mhurhangee/ep-ind-claims huggingface dataset:
A drying device that blows a heated gas to a substrate transport surface in a substrate transport path, the drying device comprising: a blowing unit provided with a jetting port formed in a first surface facing the substrate transport surface; a heat source; a fan motor that blows a gas to the heat source to generate the heated gas; a drying unit in which the blowing unit is disposed; and a heated gas supply unit in which the heat source and the fan motor are disposed and that supplies the heated gas to the blowing unit, wherein: a heated gas inflow port through which the heated gas is supplied is formed in a second surface of the blowing unit, the second surface intersecting the first surface; the heat source and the fan motor are disposed outside the drying unit; and the heated gas supply unit includes a heated gas supply port that communicates with the heated gas inflow port formed in the blowing unit, characterized in that the heated gas supply unit includes a second intake port through which the heated gas from the drying unit is taken in such that the heated gas from the drying unit is recovered into the heated gas supply unit. a blowing unit provided with a jetting port formed in a first surface facing the substrate transport surface; a heat source; a fan motor that blows a gas to the heat source to generate the heated gas; a drying unit in which the blowing unit is disposed; and a heated gas supply unit in which the heat source and the fan motor are disposed and that supplies the heated gas to the blowing unit, wherein: a heated gas inflow port through which the heated gas is supplied is formed in a second surface of the blowing unit, the second surface intersecting the first surface; the heat source and the fan motor are disposed outside the drying unit; and the heated gas supply unit includes a heated gas supply port that communicates with the heated gas inflow port formed in the blowing unit, characterized in that the heated gas supply unit includes a second intake port through which the heated gas from the drying unit is taken in such that the heated gas from the drying unit is recovered into the heated gas supply unit. a heated gas inflow port through which the heated gas is supplied is formed in a second surface of the blowing unit, the second surface intersecting the first surface; the heat source and the fan motor are disposed outside the drying unit; and the heated gas supply unit includes a heated gas supply port that communicates with the heated gas inflow port formed in the blowing unit, characterized in that the heated gas supply unit includes a second intake port through which the heated gas from the drying unit is taken in such that the heated gas from the drying unit is recovered into the heated gas supply unit.
A radio frequency communication system comprising at least one transmitter device configured for encoding and transmitting a data packet to a receiver device (13,14, 15,16); the receiver device being configured to receive, decode and correct errors in a bit sequence indicative of the data packet; the data packet including a standard compliant main part encoded according to a standard protocol for wireless communication, the main part including at least a packet preamble portion, a synchronization portion, a packet length field, a payload portion, and an error correction portion including error correction code for use by the receiver device to correct errors in the bit sequence; characterized in that the receiver device is configured to receive additional information (222, 223) about the length of the main part of the data packet adapted to improve decoding of the bit sequence indicative of the data packet, whereby performance of the error correction applied by the receiver device may be improved. the receiver device being configured to receive, decode and correct errors in a bit sequence indicative of the data packet; the data packet including a standard compliant main part encoded according to a standard protocol for wireless communication, the main part including at least a packet preamble portion, a synchronization portion, a packet length field, a payload portion, and an error correction portion including error correction code for use by the receiver device to correct errors in the bit sequence; characterized in that the receiver device is configured to receive additional information (222, 223) about the length of the main part of the data packet adapted to improve decoding of the bit sequence indicative of the data packet, whereby performance of the error correction applied by the receiver device may be improved.
A device for improved sanitization, the device comprising: a sanitizing element configured to output a sanitizing agent; a scanning device configured to generate scanning data of the physical form of an object; and a controller operatively coupled to the sanitizing element and the scanning device, the controller configured to: determine the output of the sanitizing agent, receive the scanning data generated by the scanning device, and determine one or more areas of the object failing to receive sufficient contact with the sanitizing agent based upon the scanning data and sanitizing agent output, characterized in that the controller is configured to determine the output of the sanitizing agent during operation of the scanning device, and in that the controller is further configured to, in response to receiving the scanning data, generate a three dimensional, 3D, rendering of the object. a sanitizing element configured to output a sanitizing agent; a scanning device configured to generate scanning data of the physical form of an object; and a controller operatively coupled to the sanitizing element and the scanning device, the controller configured to: determine the output of the sanitizing agent, receive the scanning data generated by the scanning device, and determine one or more areas of the object failing to receive sufficient contact with the sanitizing agent based upon the scanning data and sanitizing agent output, determine the output of the sanitizing agent, receive the scanning data generated by the scanning device, and determine one or more areas of the object failing to receive sufficient contact with the sanitizing agent based upon the scanning data and sanitizing agent output, characterized in that the controller is configured to determine the output of the sanitizing agent during operation of the scanning device, and in that the controller is further configured to, in response to receiving the scanning data, generate a three dimensional, 3D, rendering of the object.
Process for manufacturing a decorative wood-based board, the process comprising the steps of: a) providing wood particles or fibres, in dry form or in form of an aqueous suspension, b) providing at least one dry or liquid coating composition comprising at least one inorganic particulate filler material and at least one binder, c) forming a wood-based mat having a first side and a reverse side from the wood particles or fibres provided in step a), d) pre-pressing the wood-based mat of step c) into a pre-pressed wood-based mat, e) applying at least one layer of the at least one dry or liquid coating composition of step b) on the first or reverse side of the pre-pressed wood-based mat obtained in step d), f) hot pressing the pre-pressed wood-based mat obtained in step e) into a solid wood-based board, g) applying at least one decorative finishing on the first and/or reverse side of the wood-based board obtained in step f) by inkjet-printing, by applying a decorative paper, a decorative foil or a liquid coating. a) providing wood particles or fibres, in dry form or in form of an aqueous suspension, b) providing at least one dry or liquid coating composition comprising at least one inorganic particulate filler material and at least one binder, c) forming a wood-based mat having a first side and a reverse side from the wood particles or fibres provided in step a), d) pre-pressing the wood-based mat of step c) into a pre-pressed wood-based mat, e) applying at least one layer of the at least one dry or liquid coating composition of step b) on the first or reverse side of the pre-pressed wood-based mat obtained in step d), f) hot pressing the pre-pressed wood-based mat obtained in step e) into a solid wood-based board, g) applying at least one decorative finishing on the first and/or reverse side of the wood-based board obtained in step f) by inkjet-printing, by applying a decorative paper, a decorative foil or a liquid coating.
A dishwasher, comprising: a tub having an accommodation cavity, the accommodation cavity having an opening facing forward; a frame connected to an outer surface of the tub and arranged along an edge of the opening of the accommodation cavity, wherein a sealing groove is defined in the frame, or the sealing groove is enclosed by the frame and the edge of the opening of the tub, and wherein a sealing strip is disposed in the sealing groove; and a door body configured to expose or cover the opening of the accommodation cavity, wherein the door body abuts against the sealing strip in response to the opening of the accommodation cavity being covered by the door body; characterised in that the frame comprises: a supporting frame strip abutting against the outer surface of the tub; and a fitting frame strip connected to a front side wall of the supporting frame strip and spaced apart from the outer surface of the tub, wherein: the sealing groove is located between the fitting frame strip and the edge of the opening of the tub. a tub having an accommodation cavity, the accommodation cavity having an opening facing forward; a frame connected to an outer surface of the tub and arranged along an edge of the opening of the accommodation cavity, wherein a sealing groove is defined in the frame, or the sealing groove is enclosed by the frame and the edge of the opening of the tub, and wherein a sealing strip is disposed in the sealing groove; and a door body configured to expose or cover the opening of the accommodation cavity, wherein the door body abuts against the sealing strip in response to the opening of the accommodation cavity being covered by the door body; characterised in that the frame comprises: a supporting frame strip abutting against the outer surface of the tub; and a fitting frame strip connected to a front side wall of the supporting frame strip and spaced apart from the outer surface of the tub, wherein: the sealing groove is located between the fitting frame strip and the edge of the opening of the tub. a supporting frame strip abutting against the outer surface of the tub; and a fitting frame strip connected to a front side wall of the supporting frame strip and spaced apart from the outer surface of the tub, wherein: the sealing groove is located between the fitting frame strip and the edge of the opening of the tub.
Cosmetic water-in-oil emulsion (W/O emulsion) comprising a) titanium dioxide and/or zinc oxide with a primary particle size between 2 and 200 nm, b) 1% to 2.5% by weight, based on the total weight of the preparation, of Polyglyceryl-3 Diisostearate (INCI: Polyglyceryl-3 Diisostearate), the preparation comprising over 7% by weight of micropigments, based on the total weight of the preparation, characterized in that the preparation is free of parabens, methylisothiazolinone, chloromethylisothiazolinone and DMDM hydantoin, and is free of polyethylene glycol, polyethylene glycol ethers and polyethylene glycol esters (so-called PEG derivatives). a) titanium dioxide and/or zinc oxide with a primary particle size between 2 and 200 nm, b) 1% to 2.5% by weight, based on the total weight of the preparation, of Polyglyceryl-3 Diisostearate (INCI: Polyglyceryl-3 Diisostearate), the preparation comprising over 7% by weight of micropigments, based on the total weight of the preparation, characterized in that the preparation is free of parabens, methylisothiazolinone, chloromethylisothiazolinone and DMDM hydantoin, and is free of polyethylene glycol, polyethylene glycol ethers and polyethylene glycol esters (so-called PEG derivatives).
Assembly containing: - at least one substrate in sheet form for dyeing keratin fibres, comprising a surface coated with at least one layer constituted of a dye composition comprising one or more oxidation dyes and less than or equal to 2% by weight of preservative(s) relative to the total weight of the dye composition; and - at least one protective substrate (4a, 4b), comprising a surface coated with at least one layer constituted of a composition comprising one or more preservatives; it being understood that: - said dyeing substrate(s) are different from said protective substrate(s) (4a, 4b), - the dyeing substrate is: * in contact with one protective substrate (4a, 4b), or * included between two protective substrates (4a, 4b) and in contact therewith, and/or * the protective substrate (4a, 4b) partially or totally envelops the dyeing substrate. - at least one substrate in sheet form for dyeing keratin fibres, comprising a surface coated with at least one layer constituted of a dye composition comprising one or more oxidation dyes and less than or equal to 2% by weight of preservative(s) relative to the total weight of the dye composition; and - at least one protective substrate (4a, 4b), comprising a surface coated with at least one layer constituted of a composition comprising one or more preservatives; - said dyeing substrate(s) are different from said protective substrate(s) (4a, 4b), - the dyeing substrate is: * in contact with one protective substrate (4a, 4b), or * included between two protective substrates (4a, 4b) and in contact therewith, and/or * the protective substrate (4a, 4b) partially or totally envelops the dyeing substrate. * in contact with one protective substrate (4a, 4b), or * included between two protective substrates (4a, 4b) and in contact therewith, and/or * the protective substrate (4a, 4b) partially or totally envelops the dyeing substrate.
A preparation for tinting hydraulic binder systems, particularly cement-based systems, preferably concrete, wherein the preparation comprises the following components: (a) 1 to 99.999 wt.%, in relation to the preparation, at least of one inorganic surface-modified colour pigment, wherein the inorganic colour pigment is a carbon pigment, (b) 0.001 to 45 wt.%, in relation to the preparation, of at least of one dispersing agent, (c) optionally, 0.01 to 20 wt.%, in relation to the preparation, of at least of one phase mediator, wherein the colour pigment has an average particle diameter, determined as the D 50 value, within the range of 1 to 1000 nm, and wherein the surface-modified colour pigment is reacted with at least one modifier, wherein the modifier comprises at least one alkoxysilane of the general formula R 1 n -Si(OR 2) m, wherein R 1 represents an alkyl radical, alkenyl radical or aminoalkyl radical with 1 to 25 carbon atoms; R 2 represents a methyl radical or ethyl radical; for n, it applies that: n = 1 or 2; for m, it applies that: m = 4 - n; wherein the surface modification of the colour pigment is embodied on a silicon dioxide and/or polysilicic acid basis, wherein the silicon dioxide and polysilicic acid-based surface modification has alkyl groups as hydrophobic groups and is bound chemically and/or physically as a surface-modifying layer to the colour pigment. (a) 1 to 99.999 wt.%, in relation to the preparation, at least of one inorganic surface-modified colour pigment, wherein the inorganic colour pigment is a carbon pigment, (b) 0.001 to 45 wt.%, in relation to the preparation, of at least of one dispersing agent, (c) optionally, 0.01 to 20 wt.%, in relation to the preparation, of at least of one phase mediator, R 1 represents an alkyl radical, alkenyl radical or aminoalkyl radical with 1 to 25 carbon atoms; R 2 represents a methyl radical or ethyl radical; for n, it applies that: n = 1 or 2; for m, it applies that: m = 4 - n;
Soil working machine with a central frame having three-point coupling elements on which two supporting frames, which are directly connected to each other, extend transversely with respect to the direction of travel and are in each case designed as box bars, and have a plurality of rotary tools present about vertical axes, are arranged so as to be pivotable from an approximately horizontal working position into an approximately vertical transport position by means of swivel joints which have supporting joint elements and the joint axes of which point in the direction of travel, wherein a central gearing having a gearing housing and a central drive shaft, and two intermediate shafts which are arranged spaced apart from each other and spaced apart from the central drive shaft, are arranged on the central frame, wherein a spur gearing is arranged in each case in the gearing housing between the central drive shaft and the two intermediate shafts, wherein the axes of rotation of the intermediate shafts each coincide with the joint axes of the swivel joints, wherein the intermediate shafts are each connected non-positively to the driving elements driving rotary tools mounted in the box bars, wherein the gearing housing of the central gearing is a supporting part of the central frame and forms at least one joint element of a swivel joint of the central frame on each side of the soil working machine, wherein the supporting frames each have at least one front and at least one rear joint plate of the swivel joint, wherein a respective intermediate gearing having a gearing housing is arranged with driving elements on the box bars which are designed in each case as supporting frames, characterized in that in each case one of the joint plates (6.1) arranged on the box bar is formed by the gearing housing of the intermediate gearing.
A method of performing inter-cell interference coordination, ICIC, in a wireless communication system, the method comprising: receiving, by a second base station, BS, from a first BS, i) time domain ICIC information including almost blank subframe information of the first BS, ii) frequency domain ICIC information including an uplink interference overload indication, UL IOI, that is related to an interference level experienced at the first BS, a relative narrowband transmission power, RNTP, of the first BS and a high interference indication, HII, of the first BS and iii) a bitmap including a plurality of bits each indicating whether or not the UL IOI is valid in each of a plurality of subframes; checking, by the second BS, the validity of the UL IOI of the first BS for a corresponding subframe based on the bitmap; and performing, by the second BS, an uplink or a downlink scheduling for the corresponding subframe based on a result of the checking the validity of the UL IOI. receiving, by a second base station, BS, from a first BS, i) time domain ICIC information including almost blank subframe information of the first BS, ii) frequency domain ICIC information including an uplink interference overload indication, UL IOI, that is related to an interference level experienced at the first BS, a relative narrowband transmission power, RNTP, of the first BS and a high interference indication, HII, of the first BS and iii) a bitmap including a plurality of bits each indicating whether or not the UL IOI is valid in each of a plurality of subframes; checking, by the second BS, the validity of the UL IOI of the first BS for a corresponding subframe based on the bitmap; and performing, by the second BS, an uplink or a downlink scheduling for the corresponding subframe based on a result of the checking the validity of the UL IOI.
A capacitive measuring method for use under industrial conditions, the measuring method being based on the 3-electrode measuring principle, wherein at least one first electrode (2, 25) as an excitation electrode has an AC voltage applied thereto by a first AC voltage generator to thereby generate an excitation field between the excitation electrode and a system potential that is effective as a second electrode (1, 23a, 23b); wherein the potential of the excitation electrode is defined as a reference potential, and potential changes with respect to the excitation electrode as caused by measured objects are detected by a third electrode (3, 24) as a measuring electrode; and which is characterized in that a fourth electrode (6, 27) is used as a decoupling electrode, which has a voltage applied thereto which is inverse to the AC voltage of the AC voltage generator, thereby providing a controllable directional effect of the electric measuring field; wherein the amplitude of the inverse voltage to be applied to the decoupling electrode is derived, via a control amplifier, from the potential of a fifth electrode (7, 26) that is used as a sensing electrode. wherein at least one first electrode (2, 25) as an excitation electrode has an AC voltage applied thereto by a first AC voltage generator to thereby generate an excitation field between the excitation electrode and a system potential that is effective as a second electrode (1, 23a, 23b); wherein the potential of the excitation electrode is defined as a reference potential, and potential changes with respect to the excitation electrode as caused by measured objects are detected by a third electrode (3, 24) as a measuring electrode; and which is characterized in that a fourth electrode (6, 27) is used as a decoupling electrode, which has a voltage applied thereto which is inverse to the AC voltage of the AC voltage generator, thereby providing a controllable directional effect of the electric measuring field; wherein the amplitude of the inverse voltage to be applied to the decoupling electrode is derived, via a control amplifier, from the potential of a fifth electrode (7, 26) that is used as a sensing electrode.