mhurhangee/patent-ind-claim-en huggingface dataset:
Trim component for a motor vehicle, comprising - a wall which delimits an inner space of the trim component , - a plurality of through holes which penetrate the wall , and - a lighting device , arranged in the inner space of the trim component , which is connect to a light source and which comprises a light conductor , which is arranged in relation to the through holes such that the light emitted by the light conductor can flow through the through holes , characterized in that - the light conductor comprises, in the region of the through holes , decoupling sections , in which the light from the light conductor can emerge, wherein o the through holes comprise an extension (E) which runs parallel to a longitudinal axis (L) of the light conductor , wherein the extension (E) increases as the distance (A) of the through holes from the light source increases, and/or o each pair of adjacent through hole are arranged spaced at a distance (D) to each other which extends parallel to the light conductor , wherein the distance (D) decreases as the distance (A) of the through holes from the light source increases. - a wall which delimits an inner space of the trim component , - a plurality of through holes which penetrate the wall , and - a lighting device , arranged in the inner space of the trim component , which is connect to a light source and which comprises a light conductor , which is arranged in relation to the through holes such that the light emitted by the light conductor can flow through the through holes , characterized in that - the light conductor comprises, in the region of the through holes , decoupling sections , in which the light from the light conductor can emerge, wherein o the through holes comprise an extension (E) which runs parallel to a longitudinal axis (L) of the light conductor , wherein the extension (E) increases as the distance (A) of the through holes from the light source increases, and/or o each pair of adjacent through hole are arranged spaced at a distance (D) to each other which extends parallel to the light conductor , wherein the distance (D) decreases as the distance (A) of the through holes from the light source increases. o the through holes comprise an extension (E) which runs parallel to a longitudinal axis (L) of the light conductor , wherein the extension (E) increases as the distance (A) of the through holes from the light source increases, and/or o each pair of adjacent through hole are arranged spaced at a distance (D) to each other which extends parallel to the light conductor , wherein the distance (D) decreases as the distance (A) of the through holes from the light source increases.
, A system comprising: a machine configured for using a plurality of different tools for providing and/or assembling at least one component of lead acid batteries with an electronic controller of at least some of its variable operating parameters for a specific tool installed in the machine and a tool for the machine , wherein the machine is one of a battery grid casting, grid reforming, grid cutting, grid trimming, grid pasteing, paste ingredients mixing, drying oven, plate stacking, or robotic palletizing machine, characterized in that the system comprises a tag associated with the tool and containing stored data of desired values for at least some of the operating parameters for the machine in which the tool will be used, a reader of at least some of the stored data on the tag associated with the tool ; and the machine electronic controller is configured to use at least some of the data of the tool tag read by the reader to set the desired value of at least some of the operating parameters of the machine for use of the tool , wherein the tag of the tool has all of the data and information needed for proper programming and operation of the machine in which it is used and/or for synchronization of any other machine or line dependent upon the component produced by the machine using the specific tool. a machine configured for using a plurality of different tools for providing and/or assembling at least one component of lead acid batteries with an electronic controller of at least some of its variable operating parameters for a specific tool installed in the machine and a tool for the machine , wherein the machine is one of a battery grid casting, grid reforming, grid cutting, grid trimming, grid pasteing, paste ingredients mixing, drying oven, plate stacking, or robotic palletizing machine, characterized in that the system comprises a tag associated with the tool and containing stored data of desired values for at least some of the operating parameters for the machine in which the tool will be used, a reader of at least some of the stored data on the tag associated with the tool ; and the machine electronic controller is configured to use at least some of the data of the tool tag read by the reader to set the desired value of at least some of the operating parameters of the machine for use of the tool , wherein the tag of the tool has all of the data and information needed for proper programming and operation of the machine in which it is used and/or for synchronization of any other machine or line dependent upon the component produced by the machine using the specific tool.
Method for printing on a substrate using a digital printing method comprising: a) providing the substrate; and b) printing on the substrate in the digital printing method using a composition which comprises: i) 50-98 wt.% water; ii) 1-49 wt.% of an ionic liquid; and iii) 1-30 wt.% of a pigment, a colorant or a mixture thereof; each relative to the total weight of the composition, wherein the substrate is a plastic film; the digital printing method is an inkjet printing method; the composition further comprises a polymer, a precursor thereof or a mixture of the polymer and the precursor; the polymer is a polyacrylate; and the composition further comprises a base. a) providing the substrate; and b) printing on the substrate in the digital printing method using a composition which comprises: i) 50-98 wt.% water; ii) 1-49 wt.% of an ionic liquid; and iii) 1-30 wt.% of a pigment, a colorant or a mixture thereof; i) 50-98 wt.% water; ii) 1-49 wt.% of an ionic liquid; and iii) 1-30 wt.% of a pigment, a colorant or a mixture thereof; each relative to the total weight of the composition, wherein the substrate is a plastic film; the digital printing method is an inkjet printing method; the composition further comprises a polymer, a precursor thereof or a mixture of the polymer and the precursor; the polymer is a polyacrylate; and the composition further comprises a base.
A method for manufacturing flexible containers of the type comprising a lower base of essentially parallelogram configuration and four side faces , the method comprising the operations of - supplying a continuous web folded upon itself around longitudinal fold lines forming a W-shaped pleated area determining an inverted "V" shaped bottom , a central fold being distinguished, which remains arranged between two opposite walls of the web - inserting folded sheets into the web between its opposite walls (4 ', 5') so that, at least, one bonding portion in each folded sheet is attached to the opposite walls and to the inverted "V" shaped bottom of the web , and - bonding said folded sheets to the web in said bonding portion or portions to determine dividing walls on the web prior to performing transverse cuts on the web to individualise a container , the cuts being distanced so that each container includes, at least, two of said dividing walls , which will form the two respective side walls in each container . - supplying a continuous web folded upon itself around longitudinal fold lines forming a W-shaped pleated area determining an inverted "V" shaped bottom , a central fold being distinguished, which remains arranged between two opposite walls of the web - inserting folded sheets into the web between its opposite walls (4 ', 5') so that, at least, one bonding portion in each folded sheet is attached to the opposite walls and to the inverted "V" shaped bottom of the web , and - bonding said folded sheets to the web in said bonding portion or portions to determine dividing walls on the web prior to performing transverse cuts on the web to individualise a container , the cuts being distanced so that each container includes, at least, two of said dividing walls , which will form the two respective side walls in each container .
A method, comprising: forming a gray-tone resist over a device material, the forming the gray-tone resist comprising: disposing a resist material over the device material; and developing the resist material to form a gray-tone pattern; performing a cyclic-etch process, the cyclic-etch process comprising: etching a resist segment of the gray-tone pattern using a resist etch process selective to the resist material; etching a device segment of the device material using a device pattern etch process selective to the device material; and repeating the resist etch process for subsequent resist segments of the gray-tone pattern and etching subsequent device segments to form a device material pattern, the top surface of the device material pattern having a gradient; disposing a hardmask over the device material; patterning the hardmask to expose segments of the device material; and etching exposed segments of the device material to form a plurality of device structures having a variable depth corresponding to the gradient. forming a gray-tone resist over a device material, the forming the gray-tone resist comprising: disposing a resist material over the device material; and developing the resist material to form a gray-tone pattern; disposing a resist material over the device material; and developing the resist material to form a gray-tone pattern; performing a cyclic-etch process, the cyclic-etch process comprising: etching a resist segment of the gray-tone pattern using a resist etch process selective to the resist material; etching a device segment of the device material using a device pattern etch process selective to the device material; and repeating the resist etch process for subsequent resist segments of the gray-tone pattern and etching subsequent device segments to form a device material pattern, the top surface of the device material pattern having a gradient; etching a resist segment of the gray-tone pattern using a resist etch process selective to the resist material; etching a device segment of the device material using a device pattern etch process selective to the device material; and repeating the resist etch process for subsequent resist segments of the gray-tone pattern and etching subsequent device segments to form a device material pattern, the top surface of the device material pattern having a gradient; disposing a hardmask over the device material; patterning the hardmask to expose segments of the device material; and etching exposed segments of the device material to form a plurality of device structures having a variable depth corresponding to the gradient.
An integral fluid measurement system comprising: a hybrid interface unit for communicating with one or more sensors disposed in a fluid tank , the hybrid interface unit comprising: a hybrid interface , the hybrid interface configured to communicate with a first sensor disposed in the fluid tank using a first communication technology, and with a second sensor disposed in the fluid tank using a second communication technology different from the first communication technology; a data bus interface ; and a digital signal processor , the digital signal processor configured to exchange data between the hybrid interface and the data bus interface ; a fluid tank configured to contain a fluid; and a calculating device configured to receive data from the data bus interface ; wherein the data represents at least one parameter that is associated with the fluid; and the calculating device is configured to calculate at least one parameter that is associated with the fluid. a hybrid interface unit for communicating with one or more sensors disposed in a fluid tank , the hybrid interface unit comprising: a hybrid interface , the hybrid interface configured to communicate with a first sensor disposed in the fluid tank using a first communication technology, and with a second sensor disposed in the fluid tank using a second communication technology different from the first communication technology; a data bus interface ; and a digital signal processor , the digital signal processor configured to exchange data between the hybrid interface and the data bus interface ; a hybrid interface , the hybrid interface configured to communicate with a first sensor disposed in the fluid tank using a first communication technology, and with a second sensor disposed in the fluid tank using a second communication technology different from the first communication technology; a data bus interface ; and a digital signal processor , the digital signal processor configured to exchange data between the hybrid interface and the data bus interface ; a fluid tank configured to contain a fluid; and a calculating device configured to receive data from the data bus interface ; wherein the data represents at least one parameter that is associated with the fluid; and the calculating device is configured to calculate at least one parameter that is associated with the fluid. wherein the data represents at least one parameter that is associated with the fluid; and the calculating device is configured to calculate at least one parameter that is associated with the fluid.
Optical article having a substrate made of an optical material comprising a polymer matrix and at least one organic near infrared absorbing compound incorporated into said matrix, wherein the optical material has the following properties: T VIS is higher than or equal to 75 %, T NIR is lower than or equal to 75 %, in which: T VIS is the average optical transmittance in the 380-780 nm wavelength range for the optical material containing said at least one organic near infrared absorbing compound through a 2 mm thick layer of said optical material, T NIR is the average optical transmittance in the 780-1400 nm wavelength range for the optical material containing said at least one organic near infrared absorbing compound through a 2 mm thick layer of said optical material. T VIS is higher than or equal to 75 %, T NIR is lower than or equal to 75 %, in which: T VIS is the average optical transmittance in the 380-780 nm wavelength range for the optical material containing said at least one organic near infrared absorbing compound through a 2 mm thick layer of said optical material, T NIR is the average optical transmittance in the 780-1400 nm wavelength range for the optical material containing said at least one organic near infrared absorbing compound through a 2 mm thick layer of said optical material. T VIS is the average optical transmittance in the 380-780 nm wavelength range for the optical material containing said at least one organic near infrared absorbing compound through a 2 mm thick layer of said optical material, T NIR is the average optical transmittance in the 780-1400 nm wavelength range for the optical material containing said at least one organic near infrared absorbing compound through a 2 mm thick layer of said optical material.
A flash separator (500; 500a, 500b) for the treatment of a fluid mixture containing liquefied methane and carbon dioxide, comprising a reservoir (501; 501a, 501b) having an inner chamber , at least one mixture inlet for the introduction of a mixture to be treated into said inner chamber , and at least one liquid phase outlet for the extraction of a separate liquid phase from said inner chamber , wherein the reservoir (501; 501a, 501b) comprises a first partition at least partially dividing said inner chamber into two regions (A, B) which are laterally adjacent to each other when observing the reservoir (501; 501a, 501b) in an operative position, wherein the mixture inlet is located in a first region (A) of said two regions (A, B) and the liquid phase outlet is located in a second region (B) of said two regions (A, B), and wherein said two regions (A, B) are in fluid communication with each other by means of a plurality of openings obtained in said first partition , characterized in that the openings in the first partition are located in a lower area thereof, when observing the reservoir (501; 501a, 501b) in an operative position thereof.
Bending method for bending at least one composite bar at a bending location that comprises a reinforcement fiber bundle with multiple reinforcement fibers embedded in a cured plastic matrix comprising the following steps: - Arranging a sonotrode of an ultrasonic device at a bending location , wherein the two bar sections of the at least one composite bar that adjoin the bending location extend in a first spatial direction (x), - Heating of the plastic matrix (M) of the at least one composite bar at the bending location by coupling of ultrasonic waves in the at least one composite bar at the bending location , - Deforming the at least one composite bar for formation of a deformed section at the bending location by an infeed movement between the sonotrode and the at least one composite bar in a second spatial direction (y) that is orientated radial to the bend that is to be created at the bending location , wherein by creation of the deformed section the section of the reinforcement fiber bundle is tensioned along the bending location and is brought in a desired position, - Bending of the at least one composite bar at the bending location , - Curing of the plastic matrix (M) at the bending location . - Arranging a sonotrode of an ultrasonic device at a bending location , wherein the two bar sections of the at least one composite bar that adjoin the bending location extend in a first spatial direction (x), - Heating of the plastic matrix (M) of the at least one composite bar at the bending location by coupling of ultrasonic waves in the at least one composite bar at the bending location , - Deforming the at least one composite bar for formation of a deformed section at the bending location by an infeed movement between the sonotrode and the at least one composite bar in a second spatial direction (y) that is orientated radial to the bend that is to be created at the bending location , wherein by creation of the deformed section the section of the reinforcement fiber bundle is tensioned along the bending location and is brought in a desired position, - Bending of the at least one composite bar at the bending location , - Curing of the plastic matrix (M) at the bending location .
A process comprising: (i) melt blending, in an extruder, (a) a polyolefin phase and (b) an aqueous phase in the presence of (c) at least one dispersant selected from the group consisting of an acrylic dispersant, a poloxamer dispersant, and combinations thereof; (ii) producing an interfacial tension from 0.1 dynes/cm to 25 dynes/cm; (iii) forming a polyolefin aqueous dispersion having from 5 wt% to 90 wt% solids content of dispersion; (iv) removing the water from the polyolefin aqueous dispersion to form a powder, the powder having a mean volume average particle size from 10 μm to 300 μm, a sphericity from 0.92 to 1.0, a particle size distribution from 1 to less than 2, and a particle density from 98% to 100%; wherein the interfacial tension, mean volume average particle size, particle size distribution and particle density are measured according to the description and the sphericity is calculated according to the description. (i) melt blending, in an extruder, (a) a polyolefin phase and (b) an aqueous phase in the presence of (c) at least one dispersant selected from the group consisting of an acrylic dispersant, a poloxamer dispersant, and combinations thereof; (ii) producing an interfacial tension from 0.1 dynes/cm to 25 dynes/cm; (iii) forming a polyolefin aqueous dispersion having from 5 wt% to 90 wt% solids content of dispersion; (iv) removing the water from the polyolefin aqueous dispersion to form a powder, the powder having a mean volume average particle size from 10 μm to 300 μm, a sphericity from 0.92 to 1.0, a particle size distribution from 1 to less than 2, and a particle density from 98% to 100%;
An Access Point Name, APN, matching method, comprising: obtaining (S11) a home public land mobile network, HPLMN, which comprises reading an International Mobile Subscriber Identification Number, IMSI, from a Universal Subscriber Identity Module, USIM, card, and parsing the IMSI to obtain the HPLMN; and performing (S12) a PLMN network attach, and after the attach is successful, performing APN matching in a first list by using the HPLMN, wherein the first list stores a correspondence between at least one PLMN and an APN; characterized in that the method further comprises: performing (S13) APN matching in the first list by using a PLMN in a second list if no APN corresponding to the HPLMN is matched in the first list, wherein the PLMN in the second list is a registered PLMN. obtaining (S11) a home public land mobile network, HPLMN, which comprises reading an International Mobile Subscriber Identification Number, IMSI, from a Universal Subscriber Identity Module, USIM, card, and parsing the IMSI to obtain the HPLMN; and performing (S12) a PLMN network attach, and after the attach is successful, performing APN matching in a first list by using the HPLMN, wherein the first list stores a correspondence between at least one PLMN and an APN; characterized in that the method further comprises: performing (S13) APN matching in the first list by using a PLMN in a second list if no APN corresponding to the HPLMN is matched in the first list, wherein the PLMN in the second list is a registered PLMN.
A steel sheet for a can, the steel sheet having a chemical composition containing, by mass%, C: 0.020% or more and 0.130% or less, Si: 0.04% or less, Mn: 0.10% or more and 1.20% or less, P: 0.007% or more and 0.100% or less, S: 0.030% or less, Al: 0.001% or more and 0.100% or less, N: more than 0.0120% and 0.0200% or less, Nb: 0.0060% or more and 0.0300% or less, and the balance being Fe and inevitable impurities, an upper yield strength of 460 MPa to 680 MPa, and a total elongation of 12% or more, wherein the absolute value of the difference in the amount of solid solution Nb between two regions of the steel sheet, which are a region from the surface to a 1/8 depth position and a region from a 3/8 depth position to a 4/8 depth position is 0.0010 mass% or more the Nb solid solution content being measured according to the description, where, the terms "1/8 depth position", "3/8 depth position", and "4/8 depth position" respectively denote a position located at 1/8 of the thickness from the surface, a position located at 3/8 of the thickness from the surface, and a position located at 4/8 of the thickness from the surface, the upper yield strength, the total elongation and the amount of solid solution Nb being determined after having performed a heat treatment at a temperature of 210°C for 10 minutes.