mhurhangee/ep-ind-claims huggingface dataset:
A method of correcting for an asymmetry of an electric field in an FT-ICR cell in a radial direction relative to an axis thereof, comprising: (a) providing an FT-ICR cell having a set of mantle electrodes; (b) supplying ions to the FT-ICR cell, wherein the ions are at least one of introduced into the FT-ICR cell, generated in the FT-ICR cell, and retained in the FT-ICR cell from a previous cycle; (c) applying an excitation voltage pulse to a first subset of the mantle electrodes so that the ions are excited onto a revolving orbit within the FT-ICR cell; (d) acquiring an image current transient with the aid of a second subset of the mantle electrodes, the image currents being induced by the revolving ions when passing the electrodes in the second subset; and (e) transforming the image current transient into a frequency or mass spectrum and observing an intensity of at least one of the ion signals with frequencies of nv R, v R being a reduced cyclotron frequency, and nv R ± mv M, v M being a magnetron frequency, where n=2, 4, 6,..., and m=1, 2, 3,...; characterized by (f) repeating the steps (b) through (e) while individually adjusting DC voltages supplied to at least one of the mantle electrodes until adjusted DC voltage settings are found which result in a lower observed intensity of the ion signal(s) compared with an initial intensity. (a) providing an FT-ICR cell having a set of mantle electrodes; (b) supplying ions to the FT-ICR cell, wherein the ions are at least one of introduced into the FT-ICR cell, generated in the FT-ICR cell, and retained in the FT-ICR cell from a previous cycle; (c) applying an excitation voltage pulse to a first subset of the mantle electrodes so that the ions are excited onto a revolving orbit within the FT-ICR cell; (d) acquiring an image current transient with the aid of a second subset of the mantle electrodes, the image currents being induced by the revolving ions when passing the electrodes in the second subset; and (e) transforming the image current transient into a frequency or mass spectrum and observing an intensity of at least one of the ion signals with frequencies of nv R, v R being a reduced cyclotron frequency, and nv R ± mv M, v M being a magnetron frequency, where n=2, 4, 6,..., and m=1, 2, 3,...; characterized by (f) repeating the steps (b) through (e) while individually adjusting DC voltages supplied to at least one of the mantle electrodes until adjusted DC voltage settings are found which result in a lower observed intensity of the ion signal(s) compared with an initial intensity.
Method for operating an industrial truck having a load pick-up means which is guided in a vertically movable fashion on a lifting mast, having lifting height-sensing means for sensing the lifting height of the load pick-up means, having a traction drive and distance travelled-sensing means for sensing a distance travelled, wherein in a first step the exceeding of a limiting lifting height by the lifting height-sensing means is detected, characterized in that for the duration of the exceeding of the limiting lifting height a distance (r aktuell) to the location of the first exceeding of the limiting lifting height is determined in that the distance travelled is sensed by the distance travelled-sensing means and is used to determine the distance (r aktuell), and a warning signal is issued and/or intervention into the traction drive is carried out in the event of a distance (r aktuell) which is greater than a safety distance (r max).
An image deformation processing device (10, 10B) for carrying out first and second deformation processes for an input image having a dot matrix form in which pixels are arranged in a first direction and a second direction which is perpendicular to the first direction, so as to deform the input image in the first direction to generate an output image having the dot matrix form, wherein a coordinate system in which a distance between two adjacent pixels is 1, is defined for each of the input image and the output image, the image deformation processing device comprising: a shift amount calculating unit configured to calculate a coordinate of the input image which is mapped to a position of a specified pixel by the deformation process, and to calculate a difference between the calculated coordinate and a coordinate of the specified pixel as a shift amount, for each specified pixel in the output image, wherein the shift amount which is caused by a first deformation process and the shift amount which is caused by a second deformation process, are calculated respectively, by summing the two shift amounts; a dispersion threshold table (14, 14A, 14B) in which a threshold is stored for each coordinate in the second direction; and an output unit (15, 16) configured to obtain the threshold corresponding to the coordinate of the specified pixel in the second direction from the dispersion threshold table (14, 14A, 14B), and to calculate a pixel shift amount by comparing the obtained threshold with a decimal component of the shift amount for the specified pixel and by rounding up or down the decimal component of the shift amount for the specified pixel, and to output the pixel in the input image, which has a coordinate shifted from the coordinate of the specified pixel by the pixel shift amount, as the specified pixel, characterized in that where a cumulative histogram of the thresholds registered in the dispersion threshold table is not linear, the image deformation processing device (10, 10B) corrects the thresholds so as to linearize the cumulative histogram. a shift amount calculating unit configured to calculate a coordinate of the input image which is mapped to a position of a specified pixel by the deformation process, and to calculate a difference between the calculated coordinate and a coordinate of the specified pixel as a shift amount, for each specified pixel in the output image, wherein the shift amount which is caused by a first deformation process and the shift amount which is caused by a second deformation process, are calculated respectively, by summing the two shift amounts; a dispersion threshold table (14, 14A, 14B) in which a threshold is stored for each coordinate in the second direction; and an output unit (15, 16) configured to obtain the threshold corresponding to the coordinate of the specified pixel in the second direction from the dispersion threshold table (14, 14A, 14B), and to calculate a pixel shift amount by comparing the obtained threshold with a decimal component of the shift amount for the specified pixel
A method for determining the type of lamp or the topology of a plurality of lamps (L1 to L4), which is/are operated using alternating voltage having variable frequency (f), characterized in that wherein the power supplied to the lamp(s) is controlled at a specific value by variation of the frequency (f), and wherein the frequency (f) obtained as a result of the control is evaluated by comparison with known frequency values for the determination of the type or topology.
A push-pull MIG welding torch comprising: a handle connected on one end to a power cable assembly and upstream to a wire feeder and connected on an opposite end to a gooseneck and contact tip assembly; a body block disposed in the handle; and a pulling mechanism mounted on the body block and including a pair of spaced, peripherally adjacent drive rolls that are cooperable to pull welding wire from the power cable assembly through the handle and towards the gooseneck; the pair of drive rolls including a motorized driving gear and an idler wheel that is urged towards the driving gear to engage the welding wire therebetween; characterised in that the idler wheel is made of a highly conductive material and electrically connected to the body block, and the driving gear being insulated from the body block; and in that the contact tip assembly provides a primary electrical contact point for transfer of electric current from a power source to the welding wire, and the idler wheel simultaneously provides a secondary electrical contact point for transfer of electric current from a power source to the welding wire. a handle connected on one end to a power cable assembly and upstream to a wire feeder and connected on an opposite end to a gooseneck and contact tip assembly; a body block disposed in the handle; and a pulling mechanism mounted on the body block and including a pair of spaced, peripherally adjacent drive rolls that are cooperable to pull welding wire from the power cable assembly through the handle and towards the gooseneck; the pair of drive rolls including a motorized driving gear and an idler wheel that is urged towards the driving gear to engage the welding wire therebetween; characterised in that the idler wheel is made of a highly conductive material and electrically connected to the body block, and the driving gear being insulated from the body block; and in that the contact tip assembly provides a primary electrical contact point for transfer of electric current from a power source to the welding wire, and the idler wheel simultaneously provides a secondary electrical contact point for transfer of electric current from a power source to the welding wire.
A cooling device comprising a body, wherein foods and beverages are placed, a door that separates the body from the outside so as to provide sealing and allows access to the inside, a crisper disposed in the body, a crisper cover disposed on the crisper separating the crisper from a body inner volume, a lid disposed between the crisper cover and the crisper covering the crisper, one or more inlets disposed on the lid and allowing air passing through an opening to enter into the crisper, and one or more outlets allowing exit of the air from the inside of the crisper, said lid having at least one fin disposed on the side of the inlet, bent in the opposite direction of the air flow partially covering the inlet, providing some of the air to be directed into the crisper by passing through the inlet, said crisper being characterized by a guide forming a set opposite the air that passes into the crisper through the inlet by bending so as to partially cover the underside of the inlet, and providing the air to be directed so as to sweep the lower surface of the lid all along in the crisper.
Palovarotene, or a pharmaceutically acceptable salt thereof, for use in a method of reducing heterotopic ossification in a subject with fibrodysplasia ossificans progressiva, said method comprising: (i) during a period when the subject is not experiencing any flare-up symptom and is not at risk of heterotopic ossification triggered by surgery orally administering daily to the subject an amount of 5 mg of palovarotene, or a pharmaceutically acceptable salt thereof, and (ii) during a period when the subject is experiencing at least one flare-up symptom or is at risk of heterotopic ossification triggered by surgery orally administering daily to the subject 20 mg of palovarotene, or a pharmaceutically acceptable salt thereof for 28 days, followed by administering daily to the subject 10 mg of palovarotene, or a pharmaceutically acceptable salt thereof, for at least 56 days.
Method for controlling a drive unit of a vehicle, in which a fault is detected on the basis of the comparison of a first acceleration variable, which is calculated at least on the basis of the operating state of the drive unit, and a second acceleration variable, wherein the second acceleration variable includes a first component in the direction of the longitudinal axis of the vehicle, and a second component perpendicular to the longitudinal axis of the vehicle, characterized in that the first acceleration variable is calculated at least on the basis of the vehicle mass, and in that the second acceleration variable which is measured by means of at least one sensor is taken into account as an operating state of the drive unit, and wherein the vehicle mass is calculated in specific operating states at least on the basis of the second acceleration variable.
A method of performing packet switched handover by a mobile node, comprising: - Forming a first logical link layer entity in the mobile node for connecting to a first packet switching node, and - Detecting a handover condition in the mobile node, Characterised in that the method further comprises: - Forming a second logical link layer entity in the mobile node for a connection between the second logical linked layer entity and a second packet switching node; - Receiving logical link layer frames from said first and second packet switching nodes during handover; - Detecting handover completion; and - Renegotiating logical link layer parameters between said mobile node and said second packet switching node after said detecting of said handover completion when the logical link layer parameters are not suitable. - Forming a first logical link layer entity in the mobile node for connecting to a first packet switching node, and - Detecting a handover condition in the mobile node, - Forming a second logical link layer entity in the mobile node for a connection between the second logical linked layer entity and a second packet switching node; - Receiving logical link layer frames from said first and second packet switching nodes during handover; - Detecting handover completion; and - Renegotiating logical link layer parameters between said mobile node and said second packet switching node after said detecting of said handover completion when the logical link layer parameters are not suitable.
A steam generator comprising: a case (10, 70; 110, 120) that forms a predetermined space to store water, the case (10, 70; 110, 120) comprising an upper case (70; 120) and a lower case (10; 110) fastened to the upper case (70; 120); a heater (50; 140) provided within the case, the heater (50; 140) comprising a plate heater; a sealing member (30, 90; 150) to prevent water leakage from the case (10, 70; 110, 120), wherein the sealing member (30, 90; 150) seals the heater (50; 140) to a portion of the case (10, 70; 110, 120) to prevent water from penetrating through a circuit part of the heater (50; 140); and a pressure part (76; 130) for pressing the sealing member (30, 90; 150) and the heater (50; 140), the pressure part (76; 130) extending from the upper case (70; 120) to the lower case (10; 110), characterized in that: the lower case (10; 110) includes a bent piece (12; 112) that is bent inward toward an interior of the case (10, 70; 110, 120) from a lower end of the lower case (10; 110), wherein a bottom surface of the lower case (10; 110) includes an opened portion, and the sealing member comprises a first sealing member (30; 150) provided between the bent piece (12; 112) and the plate heater (50; 140) and a second sealing member provided on a portion where the upper case (70; 120) contacts the lower case (10; 110). a case (10, 70; 110, 120) that forms a predetermined space to store water, the case (10, 70; 110, 120) comprising an upper case (70; 120) and a lower case (10; 110) fastened to the upper case (70; 120); a heater (50; 140) provided within the case, the heater (50; 140) comprising a plate heater; a sealing member (30, 90; 150) to prevent water leakage from the case (10, 70; 110, 120), wherein the sealing member (30, 90; 150) seals the heater (50; 140) to a portion of the case (10, 70; 110, 120) to prevent water from penetrating through a circuit part of the heater (50; 140); and a pressure part (76; 130) for pressing the sealing member (30, 90; 150) and the heater (50; 140), the pressure part (76; 130) extending from the upper case (70; 120) to the lower case (10; 110), the lower case (10; 110) includes a bent piece (12; 112) that is bent inward toward an interior of the case (10, 70; 110, 120) from a lower end of the lower case (10; 110), wherein a bottom surface of the lower case (10; 110) includes an opened portion, and the sealing member comprises a first sealing member (30; 150) provided between the bent piece (12; 112) and the plate heater (50; 140) and a second sealing member provided on a portion where the upper case (70; 120) contacts the lower case (10; 110).
An oil removal apparatus configured in use to remove oil particles contained in blow-by gas flowing through a blow-by gas passage of an internal combustion engine, the oil removal apparatus comprising: a bipolar electrode (61, 62) having an anode (61a, 62a) and a cathode (61b, 62b) that extend in a flow direction of said blow-by gas; a filter (63, 67) formed from a dielectric and disposed between said anode (61a, 62a) and said cathode (61b, 62b) of said bipolar electrode (61, 62); and a control unit that is configured to control application of a voltage to said bipolar electrode (61, 62), wherein said control unit is configured to control application of said voltage to said bipolar electrode (61, 62) such that while said internal combustion engine is operative, a voltage application period in which said voltage is applied to said bipolar electrode (61, 62) and a voltage application stoppage period in which application of said voltage to said bipolar electrode (61, 62) is stopped are repeated alternately at predetermined periodic intervals, wherein the time period of the predetermined periodic intervals is shorter than a time period in which the oil particles flow out of said filter (63, 67) after flowing into said filter (63, 67). a bipolar electrode (61, 62) having an anode (61a, 62a) and a cathode (61b, 62b) that extend in a flow direction of said blow-by gas; a filter (63, 67) formed from a dielectric and disposed between said anode (61a, 62a) and said cathode (61b, 62b) of said bipolar electrode (61, 62); and a control unit that is configured to control application of a voltage to said bipolar electrode (61, 62), wherein said control unit is configured to control application of said voltage to said bipolar electrode (61, 62) such that while said internal combustion engine is operative, a voltage application period in which said voltage is applied to said bipolar electrode (61, 62) and a voltage application stoppage period in which application of said voltage to said bipolar electrode (61, 62) is stopped are repeated alternately at predetermined periodic intervals, wherein the time period of the predetermined periodic intervals is shorter than a time period in which the oil particles flow out of said filter (63, 67) after flowing into said filter (63, 67).
An antibody or antigen-binding fragment thereof that binds human leptin receptor (LEPR) and activates LEPR signaling comprising a heavy chain variable region (HCVR) that comprises the HCDR1, HCDR2 and HCDR3 of a HCVR that comprises the amino acid sequence set forth in SEQ ID NO: 26, and a light chain variable region (LCVR) that comprises the LCDR1, LCDR2 and LCDR3 of a LCVR that comprises the amino acid sequence set forth in SEQ ID NO: 10, wherein the CDRs are identified by Kabat, Chothia, or AbM, and a pharmaceutically acceptable carrier or diluent for use in a method for increasing bone mass in a subject having low bone mass which is a symptom of a metabolic dysfunction or hypoleptinemia from which the subject suffers, said method comprising administering a therapeutically effective amount of the antibody or antigen-binding fragment thereof and the pharmaceutically acceptable carrier or diluent to the subject in need thereof.
A cosmetic method for slimming, the method consisting of applying, twice a day, morning and evening, for 8 weeks, to the area to be treated a topical cream composition consisting of: i. 0.5% w/w of Nelumbo nucifera (Lotus) Extract, obtained from the whole plant, having a dry matter ranging from between 6.59-6.78% w/w, total soluble sugars ranging from between 2.29-2.54% w/w and total phenolic compounds ranging from 1.33-1.58% w/w; and ii. a dermatologically acceptable carrier consisting of, in % w/w, 0.05% Tetrasodium EDTA, 3.00% Water/Aqua (and) Glycerin (and) Glyceryl Acrylate/Acrylic Acid Copolymer (and) Phenoxyethanol, 1.00% Phenoxyethanol (and) Methylparaben (and) Ethylparaben (and) Propylparaben, 0.60% Acrylic Acid/VP Crosspolymer, 0.05% Sodium Hydroxide, 2.00% Bis-Stearoxydimethylsilane (and) stearyl alcohol (and) Dimethicone, 2.00% PEG-100 Stearate (and) Glyceryl Stearate, 2.00% Butyrospermum Parkii (Shea) Butter, 1.50% Cetyl Lactate, 2.00% Isocetyl Stearoyl Stearate, 3.00% Octyldodecyl Stearate, 4.00% Ethylhexyl Palmitate, and qsp Water/Aqua. i. 0.5% w/w of Nelumbo nucifera (Lotus) Extract, obtained from the whole plant, having a dry matter ranging from between 6.59-6.78% w/w, total soluble sugars ranging from between 2.29-2.54% w/w and total phenolic compounds ranging from 1.33-1.58% w/w; and ii. a dermatologically acceptable carrier consisting of, in % w/w, 0.05% Tetrasodium EDTA, 3.00% Water/Aqua (and) Glycerin (and) Glyceryl Acrylate/Acrylic Acid Copolymer (and) Phenoxyethanol, 1.00% Phenoxyethanol (and) Methylparaben (and) Ethylparaben (and) Propylparaben, 0.60% Acrylic Acid/VP Crosspolymer, 0.05% Sodium Hydroxide, 2.00% Bis-Stearoxydimethylsilane (and) stearyl alcohol (and) Dimethicone, 2.00% PEG-100 Stearate (and) Glyceryl Stearate, 2.00% Butyrospermum Parkii (Shea) Butter, 1.50% Cetyl Lactate, 2.00% Isocetyl Stearoyl Stearate, 3.00% Octyldodecyl Stearate, 4.00% Ethylhexyl Palmitate, and qsp Water/Aqua.