mhurhangee/ep-ind-claims huggingface dataset:
A pant shaped garment comprising an outer panty having a length direction and a transverse direction and which exhibits a rear portion intended to be arranged over the buttocks of a user during use, a front portion intended to be arranged over the belly of a user during use, a crotch portion intended to be arranged in the user's crotch during use and, further, a waist opening with a waist edge extending in the transverse direction and two leg openings each being bordered by a leg edge having a front part of the leg edge being located generally on the front portion and a rear part of the leg edge being located generally on the rear portion and on the crotch portion and wherein the rear portion and the front portion are mutually connected in two side joins which run in the length direction from the waist opening to each leg opening, characterized in that the front portion and the rear portion of the outer panty consist substantially of an elastically extensible material and in that the rear part of each leg edge is curve-shaped and exhibits a concave curved segment located mainly on the crotch portion and a convex curved segment located mainly on the rear portion.
A copper foil composite comprising a copper foil and a resin layer laminated thereon, satisfying an equation 1: (f 3 x t 3)/(f 2 x t 2) => 1 wherein t 2 (mm) is a thickness of the copper foil, f 2 (MPa) is a stress of the copper foil under tensile strain of 4%, t 3 (mm) is a thickness of the resin layer, f 3 (MPa) is a stress of the resin layer under tensile strain of 4%, and an equation 2: 1 <= 33f 1/ (F x T) wherein f 1 (N/mm) is 180° peeling strength between the copper foil and the resin layer determined via a 180° peel test in which the surface of the copper foil in a test specimen is fixed on a SUS plate, and the resin layer is peeled in a direction at an angle of 180° in accordance with JIS-C5016, F(MPa) is strength of the copper foil composite under tensile strain of 30%, wherein f 2, f 3 and F are obtained using a tensile tester, the tensile test is conducted in the direction parallel to the rolling direction of the copper foil for f 2 and F and is conducted in a machine direction for f 3, and all three in accordance with JIS-Z2241, and T (mm) is a thickness of the copper foil composite, wherein a Cr oxide layer is formed at an coating amount of 5 to 100 μg/dm2 is formed on a surface of the copper foil on which the resin layer is not laminated, and the equations 1 and 2 are true at a temperature lower than the glass transition temperature of the resin layer.
A system comprising: an audio signal generator for generating an analog audio-band modulation signal; a power source audio amplifier (604, 704) stimulated by the modulation signal generated by the audio signal generator and configured to output a controlled, audio-band, AC waveform for driving speakers and lights in a venue; a control unit (602, 702) comprising the audio signal generator, the control unit being coupled to the power source audio amplifier and configured to output multi-channel digital audio data and light control data to the output of the power source audio amplifier; and a unitary transmission bus (606, 706) for coupling the output of the power source audio amplifier and the output of the control unit to the speakers and the lights and for transmitting the power, the digital audio data, and the light control data over the bus to the speakers and the lights. an audio signal generator for generating an analog audio-band modulation signal; a power source audio amplifier (604, 704) stimulated by the modulation signal generated by the audio signal generator and configured to output a controlled, audio-band, AC waveform for driving speakers and lights in a venue; a control unit (602, 702) comprising the audio signal generator, the control unit being coupled to the power source audio amplifier and configured to output multi-channel digital audio data and light control data to the output of the power source audio amplifier; and a unitary transmission bus (606, 706) for coupling the output of the power source audio amplifier and the output of the control unit to the speakers and the lights and for transmitting the power, the digital audio data, and the light control data over the bus to the speakers and the lights.
A transporting device that transports a sheet of paper comprising: a detection unit that detects a side end of the sheet of paper, which is transporting on a first direction, along a second direction which is perpendicular to the first direction; a control unit that calculates information on a positional deflection from a previously set image forming position of the sheet of paper based on positional information on the side end of the sheet of paper, which is detected by the detection unit, an image being formed on the image forming position, and positional information on the image forming position; and roller members that move to the second direction with the sheet of paper being held between them based on the information on the positional deflection, which is calculated by the control unit, the roller members being positioned upstream to the detection unit along a direction of transporting the sheet of paper, characterized in that the control unit has a detection-unit-cleaning mode in which when the roller members move to the second direction to perform a correction of the positional deflection of the sheet of paper, the control unit controls the roller members to move the sheet of paper to an outside position from the image forming position and a position of the side end of the sheet of paper when the sheet of paper passes through the detection unit, and then to move the sheet of paper to the image forming position, based on the image forming position and the position of the side end of the sheet of paper, which is detected by the detection unit. a detection unit that detects a side end of the sheet of paper, which is transporting on a first direction, along a second direction which is perpendicular to the first direction; a control unit that calculates information on a positional deflection from a previously set image forming position of the sheet of paper based on positional information on the side end of the sheet of paper, which is detected by the detection unit, an image being formed on the image forming position, and positional information on the image forming position; and roller members that move to the second direction with the sheet of paper being held between them based on the information on the positional deflection, which is calculated by the control unit, the roller members being positioned upstream to the detection unit along a direction of transporting the sheet of paper, characterized in that the control unit has a detection-unit-cleaning mode in which when the roller members move to the second direction to perform a correction of the positional deflection of the sheet of paper, the control unit controls the roller members to move the sheet of paper to an outside position from the image forming position and a position of the side end of the sheet of paper when the sheet of paper passes through the detection unit, and then to move the sheet of paper to the image forming position, based on the image forming position and the position of the side end of the sheet of paper, which is detected by the detection unit.
An isolated, synthetic or recombinant nucleic acid comprising a nucleic acid encoding a polypeptide having a xylanase activity, wherein the nucleic acid comprises a sequence having at least 95%, 96%, 97%, 98%, 99%, or more, or complete (100%), sequence identity to a sequence which is SEQ ID NO:1 having the mutation that the nucleic acid codon encoding amino acid residue 38 of SEQ ID NO: 2 is changed from CGT to CAC, and amino acid residue 38 Arginine, Arg (or "R") is changed to Histidine, His (or "H"), wherein the said polypeptide shows an improved rate of xylose release of greater than 90% when compared to assays showing 63% release with SEQ ID NO: 2, at the same enzyme loading of 0.6 mg / g cellulose, and shows an improved rate of xylose release when compared to assays with SEQ ID NO: 2, at a reduced enzyme loading.
Core suitable as a support for a reel of paper, in particular of toilet paper, characterized in that it is formed by helically winding at least one band of tissue, said band comprising at least 0.51 gram of a water-soluble material per gram of tissue, the water-soluble material being determined to confer stiffness and disintegrability on the band of tissue.
A method of controlling radio transmissions, the method comprising: determining a signal quality associated with radio transmissions from a first device to a second device; determining an uncertainty of the determined signal quality; and depending on the determined signal quality and uncertainty, adapting a beamforming configuration applied by the first device for performing the radio transmissions to the second device, wherein the beamforming configuration defines a set of one or more of beams (21, 22, 23, 24, 25) generated by transmit diversity operation of multiple antennas, and characterized in that the beamforming configuration is adapted by setting, depending on the determined uncertainty, a number of the beams (21, 22, 23, 24, 25). determining a signal quality associated with radio transmissions from a first device to a second device; determining an uncertainty of the determined signal quality; and depending on the determined signal quality and uncertainty, adapting a beamforming configuration applied by the first device for performing the radio transmissions to the second device, wherein the beamforming configuration defines a set of one or more of beams (21, 22, 23, 24, 25) generated by transmit diversity operation of multiple antennas, and characterized in that the beamforming configuration is adapted by setting, depending on the determined uncertainty, a number of the beams (21, 22, 23, 24, 25).
A fitting for arrangement on a sash of a window or a door, wherein the sash has a first profile groove which can be engaged from behind by the fitting, and wherein the fitting comprises the following: a) a first arm having a longitudinal axis extending in parallel with a vertical or horizontal sash column; b) a latching part on the first arm having a resilient first latching hook; c) a displacement body, wherein the latching part is movable by a relative movement between the displacement body and the latching part from a loose position to a mounted position, wherein the first latching hook is movable in the loose position and is not movable in the mounted position, in order to securely engage a first projection of the first profile groove from behind in the mounted position, wherein the displacement body and/or the latching part has/have a bevel by means of which the first latching hook can be transferred from the loose position to the mounted position during the relative movement; characterized in that the relative movement can be performed in the direction of the longitudinal axis of the first arm. a) a first arm having a longitudinal axis extending in parallel with a vertical or horizontal sash column; b) a latching part on the first arm having a resilient first latching hook; c) a displacement body, wherein the latching part is movable by a relative movement between the displacement body and the latching part from a loose position to a mounted position, wherein the first latching hook is movable in the loose position and is not movable in the mounted position, in order to securely engage a first projection of the first profile groove from behind in the mounted position, wherein the displacement body and/or the latching part has/have a bevel by means of which the first latching hook can be transferred from the loose position to the mounted position during the relative movement;
Method for assisting a user in the planning and implementation of driving a route with a vehicle, wherein - data about the route are acquired, - theoretically optimal data of at least one parameter for optimal driving of the route are determined, - actual data of the parameter are acquired during the driving of the route, and a deviation of the actual data from the optimal data is determined, - a driving instruction is generated as a function of the determined deviation, and - a graphical representation of a driving instruction symbol is generated on the basis of the driving instruction and displayed on a display surface of a mobile user device, characterized in that an angle of rotation about at least one axis is determined as a function of the driving instruction when the driving instruction symbol is generated. - data about the route are acquired, - theoretically optimal data of at least one parameter for optimal driving of the route are determined, - actual data of the parameter are acquired during the driving of the route, and a deviation of the actual data from the optimal data is determined, - a driving instruction is generated as a function of the determined deviation, and - a graphical representation of a driving instruction symbol is generated on the basis of the driving instruction and displayed on a display surface of a mobile user device,
A main bearing housing for supporting a main rotor shaft of a wind turbine, wherein the main bearing housing defines a first end, a second end and a floor region intermediate the first and second ends, and comprises: a first bearing arrangement positioned at the first end of the main bearing housing, a second bearing arrangement positioned at the second end of the main bearing housing, wherein the floor region includes a first oil sump positioned at the first bearing arrangement, and a second sump positioned at the second bearing arrangement, characterised in that said main bearing housing further comprises an overflow basin between the first and second sumps, and in that the overflow basin, the first sump and the second sump each are connected to a fluid drain system. a first bearing arrangement positioned at the first end of the main bearing housing, a second bearing arrangement positioned at the second end of the main bearing housing, wherein the floor region includes a first oil sump positioned at the first bearing arrangement, and a second sump positioned at the second bearing arrangement, characterised in that said main bearing housing further comprises an overflow basin between the first and second sumps, and in that the overflow basin, the first sump and the second sump each are connected to a fluid drain system.
A method for forming a ceramic-based material, the method comprising: a. depositing a ceramic-precursor composition comprising nanoparticles having at least one dimension less than 100 nm and an aspect ratio of 1.5 or greater, and a carrier fluid on a surface of a substrate to form an as-deposited layer of the ceramic precursor composition; and b. sintering the as-deposited layer of the ceramic precursor composition at a sintering temperature to form a ceramic-based material, wherein the sintering temperature is 1000°C or less. a. depositing a ceramic-precursor composition comprising nanoparticles having at least one dimension less than 100 nm and an aspect ratio of 1.5 or greater, and a carrier fluid on a surface of a substrate to form an as-deposited layer of the ceramic precursor composition; and b. sintering the as-deposited layer of the ceramic precursor composition at a sintering temperature to form a ceramic-based material, wherein the sintering temperature is 1000°C or less.
A method comprising: melt extruding a polyethylene comprising a rheological breadth parameter, defined as CY model parameter, of from 0.20 to 0.31, a multimodal molecular weight distribution, and a polydispersity (Mw/Mn), the Mw and Mn are defined by gel permeation chromatography, of from 5 to 18 to form an extruded sheet, wherein the polyethylene is a high density polyethylene (HDPE) comprising a density ranging from 0.940 to 0.970 g/cc, as determined in accordance with ASTM D792 and wherein the polyethylene comprises a zero shear viscosity, defined as CY model parameter, of from 1000 Pa·sec to 50000 Pa·sec and the rheological breadth parameter of the polyethylene changes by no more than about 5% after extrusion relative to the rheological breadth parameter of the polyethylene prior to extrusion; thermoforming the extruded sheet within a mold to form a thermoformed article at a temperature ranging from 150 to 275 °C, wherein, during the thermoforming of the extruded sheet, the extruded sheet is subjected to solid-state stretching in one or more directions; and retrieving the thermoformed article from the mold. melt extruding a polyethylene comprising a rheological breadth parameter, defined as CY model parameter, of from 0.20 to 0.31, a multimodal molecular weight distribution, and a polydispersity (Mw/Mn), the Mw and Mn are defined by gel permeation chromatography, of from 5 to 18 to form an extruded sheet, wherein the polyethylene is a high density polyethylene (HDPE) comprising a density ranging from 0.940 to 0.970 g/cc, as determined in accordance with ASTM D792 and wherein the polyethylene comprises a zero shear viscosity, defined as CY model parameter, of from 1000 Pa·sec to 50000 Pa·sec and the rheological breadth parameter of the polyethylene changes by no more than about 5% after extrusion relative to the rheological breadth parameter of the polyethylene prior to extrusion; thermoforming the extruded sheet within a mold to form a thermoformed article at a temperature ranging from 150 to 275 °C, wherein, during the thermoforming of the extruded sheet, the extruded sheet is subjected to solid-state stretching in one or more directions; and retrieving the thermoformed article from the mold.
A mixing device for integration into an exhaust gas pipe (4.1, 4.2) of a combustion engine and for mixing an exhaust gas flow T, which is formed from a housing with a pipe wall (2.1) for guiding the exhaust gas in a main flow direction H and from an intermediate wall, which at least partially delimits a flow profile Qs of the housing, and a mixing pipe, wherein the mixing pipe has an injection nozzle (5.1) in the region of a first end E1 for an additive to be mixed in, and in the region of a second end E2 is held in the intermediate wall, wherein at least between the injection nozzle (5.1) and the intermediate wall, a perforation zone (5.2) with a through-flow profile Qp is provided, wherein the intermediate wall and the mixing pipe divide the housing into an inflow sector (2.2) and an outflow sector (2.3), wherein at least 90% of the gas to be transported from the inflow sector (2.2) to the outflow sector (2.3) can be guided through the perforation zone (5.2), characterised in that after the mixing pipe, a wedge-shaped flow guidance element with a guiding nose (6.2) is provided, which protrudes over the pipe wall (2.1) and/or the intermediate wall, and by means of which the exhaust gas flow T is divisible into two partial flows, T1, T2, wherein the partial flows T1, T2 can be brought into a reverse swirling flow in relation to the main flow direction H.
Method for producing a pane with an electrically conductive coating, comprising at least: - applying an electrically conductive coating on a substrate, - identifying defects of the coating, - focusing the radiation of a laser with an annular beam profile on the coating, wherein the annular beam profile surrounds the defect, and - producing an annular de-coated region, by simultaneously removing the coating in the region of the beam profile. - applying an electrically conductive coating on a substrate, - identifying defects of the coating, - focusing the radiation of a laser with an annular beam profile on the coating, wherein the annular beam profile surrounds the defect, and - producing an annular de-coated region, by simultaneously removing the coating in the region of the beam profile.
Pad (10, 30) for a seat, in particular a vehicle seat, having at least one pad element and a pad cover arranged over the pad element, wherein the pad element has at least one side pad element, wherein the side pad element has a recess that is open towards the pad cover, wherein the recess forms a stowage space in which objects can be stowed, wherein the pad cover has at least one opening corresponding to the recess and at least one covering element (60a, 60b, 60c) which is arranged in the region of the opening and, in a non-use state, covers the opening completely, and, in a use state, exposes the opening, in particular exposes it completely, wherein the covering element (60b, 60c) comprises at least two covering parts (62b, 64b; 62c, 64c), which completely cover or close the opening and the recess, characterized in that the covering parts (62b, 64b; 62c, 64c) are laid over one another.
A method of updating firmware stored in a non-volatile memory of a controller, wherein the non-volatile memory comprises a first set of memory blocks configured to store a bootloader for the controller, the method comprising: storing a bootloader update application in a second set of memory blocks of the non-volatile memory; replacing an initial memory block of the first set of memory blocks with a jump code, wherein the jump code comprises an instruction to jump to an initial memory block of the second set of memory blocks; storing a new bootloader for the controller in the non-volatile memory once the jump code has been stored in the initial memory block of the first set of memory blocks by storing data blocks of the new bootloader other than an initial data block of the new bootloader in memory blocks of the first set of memory blocks other than the initial memory block; determining whether the controller is receiving external power; and storing the initial data block of the new bootloader in the initial memory block of the first set of memory blocks by overwriting the jump code; wherein, when the controller loses external power, energy is provided internally to the controller so that at least one memory block of the non-volatile memory can be erased and written to without the controller receiving external power in order to guarantee that the jump code will be successfully stored. storing a bootloader update application in a second set of memory blocks of the non-volatile memory; replacing an initial memory block of the first set of memory blocks with a jump code, wherein the jump code comprises an instruction to jump to an initial memory block of the second set of memory blocks; storing a new bootloader for the controller in the non-volatile memory once the jump code has been stored in the initial memory block of the first set of memory blocks by storing data blocks of the new bootloader other than an initial data block of the new bootloader in memory blocks of the first set of memory blocks other than the initial memory block; determining whether the controller is receiving external power; and storing the initial data block of the new bootloader in the initial memory block of the first set of memory blocks by overwriting the jump code; wherein, when the controller loses external power, energy is provided internally to the controller so that at least one memory block of the non-volatile memory can be erased and written to without the controller receiving external power in order to guarantee that the jump code will be successfully stored.
A compound of formula A R 1 represents methyl, ethyl, propyl, iso-propyl, cyclopropyl, H 3 C-CH 2 -CH 2 -CH 2 -, cyclobutyl; R 2 represents phenyl which is optionally substituted with 1, 2 or 3 substituents selected from the group consisting of fluoro, chloro, methyl, ethyl, cyclopropyl. R 1 represents methyl, ethyl, propyl, iso-propyl, cyclopropyl, H 3 C-CH 2 -CH 2 -CH 2 -, cyclobutyl; R 2 represents phenyl which is optionally substituted with 1, 2 or 3 substituents selected from the group consisting of fluoro, chloro, methyl, ethyl, cyclopropyl.