mhurhangee/ep-ind-claims huggingface dataset:
Mobile machine tool, namely a manually-operated machine tool or semi-stationary machine tool, for machining a workpiece, wherein the machine tool has an in particular plate-like guide element with a guide surface for guiding the machine tool on the workpiece or the workpiece on the machine tool, wherein the machine tool has a drive unit with a drive motor for driving a tool holder arranged on the drive unit in order to hold a work tool, wherein the machine tool has a tool sensor (61, 62), the detection range of which (EB1, EB2) is directed at at least a partial region of the machine tool, and wherein the machine tool has an evaluation device for evaluating a tool sensor signal generated by the tool sensor (61, 62), and wherein a reference marking (R1, R2) which can be detected by the tool sensor (61, 62) is arranged within the detection range (EB1, EB2) of the tool sensor, characterised in that the evaluation device is configured to determine at least one correction value for the tool sensor signal depending on the reference marking (R1, R2) and the reference marking (R1, R2) comprises a pattern or arrangement of lines or a barcode or one or more points.
An electrolytic capacitor comprising: (a) a capacitor element having a positive electrode, said positive electrode having a solid organic conductive material on a surface thereof, a negative electrode, and a solid organic conductive material disposed between said positive electrode and said negative electrode, (b) an electrolyte, (c) a case for accommodating said capacitor element and said electrolyte, and (d) a sealing member disposed to cover the opening of said case, characterized in that said electrolyte is a liquid electrolyte capable of diffusing in the solid organic conductive material functioning as a solid electrolyte so as to constitute together an impregnated electrolyte of said electrolyte capacitor, and an electrical connection between said positive electrode and said negative electrode is enhanced by the solid organic conductive material disposed between said positive electrode and said negative electrode. (a) a capacitor element having a positive electrode, said positive electrode having a solid organic conductive material on a surface thereof, a negative electrode, and a solid organic conductive material disposed between said positive electrode and said negative electrode, (b) an electrolyte, (c) a case for accommodating said capacitor element and said electrolyte, and (d) a sealing member disposed to cover the opening of said case,
An aircraft comprising: an aircraft structure; a plurality of flight control surfaces attached to the aircraft structure; and a plurality of local hydraulic power packs disposed proximal to the plurality of flight control surfaces and configured to provide pressurized hydraulic fluid for actuating a least two of said flight control surfaces, each local hydraulic power pack comprising a reservoir for the hydraulic fluid and two hydraulic pumps (40A/B) for pressurizing the hydraulic fluid, wherein the plurality of local hydraulic power packs are configured to combine the hydraulic fluid pressurized by both of the hydraulic pumps (40A/B), wherein at least one of the plurality of flight control surfaces is actuated using pressurized hydraulic fluid from at least two of the plurality of local hydraulic power packs, and an operating pressure of at least one of the local hydraulic power packs is controllable based on a phase of flight of the aircraft, the at least one of the local hydraulic power packs being operable at a reduced operating pressure during a cruise phase of flight of the aircraft. an aircraft structure; a plurality of flight control surfaces attached to the aircraft structure; and a plurality of local hydraulic power packs disposed proximal to the plurality of flight control surfaces and configured to provide pressurized hydraulic fluid for actuating a least two of said flight control surfaces, each local hydraulic power pack comprising a reservoir for the hydraulic fluid and two hydraulic pumps (40A/B) for pressurizing the hydraulic fluid, wherein the plurality of local hydraulic power packs are configured to combine the hydraulic fluid pressurized by both of the hydraulic pumps (40A/B), wherein at least one of the plurality of flight control surfaces is actuated using pressurized hydraulic fluid from at least two of the plurality of local hydraulic power packs, and
A semiconductor device comprising: a substrate; a gate electrode layer over the substrate; a gate insulating layer over the gate electrode layer; an oxide semiconductor layer over the gate insulating layer; and a source electrode layer and a drain electrode layer electrically connected to the oxide semiconductor layer, wherein the oxide semiconductor layer has a stacked-layer structure formed by stacking two or more oxide semiconductor layers each of which has a different composition, wherein the oxide semiconductor layer includes an amorphous region and a crystal region, wherein the amorphous region contains an amorphous oxide semiconductor containing In, Ga, and Zn, wherein the crystal region contains crystal grains of In 2 Ga 2 ZnO 7 in a region having a distance from an upper surface of the oxide semiconductor layer of either 20 nm or less or, where the oxide semiconductor layer has a thickness of 200 nm or more, a distance from the upper surface of 10% or lower of the thickness of the oxide semiconductor, and wherein the crystal grains are oriented so that a c-axis is within ± 10° from a vertical direction with respect to the upper surface. a substrate; a gate electrode layer over the substrate; a gate insulating layer over the gate electrode layer; an oxide semiconductor layer over the gate insulating layer; and a source electrode layer and a drain electrode layer electrically connected to the oxide semiconductor layer, wherein the oxide semiconductor layer has a stacked-layer structure formed by stacking two or more oxide semiconductor layers each of which has a different composition, wherein the oxide semiconductor layer includes an amorphous region and a crystal region, wherein the amorphous region contains an amorphous oxide semiconductor containing In, Ga, and Zn, wherein the crystal region contains crystal grains of In 2 Ga 2 ZnO 7 in a region having a distance from an upper surface of the oxide semiconductor layer of either 20 nm or less or, where the oxide semiconductor layer has a thickness of 200 nm or more, a distance from the upper surface of 10% or lower of the thickness of the oxide semiconductor, and wherein the crystal grains are oriented so that a c-axis is within ± 10° from a vertical direction with respect to the upper surface.
Catalyst system for reducing harmful exhaust gases from vehicles with gasoline combustion engines operated predominantly, on average, stoichiometrically, having, in this sequence: i) a three-way catalyst arranged close to the engine, ii) an SCR catalyst, arranged in the underfloor of the vehicle, having an NH 3 -storing capacity, and iii) an additional three-way catalyst arranged downstream of the SCR catalyst, characterized in that the additional three-way catalyst arranged downstream of the SCR catalyst has less oxygen-storing capacity in mg per liter of catalyst volume than the three-way catalyst close to the engine. i) a three-way catalyst arranged close to the engine, ii) an SCR catalyst, arranged in the underfloor of the vehicle, having an NH 3 -storing capacity, and iii) an additional three-way catalyst arranged downstream of the SCR catalyst,
A nebulizer comprising: an aerosol generator, a main controller adapted to drive the aerosol generator, and a nebulizer control device connected by an input cable to the main controller and by an output cable to the aerosol generator, wherein the nebuliser control device (1, 10) comprises: a manually adjustable user interface (2, 12, 31), an input cable (3, 13) extending from the interface to the main controller, and an output cable (4, 14) extending from the interface (2, 12, 31) to the aerosol generator, wherein: the nebulizer control device is adapted to locally, by user manual adjustment of the user interface: adjust a signal received on the input cable to provide a modified signal on the output cable to adjust operation of an aerosol generator, vary power supplied to the aerosol generator, and to adjust a signal to vary the output rate, and to limit the extent of adjustment to a range less than a range from shut-off to maximum output rate. an aerosol generator, a main controller adapted to drive the aerosol generator, and a nebulizer control device connected by an input cable to the main controller and by an output cable to the aerosol generator, wherein the nebuliser control device (1, 10) comprises: a manually adjustable user interface (2, 12, 31), an input cable (3, 13) extending from the interface to the main controller, and an output cable (4, 14) extending from the interface (2, 12, 31) to the aerosol generator, wherein: the nebulizer control device is adapted to locally, by user manual adjustment of the user interface: adjust a signal received on the input cable to provide a modified signal on the output cable to adjust operation of an aerosol generator, vary power supplied to the aerosol generator, and to adjust a signal to vary the output rate, and to limit the extent of adjustment to a range less than a range from shut-off to maximum output rate. a manually adjustable user interface (2, 12, 31), an input cable (3, 13) extending from the interface to the main controller, and an output cable (4, 14) extending from the interface (2, 12, 31) to the aerosol generator, wherein: the nebulizer control device is adapted to locally, by user manual adjustment of the user interface: adjust a signal received on the input cable to provide a modified signal on the output cable to adjust operation of an aerosol generator, vary power supplied to the aerosol generator, and to adjust a signal to vary the output rate, and to limit the extent of adjustment to a range less than a range from shut-off to maximum output rate. adjust a signal received on the input cable to provide a modified signal on the output cable to adjust operation of an aerosol generator, vary power supplied to the aerosol generator, and to adjust a signal to vary the output rate, and to limit the extent of adjustment to a range less than a range from shut-off to maximum output rate.
Compounds of the formula in which the radicals R 1 and R 2 in each case together have the following meanings: R 1 R 2 -CH 3 -C 2 H 5 -CH 3 -C 3 H 7 -CH 3 -C 4 H 9 -CH 3 -C 5 H 11 -CH 3 -C 6 H 13 where the radicals R 1/2 are unbranched.
Process for the production of a hydrophobic thermal-insulation moulding, in which a hydrophilic thermal-insulation moulding composed of a thermal-insulation mixture comprising a fine-particle silica, IR opacifier and fibre material is brought into contact with a hydrophobizing agent in vapour form with formation of a thermal-insulation moulding coated with hydrophobizing agent, and this is then subjected to a press process and during the press process and after the press process is reacted with the hydrophobizing agent with formation of the hydrophobic thermal-insulation moulding, where the density of the hydrophobic thermal-insulation moulding after the press process and after the reaction with the hydrophobizing agent is from 100 to 250 kg/m 3, characterized in that the thermal-insulation body is a thermal-insulation sheet, and the process is carried out continuously by the contact, the press process and the hydrophobizing reacting taking place between two gas-permeable, moving belts of a press, wherein the contact between the hydrophilic thermal-insulation sheet and the hydrophobizing agent, and the reaction of the hydrophobizing agent, is achieved in a chamber surrounding the belt when the density of the hydrophilic thermal-insulation sheet on contact with the hydrophobizing agent is from 50% to less than 100% of the density of the hydrophobic thermal-insulation moulding, and the hydrophilic thermal-insulation sheet with its coating of hydrophobizing agent is subjected to a press process to give the final density, and after the press process is reacted at elevated temperature, where the contact temperature T contact is from -30°C to 150°C and the reaction temperature T reaction is from 50°C to 500°C.
Multi-clamping and measuring and/or presetting station for tools, which is configured for an automated, preferably fully automated, mounting of tools into tool holders and/or demounting of tools from tool holders and for an adjustment, in particular at least a length adjustment, and/or measuring of the tools in the tool holders, with at least two, in particular fully automated, tool clamping-in units (14, 16), with at least one, in particular optical, measuring and/or presetting apparatus for tools and with at least one handling robot, which is at least configured to move tools and tool holders between the tool clamping-in units (14, 16) and the measuring and/or presetting apparatus, characterised in that the at least two, in particular fully automated, tool clamping-in units (14, 16) are embodied as different tool clamping-in units (14, 16), which are at least configured for an automated, preferably fully automated, mounting of tools in respectively different tool holders with respectively different clamping methods, and/or for an automated, preferably fully automated, demounting of tools from respectively different tool holders with respectively different clamping methods. with at least two, in particular fully automated, tool clamping-in units (14, 16), with at least one, in particular optical, measuring and/or presetting apparatus for tools and with at least one handling robot, which is at least configured to move tools and tool holders between the tool clamping-in units (14, 16) and the measuring and/or presetting apparatus, characterised in that the at least two, in particular fully automated, tool clamping-in units (14, 16) are embodied as different tool clamping-in units (14, 16), which are at least configured for an automated, preferably fully automated, mounting of tools in respectively different tool holders with respectively different clamping methods, and/or for an automated, preferably fully automated, demounting of tools from respectively different tool holders with respectively different clamping methods.
A recording apparatus adapted to perform at least one mode, wherein in one mode a background ink composition is recorded on an image which has been recorded using a coloring ink composition; the recording apparatus including an ink set comprising: the background ink composition, which contains one of a white pigment and a glitter pigment as a background pigment; and the coloring ink composition, which contains a coloring pigment, wherein: the surface tension of the background ink composition S1 (mN/m) and the surface tension of the coloring ink composition S2 (mN/m) satisfy the relationship: − 5 < S 1 − S 2 < 4; a sedimentation speed v1 of the background pigment in the background ink composition is higher than a sedimentation speed v2 of the coloring pigment in the coloring ink composition; and the sedimentation speed v1 of the background pigment is 2.0 × 10 -6 (cm/s) or higher; wherein the sedimentation speeds v1 and v2 of the background pigment and the coloring pigment are each obtained by the Stokes' equation: v = ρ − ρ w gR 2 / 18 η wherein v represents the sedimentation speed (m/s), ρ represents a density of the pigment (kg/m 3), ρ w represents a density of the solvent (kg/m 3), g represents acceleration of gravity (m/s 2), R represents a diameter of the pigment (m), and η represents a viscosity of the solvent (Pa·s). the background ink composition, which contains one of a white pigment and a glitter pigment as a background pigment; and the coloring ink composition, which contains a coloring pigment, wherein: the surface tension of the background ink composition S1 (mN/m) and the surface tension of the coloring ink composition S2 (mN/m) satisfy the relationship: − 5 < S 1 − S 2 < 4; a sedimentation speed v1 of the background pigment in the background ink composition is higher than a sedimentation speed v2 of the coloring pigment in the coloring ink composition; and the sedimentation speed v1 of the background pigment is 2.0 × 10 -6 (cm/s) or higher; the surface tension of the background ink composition S1 (mN/m) and the surface tension of the coloring ink composition S2 (mN/m) satisfy the relationship: − 5 < S 1 − S 2 < 4; a sedimentation speed v1 of the background pigment in the background ink composition is higher than a sedimentation speed v2 of the coloring pigment in the coloring ink composition; and the sedimentation speed v1 of the background pigment is 2.0 × 10 -6 (cm/s) or higher; wherein the sedimentation speeds v1 and v2 of the background pigment and the coloring pigment are each obtained by the Stokes' equation: v = ρ − ρ w gR 2 / 18 η wherein v represents the sedimentation speed (m/s), ρ represents a density of the pigment (kg/m 3), ρ w represents a density of the solvent (kg/m 3), g represents acceleration of gravity (m/s 2), R represents a diameter of the pigment (m), and η represents a viscosity of the solvent (Pa·s).
A method of isolating glycosaminoglycans capable of binding to a protein having a heparin-binding domain, wherein the protein is characterized by or comprises SEQ ID NO: 1, the method comprising: (i) providing a solid support having polypeptide molecules adhered to the support that are characterized by, or comprise, SEQ ID NO:1; (ii) contacting the polypeptide molecules with a mixture comprising glycosaminoglycans such that polypeptide-glycosaminoglycan complexes are allowed to form; (iii) partitioning polypeptide-glycosaminoglycan complexes from the remainder of the mixture; (iv) dissociating glycosaminoglycans from the polypeptide-glycosaminoglycan complexes; (v) collecting the dissociated glycosaminoglycans. (i) providing a solid support having polypeptide molecules adhered to the support that are characterized by, or comprise, SEQ ID NO:1; (ii) contacting the polypeptide molecules with a mixture comprising glycosaminoglycans such that polypeptide-glycosaminoglycan complexes are allowed to form; (iii) partitioning polypeptide-glycosaminoglycan complexes from the remainder of the mixture; (iv) dissociating glycosaminoglycans from the polypeptide-glycosaminoglycan complexes; (v) collecting the dissociated glycosaminoglycans.
An absorbent article comprising a layered structure with an absorbent material sandwiched between at least two layers (120, 122) of said layered structure and at least one elongate tab (100; 200; 300), each elongate tab comprising an attached portion (105; 205; 305) by which the tab is permanently attached to at least one layer (110; 210; 310) of the layered structure and, spaced from the attached portion, a fastening portion (106; 206; 306) with hooks provided for releasably engaging a landing zone on the absorbent article, wherein the at least one elongate tab comprises a complete layer (103; 204; 304) of a predetermined thermoplastic material which is deformable by means of an energy source chosen from: heat, ultrasonic vibrations, micro waves, and infrared radiation; and wherein at least the attached portion and the fastening portion of each tab are made from said layer of predetermined thermoplastic material, wherein the attached portion comprises a weld (105; 205; 305), the weld of the attached portion and the hooks (106; 206; 306) of the fastening portion being integrally formed deformations of said predetermined thermoplastic material.
An adsorbent for use in an extracorporeal circulation for reducing the hepcidin concentration in blood or blood plasma, comprising a matrix and a ligand which is bound covalently to the matrix and which binds hepcidin with an affinity having a dissociation constant KD of less than 200 nM.
Use of a composition comprising: at least one alkyl lactyllactate of the following general structure: wherein R is an alkyl group or alkoxylated alkyl group, wherein the alkyl is straight, branched, saturated or unsaturated; and at least one surfactant as a personal care composition. at least one alkyl lactyllactate of the following general structure: wherein R is an alkyl group or alkoxylated alkyl group, wherein the alkyl is straight, branched, saturated or unsaturated; and at least one surfactant as a personal care composition.
An anti-rotation device for a distributor inner shaft structure of a filling machine, comprising an upright column and a bracket fastened on the upright column, characterized in that the anti rotation device further comprising two swing arms arranged in opposite directions, and two connecting rods arranged in parallel, wherein the upright column is fixed on the ground or fixedly connected to a non-rotating base frame of the filling machine, the middle parts of the two swing arms are respectively hinged on the bracket so as to be able to swing horizontally, and the end parts of the two swing arms in opposite directions have meshing gear teeth; wherein the two connecting rods are located between the swing arms and the inner shaft structure of the distributor, one end of each connecting rod is respectively hinged to the other end of the corresponding swing arm, and the other ends of the two connecting rods are then respectively hinged to the lower part of the inner shaft structure of the distributor, and are capable of swinging horizontally relative to the swing arms and the inner shaft structure.
An operating device for an illuminant, comprising a power factor correction circuit, a transformer, which is connected to the power factor correction circuit and has an output for supplying energy to the illuminant, and a control device with an input for detecting a voltage (Vbus) provided to the transformer by the power factor correction circuit, characterized in that the control device is configured to perform an evaluation of voltage ripples of the voltage (Vbus) and based on the evaluation of the voltage ripple to determine a load connected to the output of the transformer by using a characteristic field, and that the control device is configured to determine sample values (65, 66, 68, 69) of the voltage (Vbus) during a time interval.
A direct-current electric motor provided with a first basic element having a shape of a disc or a disc sector made of magnetically conductive material and carrying a single system of unipolar oriented magnets on its outside curved circumference and further provided with a second basic element having a shape of a disc or a disc sector made of a magnetically non-conductive material, the second basic element located axially spaced apart from the first- basic element carries at least one coil with leads for connection to a source of d-c current, while the first and the second basic elements (1,2) are mutually movable and the coil is located on a core made of a magnetically conductive material and arranged radially spaced apart along the system of the magnets such that the magnetic flux in an air-gap being oriented radially with respect to the motor axis of rotation, wherein the motor axis of rotation is perpendicular to the basic elements (1,2) and passes through the centre of the first basic element curvature.
Control module for an electric appliance comprising a printed circuit board, on which are mounted electrical and electronic components and at least one power transistor, fixed onto a first area of the printed circuit board and comprising a first terminal called drain, linked to a first electrically conductive track of said first area, a second terminal called source and linked to a second electrically conductive track of a second area of the printed circuit board and a third terminal called gate, characterized in that the printed circuit board comprises at least one opening forming a discontinuity of material, at least partial, between the first and second areas (20, 21) of the printed circuit board, said opening being situated between the first and second conductive tracks (22, 23).