mhurhangee/patent-ind-claim-en huggingface dataset:
A method for selectively enhancing the wetting characteristics of a substrate, comprising: providing at least one substrate, the substrate having a first wetting characteristic; providing at least one laser system configured to output at least one patterning beam having a wavelength of 200nm to 1200nm to the substrate, the patterning beam having an laser energy greater than the ablation threshold of the substrate; selectively forming at least one feature on at least a portion of the surface of the substrate with the patterning beam, the feature having a second wetting characteristic wherein the first wetting characteristic and second wetting characteristic are different; selectively applying at least one substrate coating to the substrate and the feature; and selectively ablating at least a portion of the substrate coating from the substrate to expose the feature formed on the substrate. providing at least one substrate, the substrate having a first wetting characteristic; providing at least one laser system configured to output at least one patterning beam having a wavelength of 200nm to 1200nm to the substrate, the patterning beam having an laser energy greater than the ablation threshold of the substrate; selectively forming at least one feature on at least a portion of the surface of the substrate with the patterning beam, the feature having a second wetting characteristic wherein the first wetting characteristic and second wetting characteristic are different; selectively applying at least one substrate coating to the substrate and the feature; and selectively ablating at least a portion of the substrate coating from the substrate to expose the feature formed on the substrate.
A packaging with extendable plastic film with simplified gripping, containing products , wherein plastic extensible film is wrapped around said products with at least one coil to form a bundle, characterized in that said packaging has, on its upper surface , only one notch (15,15',15") suitable for creating a gripping point of the packaging for the user.
Stretching unit for stretching a film, in particular a transverse direction orienter, a machine direction orienter and/or simultaneous stretching unit, comprising an oven and a compensation device , wherein the oven comprises a vertical direction (H), a transverse direction (Q) and a drawing direction (R), characterized in that the compensation device comprises an air conveyor , a first compensation opening and a second compensation opening , wherein the first compensation opening and the second compensation opening open into the oven on opposing sides of a central plane (M) of the oven in the vertical and drawing directions (H, R), in that the air conveyor is located in terms of flow between the first compensation opening and the second compensation opening , in that the compensation device is configured to remove a volume of air from the oven through one of the compensation openings and to feed the removed volume of air into the oven through the other one of the compensation openings . wherein the oven comprises a vertical direction (H), a transverse direction (Q) and a drawing direction (R), characterized in that the compensation device comprises an air conveyor , a first compensation opening and a second compensation opening , wherein the first compensation opening and the second compensation opening open into the oven on opposing sides of a central plane (M) of the oven in the vertical and drawing directions (H, R), in that the air conveyor is located in terms of flow between the first compensation opening and the second compensation opening , in that the compensation device is configured to remove a volume of air from the oven through one of the compensation openings and to feed the removed volume of air into the oven through the other one of the compensation openings .
A dual-display device , comprising: a first chassis ; a first backlight housing attached to the first chassis and comprising a first inner wall and a first outer wall ; a first optical film layer between a first light guide plate and a first rear polarizer , the first optical film layer comprising a first outer end; a second chassis rotatably coupled to the first chassis; a second backlight housing attached to the second chassis and comprising a second inner wall and a second outer wall; a second optical film layer between a second light guide plate and a second rear polarizer, the second optical film layer comprising a second outer end; characterised by : a first biasing element between the first outer end of the first optical film layer and the first outer wall, the first biasing element biasing the first optical film layer against the first inner wall, and a second biasing element between the second outer end of the second optical film layer and the second outer wall, the second biasing element biasing the second optical film layer against the second inner wall. a first chassis ; a first backlight housing attached to the first chassis and comprising a first inner wall and a first outer wall ; a first optical film layer between a first light guide plate and a first rear polarizer , the first optical film layer comprising a first outer end; a second chassis rotatably coupled to the first chassis; a second backlight housing attached to the second chassis and comprising a second inner wall and a second outer wall; a second optical film layer between a second light guide plate and a second rear polarizer, the second optical film layer comprising a second outer end; a first biasing element between the first outer end of the first optical film layer and the first outer wall, the first biasing element biasing the first optical film layer against the first inner wall, and a second biasing element between the second outer end of the second optical film layer and the second outer wall, the second biasing element biasing the second optical film layer against the second inner wall.
A device configured to accommodate a patient's anatomy during magnetic resonance, MR, imaging, the device comprising: at least one radio frequency, RF, transmit and/or receive coil ; and at least one RF sensor , different from the at least one RF transmit and/or receive coil, configured to be capacitively coupled to the patient during MR imaging, wherein the at least one RF sensor comprises four RF dipole antennas coupled to a helmet configured to accommodate a patient's head during MR imaging, wherein: the four dipole antennas are positioned on an inner surface of the helmet and arranged in two sets of two dipole antennas each; the dipole antennas of each set of two dipole antennas are disposed along a respective axis and wherein the axis of the first of the two sets of two dipole antennas is different from the axis of the second of the two sets of two dipole antennas, for detecting motion of the patient in both directions along said respective axes; and the patient's head is located on the respective axis between the dipole antennas of each set of two dipole antennas. at least one radio frequency, RF, transmit and/or receive coil ; and at least one RF sensor , different from the at least one RF transmit and/or receive coil, configured to be capacitively coupled to the patient during MR imaging, wherein the at least one RF sensor comprises four RF dipole antennas coupled to a helmet configured to accommodate a patient's head during MR imaging, wherein: the four dipole antennas are positioned on an inner surface of the helmet and arranged in two sets of two dipole antennas each; the dipole antennas of each set of two dipole antennas are disposed along a respective axis and wherein the axis of the first of the two sets of two dipole antennas is different from the axis of the second of the two sets of two dipole antennas, for detecting motion of the patient in both directions along said respective axes; and the patient's head is located on the respective axis between the dipole antennas of each set of two dipole antennas. the four dipole antennas are positioned on an inner surface of the helmet and arranged in two sets of two dipole antennas each; the dipole antennas of each set of two dipole antennas are disposed along a respective axis and wherein the axis of the first of the two sets of two dipole antennas is different from the axis of the second of the two sets of two dipole antennas, for detecting motion of the patient in both directions along said respective axes; and the patient's head is located on the respective axis between the dipole antennas of each set of two dipole antennas.
A metallic non-magnetic lid for sealing a hermetic package , characterized in that it comprises : a molybdenum substrate ; a sputtered adhesion layer ; a copper seed layer ; a palladium solder base layer ; and gold/tin solder preforms attached at a sealing surface of the lid . a molybdenum substrate ; a sputtered adhesion layer ; a copper seed layer ; a palladium solder base layer ; and gold/tin solder preforms attached at a sealing surface of the lid .
Haymaking machine comprising at least one rotationally drivable work unit which has crop-processing tines located thereon and is mounted on a machine frame , comprising a protective apparatus at least partially surrounding the work unit , comprising at least one support device for supporting the at least one work unit on the ground, comprising an attachment device for connecting to the upper link arm and the lower link arms of a three-point lifting device of an agricultural tractor and comprising at least one frame element which extends from the attachment device as far as the machine frame and is adjustable in length in and counter to the direction of travel (F), characterised in that the length-adjustable frame element of the haymaking machine is a carrying device connected to the attachment device and the machine frame , and the carrying device is made up of at least two interconnectable carrying elements , which can be secured in at least two different positions by means at least one releasable connection.
A storage box for a refrigerator at an entrance, the storage box comprising: a base ; a first sidewall erected at each of a front end and a rear end of a top surface of the base ; and a second sidewall erected at each of a left end and a right end of the top surface of the base , wherein the first sidewall comprises: a plurality of first blocks stacked in a vertical direction and arranged in a horizontal direction; characterized by a plurality of connectors configured to movably connect the first blocks , which are adjacent to each other in the horizontal direction, to each other, wherein the base is configured to have a variable width in the left and right directions, and at least one of the first sidewall and the second sidewall has a variable width in the left and right directions and a variable height in a vertical direction. a base ; a first sidewall erected at each of a front end and a rear end of a top surface of the base ; and a second sidewall erected at each of a left end and a right end of the top surface of the base , wherein the first sidewall comprises: a plurality of first blocks stacked in a vertical direction and arranged in a horizontal direction; characterized by a plurality of connectors configured to movably connect the first blocks , which are adjacent to each other in the horizontal direction, to each other, a plurality of first blocks stacked in a vertical direction and arranged in a horizontal direction; characterized by a plurality of connectors configured to movably connect the first blocks , which are adjacent to each other in the horizontal direction, to each other,
An extractor cleaning machine comprising: a base moveable along a surface to be cleaned; a handle pivotally coupled to the base and moveable between an upright storage position and an inclined operating position; a recovery tank insertable into a space between the base and the handle , the handle is positioned directly over at least a portion of the recovery tank when the handle is in the upright storage position, wherein the recovery tank is removable from the space while the handle is in the upright storage position, characterized in that when the handle is in the upright storage position, the base and the handle include substantially parallel surfaces that together define an insertion axis , and wherein the recovery tank is moved along the insertion axis during insertion into and removal from the space . a base moveable along a surface to be cleaned; a handle pivotally coupled to the base and moveable between an upright storage position and an inclined operating position; a recovery tank insertable into a space between the base and the handle ,
Device for attaching shrink sleeves to containers , comprising a transport system for moving the containers into the working region of at least one sleeving head which applies the shrink sleeve in each case to a container , characterized in that the sleeving head can move in a direction (B) transverse to the transport direction (A) in order to provide each container in a row of containers with the shrink sleeve one after the other, the row of containers being arranged in the transverse direction (B) to the transport direction (A), and the sleeving head being movable over the row of containers in a direction (B) perpendicular to the transport direction (A) in order to eject faulty shrink sleeves .
A method for generating an encoded version of an audio signal , wherein the encoded version of the audio signal is generated by encoding a low-band portion of the audio signal, and from high-band side information for reconstructing a high-band portion of the audio signal, the method comprising: determining, at a speech encoder, first gain shape parameters based on a high-band residual signal associated with the high-band portion of the audio signal; generating a high-band excitation signal based on a harmonically extended signal and the first gain shape parameters, wherein the harmonically extended signal is based on a low-band excitation signal generated from the low-band portion of the audio signal; performing a linear prediction synthesis operation on the high-band excitation signal to generate a synthesized high-band signal; determining second gain shape parameters based on the synthesized high-band signal and based on the high-band portion of the audio signal; and inserting at least the first gain shape parameters and the second gain shape parameters into the encoded version of the audio signal to enable gain adjustment during reproduction of the audio signal from the encoded version of the audio signal. determining, at a speech encoder, first gain shape parameters based on a high-band residual signal associated with the high-band portion of the audio signal; generating a high-band excitation signal based on a harmonically extended signal and the first gain shape parameters, wherein the harmonically extended signal is based on a low-band excitation signal generated from the low-band portion of the audio signal; performing a linear prediction synthesis operation on the high-band excitation signal to generate a synthesized high-band signal; determining second gain shape parameters based on the synthesized high-band signal and based on the high-band portion of the audio signal; and inserting at least the first gain shape parameters and the second gain shape parameters into the encoded version of the audio signal to enable gain adjustment during reproduction of the audio signal from the encoded version of the audio signal.
Machine for the treatment, such as painting, of workpieces (P), such as panels (P), made of wood, plastic, fiberglass, glass, metal and the like, comprising means for the treatment of at least one of said workpieces (P) to be treated, and a dragging system , for dragging a paper band , wherein the dragging system comprises a winding roller and a winding/unwinding roller , wherein said machine is characterized in that the winding roller wind the dirty paper , which has been dirtied by the treatment of at least one workpiece (P) by means of said treatment means , in that said winding/unwinding roller wind or unwind the clean paper , wherein the clean paper is intended to support at least one workpiece (P) to be treated by means of said treatment means and to absorb or collect the waste of the treatment of said treatment means , becoming dirty paper , and in that said machine includes return movable means , movable from a rest position to an operating position, wherein said return movable means pass from said rest position to said operating position to change the path of the paper unwound or wound by said winding/unwinding roller for a section sufficient to support said at least one workpiece (P) without unwinding the dirty paper , and wherein said return movable means pass from said operating position to said rest position to provide clean paper to support said at least one workpiece (P), which is wound by said winding/unwinding roller , without unwinding said dirty paper . wherein said return movable means pass from said rest position to said operating position to change the path of the paper unwound or wound by said winding/unwinding roller for a section sufficient to support said at least one workpiece (P) without unwinding the dirty paper , and wherein said return movable means pass from said operating position to said rest position to provide clean paper to support said at least one workpiece (P), which is wound by said winding/unwinding roller , without unwinding said dirty paper .
A powder for three dimensional printing of a cemented carbide or a cermet body, said powder consisting of cemented carbide and/or cermet particles with a D90 of 15-35 μm, wherein the D90 is measured by means of laser diffraction, and wherein the average porosity of the cermet and/or cemented carbide particles with a diameter of ≥ 20 μm is 10-40 vol%, wherein the porosity is measured as indicated in the description, and wherein 30-70 vol% of the particles are < 10 μm in diameter.
A catalytic wall-flow monolith filter for use in an emission treatment system comprises a first face, a second face, a filter length defined by the distance from the first face to the second face, a longitudinal direction between the first face and the second face, and first and second pluralities of channels extending in the longitudinal direction, wherein the first plurality of channels is open at the first face and closed at the second face, and the second plurality of channels is open at the second face and closed at the first face, wherein the monolith filter comprises a porous substrate having surfaces that define the channels and having a first zone extending in the longitudinal direction from the first face towards the second face for a distance less than the filter length and a second zone extending in the longitudinal direction from the second face towards the first face and extending in the longitudinal direction for a distance less than the filter length, wherein a first catalytic material is distributed throughout the first zone of the porous substrate, and wherein a second catalytic material covers the surfaces in the second zone of the porous substrate and is not distributed throughout the porous substrate, wherein the term catalyst material means a combination of a catalyst with one or more non-catalytic materials; wherein the catalyst of the first catalytic material comprises a small-pore zeolite selected from the AEI, AFT, CHA, DDR, EAB, ERI, G!S, GOO, KFI, LEV, MER, PAU, VNI and YUG structural families, and, wherein the catalyst of the second catalytic material is CeO 2 impregnated with W, CeZrO 2 impregnated with W, or ZrO 2 impregnated with Fe and W. wherein the first plurality of channels is open at the first face and closed at the second face, and the second plurality of channels is open at the second face and closed at the first face, wherein the monolith filter comprises a porous substrate having surfaces that define the channels and having a first zone extending in the longitudinal direction from the first face towards the second face for a distance less than the filter length and a second zone extending in the longitudinal direction from the second face towards the first face and extending in the longitudinal direction for a distance less than the filter length, wherein a first catalytic material is distributed throughout the first zone of the porous substrate, and wherein a second catalytic material covers the surfaces in the second zone of the porous substrate and is not distributed throughout the porous substrate, wherein the term catalyst material means a combination of a catalyst with one or more non-catalytic materials; wherein the catalyst of the first catalytic material comprises a small-pore zeolite selected from the AEI, AFT, CHA, DDR, EAB, ERI, G!S, GOO, KFI, LEV, MER, PAU, VNI and YUG structural families, and, wherein the catalyst of the second catalytic material is CeO 2 impregnated with W, CeZrO 2 impregnated with W, or ZrO 2 impregnated with Fe and W.
A method of treating a substrate, wherein the substrate comprises a plated layer comprising chromium deposited from a trivalent chromium electrolyte, the method comprising the steps of: (a) providing an anode and the substrate as a cathode in an electrolyte ; (b) passing an electrical current between the anode and the cathode to deposit a passivate film on the substrate, characterized in that the electrolyte comprises (i) a trivalent chromium salt comprising basic chromium sulfate; and (ii) sodium gluconate. (a) providing an anode and the substrate as a cathode in an electrolyte ; (b) passing an electrical current between the anode and the cathode to deposit a passivate film on the substrate,
Method to control the acceleration of a motor vehicle from a current vehicle speed (V spd ), wherein the motor vehicle comprises an accelerator pedal system able to generate on the accelerator pedal an added reaction force (R) when the depression of the accelerator pedal reaches a given depression level (L) whereby the method comprises the steps of: a) measuring the current vehicle speed (V spd ); b) determining from the current vehicle speed (V spd ) a maximum acceleration rate (Acc max ) ; c) determining at least one threshold depression level (L i , α i ) of the accelerator pedal that corresponds to the maximum acceleration rate (Acc max ) ; d) generating an added reaction force (R add ) on the accelerator pedal if the depression of the accelerator pedal reaches or is about to reach the threshold depression level (L i , α i ); wherein at least steps a) , b) and c) are automatically repeated as the vehicle speed (V spd ) increases characterized in that in step b) , the maximum acceleration rate (Acc max ) is determined to be a compromise between an engine torque demand and the time that are necessary to reach a determined higher speed. a) measuring the current vehicle speed (V spd ); b) determining from the current vehicle speed (V spd ) a maximum acceleration rate (Acc max ) ; c) determining at least one threshold depression level (L i , α i ) of the accelerator pedal that corresponds to the maximum acceleration rate (Acc max ) ; d) generating an added reaction force (R add ) on the accelerator pedal if the depression of the accelerator pedal reaches or is about to reach the threshold depression level (L i , α i );