preset reference physical quantity, and generate the monochromatic image as a final cross-sectional image by extracting data of the primary cross-sectional image corresponding to the determined energy value. generate a primary cross-sectional image as a scout image using the acquired projection data, determine a magnitude of a noise signal of the scout image , determine a physical quantity of the object corresponding to the determined magnitude of the noise signal, determine an energy value of the monochromatic image by comparing the determined physical quantity of the object and a preset reference physical quantity, and generate the monochromatic image as a final cross-sectional image by extracting data of the primary cross-sectional image corresponding to the determined energy value.
A handheld working tool for treating a workpiece , comprising a tool nose provided for contacting the workpiece at a working point , and an indicator provided for indicating a reference line on a surface of the workpiece at a predetermined distance to the working point when the tool nose contacts the workpiece at the working point , characterized in that the indicator is configured to indicate the reference line forming a circular arc having its center at the working point .
A (meth)acrylate resin material comprising: a polymer (A1) having a constitutional unit (a1) derived from a compound represented by the following Formula and a constitutional unit (a2) derived from methyl methacrylate and at least one or more between an acid (B) and a nucleophilic agent (C), which is one or more selected from the group consisting of a compound having a hydroxyl group, an amine, an organophosphorus compound, and a compound having a chemical structure which reacts with a polycarbonate resin in the molecule: here, Ar is an aryl group, and an aromatic ring in Ar is directly bonded to an ester terminal in Formula , wherein the content of the acid (B) in the (meth)acrylate resin material ranges from 0.001 to 2 parts by mass with respect to 100 parts by mass of the sum of the constitutional unit (a1) and the constitutional unit (a2) when the (meth)acrylate resin material comprises the acid (B). a polymer (A1) having a constitutional unit (a1) derived from a compound represented by the following Formula and a constitutional unit (a2) derived from methyl methacrylate and at least one or more between an acid (B) and a nucleophilic agent (C), which is one or more selected from the group consisting of a compound having a hydroxyl group, an amine, an organophosphorus compound, and a compound having a chemical structure which reacts with a polycarbonate resin in the molecule: here, Ar is an aryl group, and an aromatic ring in Ar is directly bonded to an ester terminal in Formula , wherein the content of the acid (B) in the (meth)acrylate resin material ranges from 0.001 to 2 parts by mass with respect to 100 parts by mass of the sum of the constitutional unit (a1) and the constitutional unit (a2) when the (meth)acrylate resin material comprises the acid (B).
A tire comprising: a first pattern portion and a second pattern portion on a tire surface, the first pattern portion being formed only of a plurality of first ridges adjacent to each other and the second pattern portion being disposed adjacent to the first pattern portion and formed only of a plurality of second ridges extending in an orthogonal direction from the first ridges in plan view and arranged adjacent to each other, wherein a height (H) of the first ridges and the second ridges is from 0.2 mm to 0.5 mm and the first ridges adjacent to each other and the second ridges adjacent to each other are arranged at a constant pitch (P) of from 0.15 mm to 0.35 mm, and the first pattern portion and the second pattern portion are separated from one another. a first pattern portion and a second pattern portion on a tire surface, the first pattern portion being formed only of a plurality of first ridges adjacent to each other and the second pattern portion being disposed adjacent to the first pattern portion and formed only of a plurality of second ridges extending in an orthogonal direction from the first ridges in plan view and arranged adjacent to each other, wherein a height (H) of the first ridges and the second ridges is from 0.2 mm to 0.5 mm and the first ridges adjacent to each other and the second ridges adjacent to each other are arranged at a constant pitch (P) of from 0.15 mm to 0.35 mm, and the first pattern portion and the second pattern portion are separated from one another.
A method of manufacturing an aerial micromodule cable with excess length of an optical core , said cable comprising a cable jacket , an inner wall of said cable jacket defining a cable cavity in which the optical core is arranged, said cable having two rigid strength members embedded in the wall of said cable jacket ; said method comprises: • Extruding said cable jacket around said optical core , to provide said cable, said optical core having no overlength relative to the cable jacket ; • guiding the aerial micromodule cable over the outer circumference of a coupling wheel , said coupling wheel being the first wheel that receives the cable after said extruding; wherein a first plane (P1) intersecting the centre of gravity (C1) of the cable cavity is parallel to a second plane (P2) intersecting the two rigid strength members in the cable jacket , said first and second planes being offset from each other, wherein said centre of gravity (C1) of the cable cavity is the centroid or geometric centre of the cross section of the empty cable cavity, and wherein, during said guiding, the two rigid strength members are positioned closer to the outer circumference of the coupling wheel than the first plane (P1) so as to cause the optical core to have a core excess length of at least 0.05% relative to the length of the cable jacket . • Extruding said cable jacket around said optical core , to provide said cable, said optical core having no overlength relative to the cable jacket ; • guiding the aerial micromodule cable over the outer circumference of a coupling wheel , said coupling wheel being the first wheel that receives the cable after said extruding; wherein a first plane (P1) intersecting the centre of gravity (C1) of the cable cavity is parallel to a second plane (P2) intersecting the two rigid strength members in the cable jacket , said first and second planes being offset from each other, wherein said centre of gravity (C1) of the cable cavity is the centroid or geometric centre of the cross section of the empty cable cavity, and wherein, during said guiding, the two rigid strength members are positioned closer to the outer circumference of the coupling wheel than the first plane (P1) so as to cause the optical core to have a core excess length of at least 0.05% relative to the length of the cable jacket .