mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an OFDM wireless communication device, comprising: during a first period of time: i) transmitting signals on a first number of tones distributed uniformly in a first frequency band; and during a second period of time: i) transmitting signals on a second number of tones distributed uniformly in a second frequency band; which is wider than said first frequency band, said second number of tones being the same as said first number of tones. during a first period of time: i) transmitting signals on a first number of tones distributed uniformly in a first frequency band; and i) transmitting signals on a first number of tones distributed uniformly in a first frequency band; and during a second period of time: i) transmitting signals on a second number of tones distributed uniformly in a second frequency band; which is wider than said first frequency band, said second number of tones being the same as said first number of tones. i) transmitting signals on a second number of tones distributed uniformly in a second frequency band; which is wider than said first frequency band, said second number of tones being the same as said first number of tones.
An electronic device (102, 200) comprising: a housing (106, 206) having a top portion and a bottom portion opposite the top portion; and an electronic component for the electronic device, the electronic component positioned within the housing (106, 206) and magnetically attached to an internal surface of the bottom portion of the housing via a magnetic force between one or more magnetic attachment points (218, 220) of the electronic component and one or more corresponding magnetic attachment points (222, 224) on the internal surface of the bottom portion of the housing, wherein the one or more corresponding magnetic attachment points on the internal surface of the bottom portion of the housing comprise a plurality of magnets and the one or more magnetic attachment points on the electronic component comprise a plurality of magnetic elements on the electronic component that are magnetically attached to the plurality of magnets respectively, wherein the plurality of magnets protrude from the internal surface of the housing and extend into a plurality of cavities of the respective plurality of magnetic elements on the electronic component to magnetically attach the electronic component to the internal surface of the bottom portion of the housing, and wherein each of the magnetic elements comprises a nut attached to the electronic component, and wherein each of the cavities corresponds to a hole of the nut. a housing (106, 206) having a top portion and a bottom portion opposite the top portion; and an electronic component for the electronic device, the electronic component positioned within the housing (106, 206) and magnetically attached to an internal surface of the bottom portion of the housing via a magnetic force between one or more magnetic attachment points (218, 220) of the electronic component and one or more corresponding magnetic attachment points (222, 224) on the internal surface of the bottom portion of the housing, wherein the one or more corresponding magnetic attachment points on the internal surface of the bottom portion of the housing comprise a plurality of magnets and the one or more magnetic attachment points on the electronic component comprise a plurality of magnetic elements on the electronic component that are magnetically attached to the plurality of magnets respectively, wherein the plurality of magnets protrude from the internal surface of the housing and extend into a plurality of cavities of the respective plurality of magnetic elements on the electronic component to magnetically attach the electronic component to the internal surface of the bottom portion of the housing, and wherein each of the magnetic elements comprises a nut attached to the electronic component, and wherein each of the cavities corresponds to a hole of the nut.
A photovoltaic module comprising the components: a photovoltaic semiconductor and one or more layers containing a synthetic polymer and an UV absorber of the formula I wherein X is a straight or branched chain C 1 -C 16 alkylene, o-, m- or p-xylylene or an oxaalkanediyl of the formulae -CH 2 CH 2 [OCH 2 CH 2] n -, -CH 2 CH(CH 3)[OCH 2 CH(CH 3)] n - or -CH 2 CH 2 CH 2 [OCH 2 CH 2 CH 2] n -, where n is 1-4; R 1 is hydrogen, straight or branched chain C 1 -C 18 alkyl, straight or branched chain C 1 -C 18 alkoxy or chloro; R 2 is hydrogen or straight or branched chain C 1 -C 18 alkyl. a photovoltaic semiconductor and one or more layers containing a synthetic polymer and an UV absorber of the formula I wherein X is a straight or branched chain C 1 -C 16 alkylene, o-, m- or p-xylylene or an oxaalkanediyl of the formulae -CH 2 CH 2 [OCH 2 CH 2] n -, -CH 2 CH(CH 3)[OCH 2 CH(CH 3)] n - or -CH 2 CH 2 CH 2 [OCH 2 CH 2 CH 2] n -, where n is 1-4; R 1 is hydrogen, straight or branched chain C 1 -C 18 alkyl, straight or branched chain C 1 -C 18 alkoxy or chloro; R 2 is hydrogen or straight or branched chain C 1 -C 18 alkyl. a synthetic polymer and an UV absorber of the formula I wherein X is a straight or branched chain C 1 -C 16 alkylene, o-, m- or p-xylylene or an oxaalkanediyl of the formulae -CH 2 CH 2 [OCH 2 CH 2] n -, -CH 2 CH(CH 3)[OCH 2 CH(CH 3)] n - or -CH 2 CH 2 CH 2 [OCH 2 CH 2 CH 2] n -, where n is 1-4; R 1 is hydrogen, straight or branched chain C 1 -C 18 alkyl, straight or branched chain C 1 -C 18 alkoxy or chloro; R 2 is hydrogen or straight or branched chain C 1 -C 18 alkyl. X is a straight or branched chain C 1 -C 16 alkylene, o-, m- or p-xylylene or an oxaalkanediyl of the formulae -CH 2 CH 2 [OCH 2 CH 2] n -, -CH 2 CH(CH 3)[OCH 2 CH(CH 3)] n - or -CH 2 CH 2 CH 2 [OCH 2 CH 2 CH 2] n -, where n is 1-4; R 1 is hydrogen, straight or branched chain C 1 -C 18 alkyl, straight or branched chain C 1 -C 18 alkoxy or chloro; R 2 is hydrogen or straight or branched chain C 1 -C 18 alkyl.
Method for monitoring an HVDC transmission between two power converter stations (1, 2), wherein - a current intensity threshold value for a current intensity (I 1, I 2) of the HVDC transmission is preset, - at least one interval length (T 1, T 2) for time intervals is preset, and for each preset interval length (T 1, T 2), a change threshold value (L2, L3) for a current intensity change in the current intensity (I 1, I 2) of the HVDC transmission, averaged over time intervals of the interval length (T 1, T 2), is preset, - for each pole (7, 8) of the HVDC transmission, the current intensity (I 1, I 2), and for each preset interval length (T 1, T 2), a current intensity change in the current intensity (I 1, I 2), averaged over time intervals of the interval length (T 1, T 2), are determined, - for each pole (7, 8) of the HVDC transmission, the absolute value of the current intensity (I 1, I 2) is compared with the preset current intensity threshold value, and for each preset interval length (T 1, T 2), the absolute value of the averaged current intensity change is compared with the change threshold value (L2, L3) preset for the interval length (T 1, T 2), and - it is concluded that there is a DC fault when the absolute value of the current intensity (I 1, I 2) of at least one pole (7, 8) is greater than the current intensity threshold value or, for an interval length (T 1, T 2), the absolute value of the averaged current intensity change in the current intensity (I 1, I 2) of at least one pole (7, 8) is greater than the change threshold value (L2, L3) preset for the interval length (T 1, T 2). - a current intensity threshold value for a current intensity (I 1, I 2) of the HVDC transmission is preset, - at least one interval length (T 1, T 2) for time intervals is preset, and for each preset interval length (T 1, T 2), a change threshold value (L2, L3) for a current intensity change in the current intensity (I 1, I 2) of the HVDC transmission, averaged over time intervals of the interval length (T 1, T 2), is preset, - for each pole (7, 8) of the HVDC transmission, the current intensity (I 1, I 2), and for each preset interval length (T 1, T 2), a current intensity change in the current intensity (I 1, I 2), averaged over time intervals of the interval length (T 1, T 2), are determined, - for each pole (7, 8) of the HVDC transmission, the absolute value of the current intensity (I 1, I 2) is compared with the preset current intensity threshold value, and for each preset interval length (T 1, T 2), the absolute value of the averaged current intensity change is compared with the change threshold value (L2, L3) preset for the interval length (T 1, T 2), and - it is concluded that there is a DC fault when the absolute value of the current intensity (I 1, I 2) of at least one pole (7, 8) is greater than the current intensity threshold value or, for an interval length (T 1, T 2), the absolute value of the averaged current intensity change in the current intensity (I 1, I 2) of at least one pole (7, 8) is greater than the change threshold value (L2, L3) preset for the interval length (T 1, T 2).
A bodywork node for connecting shell-shaped bodywork structures of a vehicle, said bodywork node comprising: (a) a multiply curved base wall structure which is shaped as an open shell and comprises a first surface and a second surface; (b) a first connecting flange (14, 15), formed by the base wall structure, for connecting to a shell-shaped first bodywork structure (1; 7); (c) a second connecting flange (16, 17), formed by the base wall structure, for connecting to a shell-shaped second bodywork structure (2; 9); (d) optionally, a third connecting flange, formed by the base wall structure, for connecting to a shell-shaped third bodywork structure; (e) and a reinforcing rib (20; 30) which projects from the first surface of the base wall structure, (f) wherein the base wall structure and the reinforcing rib (20; 30) are formed together in a casting process as a thin-walled cast metal body, preferably a cast steel body, (g) and the bodywork node (5; 6) as a whole is an open shell body, characterised in that (h) the reinforcing rib extends in the direction of and up to an outer edge of the first connecting flange (14, 15) or in the direction of and up to an outer edge of the second connecting flange (16, 17) in order to reinforce the bodywork node in the connecting flange (14, 15, 16, 17) which faces the bodywork structure when the composite is being manufactured. (a) a multiply curved base wall structure which is shaped as an open shell and comprises a first surface and a second surface; (b) a first connecting flange (14, 15), formed by the base wall structure, for connecting to a shell-shaped first bodywork structure (1; 7); (c) a second connecting flange (16, 17), formed by the base wall structure, for connecting to a shell-shaped second bodywork structure (2; 9); (d) optionally, a third connecting flange, formed by the base wall structure, for connecting to a shell-shaped third bodywork structure; (e) and a reinforcing rib (20; 30) which projects from the first surface of the base wall structure, (f) wherein the base wall structure and the reinforcing rib (20; 30) are formed together in a casting process as a thin-walled cast metal body, preferably a cast steel body, (g) and the bodywork node (5; 6) as a whole is an open shell body, characterised in that (h) the reinforcing rib extends in the direction of and up to an outer edge of the first connecting flange (14, 15) or in the direction of and up to an outer edge of the second connecting flange (16, 17) in order to reinforce the bodywork node in the connecting flange (14, 15, 16, 17) which faces the bodywork structure when the composite is being manufactured.
A power supply system comprising: a first battery connected to a first load; a second battery; a DC-DC converter connecting the first battery and the second battery; and a connection switching unit including a first switch configured to connect the first battery to a second load and a second switch configured to connect the second battery to the second load, wherein the connection switching unit is configured to switch selectively to a first mode in which the first switch is closed and the second switch is opened and a second mode in which the first switch is opened and the second switch is closed, characterized in that the connection switching unit is configured to switch states of the first switch and the second switch after controlling a voltage difference between a primary side and a secondary side of the DC-DC converter such that the voltage difference becomes equal to or less than a predetermined value. a first battery connected to a first load; a second battery; a DC-DC converter connecting the first battery and the second battery; and a connection switching unit including a first switch configured to connect the first battery to a second load and a second switch configured to connect the second battery to the second load, wherein the connection switching unit is configured to switch selectively to a first mode in which the first switch is closed and the second switch is opened and a second mode in which the first switch is opened and the second switch is closed, characterized in that the connection switching unit is configured to switch states of the first switch and the second switch after controlling a voltage difference between a primary side and a secondary side of the DC-DC converter such that the voltage difference becomes equal to or less than a predetermined value.
A process for preparing a porous metal-organic framework comprising at least one at least bidentate organic compound coordinated to at least one metal ion, where the at least one metal ion is a zinc ion and the at least one at least bidentate organic compound is based on 2-methylimidazole, which comprises the steps (a) addition of a first water-based solution comprising zinc ions to a second water-based solution comprising 2-methylimidazole, with a suspension being formed after addition of the second solution; (b) addition of a third solution comprising a strong base to the suspension formed in step (a), wherein the first water-based solution is a zinc sulfate solution, wherein the first, the second or the first and the second water-based solution is a methanol/water solution, wherein the third solution is a water-based alkali metal hydroxide solution, and wh erein the molar ratio of zinc to alkali metal hydroxide after the end of the addition in step (b) is in the range from 1:5 to 1:1. (a) addition of a first water-based solution comprising zinc ions to a second water-based solution comprising 2-methylimidazole, with a suspension being formed after addition of the second solution; (b) addition of a third solution comprising a strong base to the suspension formed in step (a),
A wireless charger, comprising: a transmitting coil to induce charging of a target device through a receiving coil of the target device, wherein the transmitting coil comprises at least one electrically conductive concentric coil; a charger printed circuit board; a charger casing including the transmitting coil and the charger printed circuit board; and a thermally conductive coating to dissipate heat, wherein the thermally conductive coating comprises at least one of a metallic powder and a ceramic powder, wherein the thermally conductive coating is in direct contact with at least the transmitting coil, and wherein the thermally conductive coating is deposited on the transmitting coil, the thermally conductive coating being deposited as a film during manufacturing, and wherein the thermally conductive coating allows the transmission of electromagnetic fields, wherein the thermally conductive coating does not block, absorb, deflect or alter the path of the electromagnetic field. a transmitting coil to induce charging of a target device through a receiving coil of the target device, wherein the transmitting coil comprises at least one electrically conductive concentric coil; a charger printed circuit board; a charger casing including the transmitting coil and the charger printed circuit board; and a thermally conductive coating to dissipate heat, wherein the thermally conductive coating comprises at least one of a metallic powder and a ceramic powder, wherein the thermally conductive coating is in direct contact with at least the transmitting coil, and wherein the thermally conductive coating is deposited on the transmitting coil, the thermally conductive coating being deposited as a film during manufacturing, and wherein the thermally conductive coating allows the transmission of electromagnetic fields, wherein the thermally conductive coating does not block, absorb, deflect or alter the path of the electromagnetic field.
Strapping device for packaged items, in which, prior to the strapping operation, an assembling unit arranges an edge-protection means on the packaged item and, after the strapping operation, the edge-protection means is held by a strapping means on the packaged item, wherein an indexing drive conveys the edge-protection means in the conveying direction (x) from a magazine to the assembling unit, characterized in that the indexing drive comprises a continuously revolving conveying means on which the edge-protection means sits, and in that the frictional engagement between the conveying means and the edge-protection means required for the indexing motion is caused by the dead weight of the edge-protection means, wherein the indexing drive is part of a rail which is deployable in the conveying direction (x) from the magazine.
A method of determining if an individual has, or is at risk of developing prostate cancer, the method comprising the steps of: a) providing a sample obtained from said individual; b) determining in the sample of a), the methylation level of one or more biomarkers, wherein the biomarkers are a panel of nucleotide sequences, wherein the panel comprises: I') the nucleotide sequence of SEQ ID NO:2 (C1orf114); or I") a nucleotide sequence being complementary to SEQ ID NO: 2; or I′′′) a nucleotide sequence having at least 90% sequence identity to any one of I' or I"; or Iʺʺ) a fragment of any one of I', I" or I′′′, wherein the fragment comprises at least 15 consecutive nucleotides of any one of I', I" or I′′′; and c) comparing the methylation level of the sampled nucleotide sequence of b), with the corresponding methylation level of a corresponding nucleotide sequence of a control sample, wherein a methylation level being significantly higher than the methylation level of the control sample, wherein a methylation level being significantly higher than the methylation level of the control sample, is indicative of said individual having or being at risk of developing prostate cancer. a) providing a sample obtained from said individual; b) determining in the sample of a), the methylation level of one or more biomarkers, wherein the biomarkers are a panel of nucleotide sequences, wherein the panel comprises: I') the nucleotide sequence of SEQ ID NO:2 (C1orf114); or I") a nucleotide sequence being complementary to SEQ ID NO: 2; or I′′′) a nucleotide sequence having at least 90% sequence identity to any one of I' or I"; or Iʺʺ) a fragment of any one of I', I" or I′′′, wherein the fragment comprises at least 15 consecutive nucleotides of any one of I', I" or I′′′; and I') the nucleotide sequence of SEQ ID NO:2 (C1orf114); or I") a nucleotide sequence being complementary to SEQ ID NO: 2; or I′′′) a nucleotide sequence having at least 90% sequence identity to any one of I' or I"; or Iʺʺ) a fragment of any one of I', I" or I′′′, wherein the fragment comprises at least 15 consecutive nucleotides of any one of I', I" or I′′′; and c) comparing the methylation level of the sampled nucleotide sequence of b), with the corresponding methylation level of a corresponding nucleotide sequence of a control sample, wherein a methylation level being significantly higher than the methylation level of the control sample,
A print head assembly for an ink jet printer, comprising: an ink flow path including a phase-change ink reservoir and a print head connected to the reservoir to enable a phase-change ink in fluid form to flow from the reservoir to the print head; a pressure unit configured to apply pressure to the ink; and a control unit configured to control the pressure applied to the ink by the pressure unit and to coordinate the pressure applied to the ink with temperature of the ink during a time that the ink in the ink flow path is undergoing a phase change so as to push air out of a free surface of the ink flow path. an ink flow path including a phase-change ink reservoir and a print head connected to the reservoir to enable a phase-change ink in fluid form to flow from the reservoir to the print head; a pressure unit configured to apply pressure to the ink; and a control unit configured to control the pressure applied to the ink by the pressure unit and to coordinate the pressure applied to the ink with temperature of the ink during a time that the ink in the ink flow path is undergoing a phase change so as to push air out of a free surface of the ink flow path.
A method for manufacturing a fan air guide (6, 52) comprising: (Steps A, B) providing a frame, a hub (10, 56) and a plurality of vanes (12, 54), (Steps C, D) attaching the plurality of vanes (12, 54) to the frame and/or the hub such that each of the vanes extends from the hub inside the frame to the frame, each of the vanes comprising a first end part, a second end part and an intermediate part extending between the first and second end parts, (Steps E, F) twisting a first portion of the first end part of at least a first vane of the vanes around its longitudinal axis in relation to the intermediate part of the first vane and/or twisting a first portion of the second end part of the first vane around said longitudinal axis in relation to the intermediate part so as to adjust a length of the first vane to the dimensions of the other components of the fan air guide and to a distance (d) between the frame and the hub in particular, and if not yet done, attaching the plurality of vanes (12, 54) to the frame and the hub. (Steps A, B) providing a frame, a hub (10, 56) and a plurality of vanes (12, 54), (Steps C, D) attaching the plurality of vanes (12, 54) to the frame and/or the hub such that each of the vanes extends from the hub inside the frame to the frame, each of the vanes comprising a first end part, a second end part and an intermediate part extending between the first and second end parts, (Steps E, F) twisting a first portion of the first end part of at least a first vane of the vanes around its longitudinal axis in relation to the intermediate part of the first vane and/or twisting a first portion of the second end part of the first vane around said longitudinal axis in relation to the intermediate part so as to adjust a length of the first vane to the dimensions of the other components of the fan air guide and to a distance (d) between the frame and the hub in particular, and if not yet done, attaching the plurality of vanes (12, 54) to the frame and the hub.