mhurhangee/ep-ind-claims huggingface dataset:
Seeker head which can be attached to a carrier, in particular to a missile, comprising: - a plurality of optical seekers (2, 3) each having an optical axis (20, 30), - a holding means, which can be fixed with respect to the carrier, for receiving the plurality of optical seekers (2, 3), - an actuator system, the actuator system being set up to move the holding device relative to the carrier, and - a calculation device, which is set up to specify a sighting line of the seeker head, - the actuator system being set up to pivot one of the optical axes (20, 30) selectively into the sighting line, - the individual optical axes (20, 30) of the optical seekers (2, 3) passing through a frame pivot of the holding device and the holding device being formed as a gimbal frame body, and - each of the optical seekers (2, 3) having an operating range having a wavelength range that is different from a wavelength range of every other optical seeker (2, 3), characterised in that - the optical axes (20, 30) are angled at an acute angle to one another. - a plurality of optical seekers (2, 3) each having an optical axis (20, 30), - a holding means, which can be fixed with respect to the carrier, for receiving the plurality of optical seekers (2, 3), - an actuator system, the actuator system being set up to move the holding device relative to the carrier, and - a calculation device, which is set up to specify a sighting line of the seeker head, - the actuator system being set up to pivot one of the optical axes (20, 30) selectively into the sighting line, - the individual optical axes (20, 30) of the optical seekers (2, 3) passing through a frame pivot of the holding device and the holding device being formed as a gimbal frame body, and - each of the optical seekers (2, 3) having an operating range having a wavelength range that is different from a wavelength range of every other optical seeker (2, 3), - the optical axes (20, 30) are angled at an acute angle to one another.
A peptide ligand specific for human Kallikrein comprising a polypeptide comprising at least three reactive groups, separated by at least two loop sequences, and a molecular scaffold which forms covalent bonds with the reactive groups of the polypeptide such that at least two polypeptide loops are formed on the molecular scaffold, wherein the loops of the peptide ligand comprises five amino acids and one loop comprises the motif G r A(ψCH 2 NH)H Q / T xLG r, wherein G r is a reactive group.
Assembly system, comprising a plurality of positioning devices and a control system for controlling the drives (12, 18) of the individual positioning devices, wherein each of the positioning devices comprises - a first member, - a second member following the first member, said second member being rotatable by means of a first drive of the positioning device relative to a vertically aligned first axis, - a third member following the second member, which third member can be rotated by means of a second drive of the positioning device relative to a vertically aligned second axis, and - a fourth member following the third member, which fourth member can be displaced linearly by means of a third drive of the positioning device along a vertically aligned third axis and can be secured or is able to be secured to a holding device for holding a component, wherein the positioning devices are designed such that during a movement of the corresponding second members relative to the corresponding first axes and/or the corresponding third members relative to the corresponding second axes the orientations of the holding devices remain unchanged. - a first member, - a second member following the first member, said second member being rotatable by means of a first drive of the positioning device relative to a vertically aligned first axis, - a third member following the second member, which third member can be rotated by means of a second drive of the positioning device relative to a vertically aligned second axis, and - a fourth member following the third member, which fourth member can be displaced linearly by means of a third drive of the positioning device along a vertically aligned third axis and can be secured or is able to be secured to a holding device for holding a component, wherein the positioning devices are designed such that during a movement of the corresponding second members relative to the corresponding first axes and/or the corresponding third members relative to the corresponding second axes the orientations of the holding devices remain unchanged.
A method for producing manganese containing ferroalloy for steel production, comprising the steps of: - producing an agglomeration mixture comprising chromite ore concentrate and manganese ore fines with a grain size smaller than 9 mm, - agglomerating the agglomeration mixture to produce green agglomeration products, - sintering the green agglomeration products in a steel belt sintering furnace to produce sinter or sintered pellets, and - smelting the sinter or sintered pellets in a submerged arc furnace to produce manganese and chromium containing ferroalloy. - producing an agglomeration mixture comprising chromite ore concentrate and manganese ore fines with a grain size smaller than 9 mm, - agglomerating the agglomeration mixture to produce green agglomeration products, - sintering the green agglomeration products in a steel belt sintering furnace to produce sinter or sintered pellets, and - smelting the sinter or sintered pellets in a submerged arc furnace to produce manganese and chromium containing ferroalloy.
A method for treating a portion of a wellbore or a portion of a subterranean formation, the method comprising the step of: introducing a composition through a wellbore to treat a portion of a wellbore or a portion of a subterranean formation, wherein the composition comprises: (i) water; (ii) a xanthan polymer (iii) a source of hydrogen peroxide, and (iv) either: (a) a water-soluble alkanoyl-donor compound, having a leaving group, with a pKa in the range of 6 to 13 and a buffering agent selected to help maintain the pH of the composition in any range within a range of 3 to 8, or (b) an activator selected from the group consisting of (i) a chelated transition metal, (ii) a chelating agent and a transition metal, and (iii) any combination thereof in any proportion, and a buffering agent selected to help maintain the pH of the composition in any range within a range of 3 to 10. introducing a composition through a wellbore to treat a portion of a wellbore or a portion of a subterranean formation, wherein the composition comprises: (i) water; (ii) a xanthan polymer (iii) a source of hydrogen peroxide, and (iv) either: (a) a water-soluble alkanoyl-donor compound, having a leaving group, with a pKa in the range of 6 to 13 and a buffering agent selected to help maintain the pH of the composition in any range within a range of 3 to 8, or (b) an activator selected from the group consisting of (i) a chelated transition metal, (ii) a chelating agent and a transition metal, and (iii) any combination thereof in any proportion, and a buffering agent selected to help maintain the pH of the composition in any range within a range of 3 to 10. (i) water; (ii) a xanthan polymer (iii) a source of hydrogen peroxide, and (iv) either: (a) a water-soluble alkanoyl-donor compound, having a leaving group, with a pKa in the range of 6 to 13 and a buffering agent selected to help maintain the pH of the composition in any range within a range of 3 to 8, or (b) an activator selected from the group consisting of (i) a chelated transition metal, (ii) a chelating agent and a transition metal, and (iii) any combination thereof in any proportion, and a buffering agent selected to help maintain the pH of the composition in any range within a range of 3 to 10.
A method for preparing bitter Ganoderma lucidum spore powder, comprising the following steps: removing visible impurities from Ganoderma lucidum spores; ice bathing the Ganoderma lucidum spores obtained in step, then mixing the ice-bathed Ganoderma lucidum spores with water, and heating the mixture at 90-100°C for 1.5-3 h to obtain a suspension of Ganoderma lucidum spores; filtering the suspension of Ganoderma lucidum spores obtained in step through a microfiltration membrane, and collecting the filter residue with a particle diameter of more than 5 μm and the filtrate with a particle diameter of less than 1 μm; mixing the filter residue and filtrate obtained in step, and then drying and sterilizing the mixture; and conducting sporoderm disruption of the material sterilized in step to obtain the bitter Ganoderma lucidum spore powder. removing visible impurities from Ganoderma lucidum spores; ice bathing the Ganoderma lucidum spores obtained in step, then mixing the ice-bathed Ganoderma lucidum spores with water, and heating the mixture at 90-100°C for 1.5-3 h to obtain a suspension of Ganoderma lucidum spores; filtering the suspension of Ganoderma lucidum spores obtained in step through a microfiltration membrane, and collecting the filter residue with a particle diameter of more than 5 μm and the filtrate with a particle diameter of less than 1 μm; mixing the filter residue and filtrate obtained in step, and then drying and sterilizing the mixture; and conducting sporoderm disruption of the material sterilized in step to obtain the bitter Ganoderma lucidum spore powder.
A semiconductor package, comprising: a bottom package comprising a substrate, a radio-frequency, in the following also referred to as RF, die (D 1) and a further die (D 2) arranged on said substrate in a side-by-side manner, a molding compound covering said RF die (D 1) and said further die (D 2), and an interposer; a plurality of connection elements (C 1 ~C 5) disposed on a top surface of said substrate, wherein said plurality of connection elements (C 1 ~C 5) surrounds said further die (D 2); a column of signal interference shielding elements (C 2) interposed between said RF die (D 1) and said further die (D 2); and a top package mounted on the interposer; wherein the plurality of connection elements (C 1 -C 5) is electrically coupled to the top package through the interposer; characterized in that said further die is a system-on-a-chip, in the following also referred to as SoC, die (D 2); said interposer is arranged over said molding compound; and wherein said SoC die (D 2) comprises double data rate, in the following also referred to as DDR, interfaces (311~314) arranged on an edge (E 3, E 4) that is different from an edge (E 1) of said SoC die (D 2) that is adjacent to and directly faces said RF die (D 1). a bottom package comprising a substrate, a radio-frequency, in the following also referred to as RF, die (D 1) and a further die (D 2) arranged on said substrate in a side-by-side manner, a molding compound covering said RF die (D 1) and said further die (D 2), and an interposer; a plurality of connection elements (C 1 ~C 5) disposed on a top surface of said substrate, wherein said plurality of connection elements (C 1 ~C 5) surrounds said further die (D 2); a column of signal interference shielding elements (C 2) interposed between said RF die (D 1) and said further die (D 2); and a top package mounted on the interposer; wherein the plurality of connection elements (C 1 -C 5) is electrically coupled to the top package through the interposer; characterized in that said further die is a system-on-a-chip, in the following also referred to as SoC, die (D 2); said interposer is arranged over said molding compound; and wherein said SoC die (D 2) comprises double data rate, in the following also referred to as DDR, interfaces (311~314) arranged on an edge (E 3, E 4) that is different from an edge (E 1) of said SoC die (D 2) that is adjacent to and directly faces said RF die (D 1).
An endoscopic instrument with a flexible shank which at least in sections is surrounded by a flexible tube and which comprises at least two segments (4, 4') which are connected to one another via two diametrically opposed joints and between whose axial face edges (11, 10') which face one another a gap is present, wherein the gap runs in an angled manner at least once, characterised in that the axial face edges (11, 10') of the two segments (4, 4') which face one another, between the two joints run in an S-shaped curved manner parallel to the axis such that each face edge (11, 10') comprises a first section which projects axially further compared to an adjacent second section, and wherein the gap between the two axial face edges (11, 10') has a constant width along its extension in the non-angled position.
A control device (2, 2') for a permanent magnet synchronous motor (1, 1') including a first winding and a second winding, the control device (2, 2') comprising: a first power converter configured to apply a voltage to the first winding; a second power converter configured to apply a voltage to the second winding; a first power supply circuit configured to supply power to the first power converter; a second power supply circuit configured to supply power to the second power converter at a voltage higher than a voltage of the first power supply circuit; a current command calculation unit (5, 5') configured to calculate a first current command being a target value of a current caused to flow through the first winding, and a second current command being a target value of a current caused to flow through the second winding; a first current control unit configured to control an output voltage of the first power converter in accordance with the first current command; and a second current control unit configured to control an output voltage of the second power converter in accordance with the second current command, characterised in that the current command calculation unit (5, 5') is configured to calculate a first voltage usage state, which is an indicator value correlated with a magnitude of the output voltage of the first power converter with respect to a power supply voltage output at a time of supply of power by the first power supply circuit, and calculate the second current command based on the first voltage usage state. a first power converter configured to apply a voltage to the first winding; a second power converter configured to apply a voltage to the second winding; a first power supply circuit configured to supply power to the first power converter; a second power supply circuit configured to supply power to the second power converter at a voltage higher than a voltage of the first power supply circuit; a current command calculation unit (5, 5') configured to calculate a first current command being a target value of a current caused to flow through the first winding, and a second current command being a target value of a current caused to flow through the second winding; a first current control unit configured to control an output voltage of the first power converter in accordance with the first current command; and a second current control unit configured to control an output voltage of the second power converter in accordance with the second current command, characterised in that the current command calculation unit (5, 5') is configured to calculate a first voltage usage state, which is an indicator value correlated with a magnitude of the output voltage of the first power converter with respect to a power supply voltage output at a time of supply of power by the first power supply circuit, and calculate the second current command based on the first voltage usage state.
Dynamic self-balancing two-wheel vehicle - having a chassis which supports a vehicle seat, - having two dynamic self-balancing one-wheel vehicles which have in each case a wheel, an electric motor, an inclination sensor device, a balance control system and a housing, - having a steering device for steering the two-wheel vehicle, - wherein the two one-wheel vehicles are arranged on the chassis such that they support the chassis and their wheels define a common wheel rotational axis, - wherein the steering device is coupled to at least one of the inclination sensor devices such that a steering actuation of the steering device changes an inclination of at least one of the inclination sensor devices about an inclination axis, extending parallel to the wheel rotational axis, with respect to the chassis such that the respective wheel is controlled by the associated balance control system for accelerating or for braking, in order to generate a steering movement, correlating with the steering actuation, of the two-wheel vehicle, - wherein the respective housing is mounted on the chassis so as to be non-rotational with respect to the inclination axis, - that the respective inclination sensor device is mounted movably on the chassis externally to the respective housing such that the inclination of the respective inclination sensor device can be changed, - that the steering device is coupled to the respective inclination sensor device such that a steering actuation of the steering device changes the inclination of at least one of the inclination sensor devices. - having a chassis which supports a vehicle seat, - having two dynamic self-balancing one-wheel vehicles which have in each case a wheel, an electric motor, an inclination sensor device, a balance control system and a housing, - having a steering device for steering the two-wheel vehicle, - wherein the two one-wheel vehicles are arranged on the chassis such that they support the chassis and their wheels define a common wheel rotational axis, - wherein the steering device is coupled to at least one of the inclination sensor devices such that a steering actuation of the steering device changes an inclination of at least one of the inclination sensor devices about an inclination axis, extending parallel to the wheel rotational axis, with respect to the chassis such that the respective wheel is controlled by the associated balance control system for accelerating or for braking, in order to generate a steering movement, correlating with the steering actuation, of the two-wheel vehicle, - wherein the respective housing is mounted on the chassis so as to be non-rotational with respect to the inclination axis, - that the respective inclination sensor device is mounted movably on the chassis externally to the respective housing such that the inclination of the respective inclination sensor device can be changed, - that the steering device is coupled to the respective inclination sensor device such that a steering actuation of the steering device changes the inclination of at least one of the inclination sensor devices.
Method for preparing a composite material comprising from 30 to 95%wt of natural fibers and from 0.1 to 10%wt of diatomaceous earth, the method comprising the steps of: (i) dispersing diatomaceous earth in water, (ii) applying the obtained dispersion on natural fibers, (iii) mixing the natural fibers with the other components of the composite material, then (iv) forming the composite material, preferably in the form of a mat. (i) dispersing diatomaceous earth in water, (ii) applying the obtained dispersion on natural fibers, (iii) mixing the natural fibers with the other components of the composite material, then (iv) forming the composite material, preferably in the form of a mat.
A license management server comprising: reception means for receiving, from a license operation server that leases a license to a client, a request for changing a first license to a second license; change means for setting an expiration date of the first license with a predetermined period of time in the case that the reception means receives the request; issuing means for issuing the second license in the case that the reception means receives the request; and transmission means for transmitting, to the license operation server, the first license of which the expiration date has been set, and the second license issued by the issuing means. reception means for receiving, from a license operation server that leases a license to a client, a request for changing a first license to a second license; change means for setting an expiration date of the first license with a predetermined period of time in the case that the reception means receives the request; issuing means for issuing the second license in the case that the reception means receives the request; and transmission means for transmitting, to the license operation server, the first license of which the expiration date has been set, and the second license issued by the issuing means.
System comprising a device for attaching an object at the rear and on the outside of a motor vehicle and a device for transmitting information from said motor vehicle to said attachment device, said attachment device comprising a support platform suitable for attachment to the rear structure of the vehicle and comprising a substantially vertical plate including, on one of its faces, a lighting system (31, 32) and a mineralogical registration plate, characterized in that the device for transmitting information comprises an emitter capable of connecting to a diagnostic plug onboard the vehicle, a receiver attached to the other face of the vertical plate and suitable for receiving, by wireless link, the lighting control information for the lighting system (31, 32) transmitted by the emitter.
Closure element (20,20',20''), in particular a valve disk, for a vacuum valve and configured for the gastight close-off of a process volume by means of cooperation with a vacuum valve opening, provided for the process volume, of the vacuum valve, comprising • a first sealing surface, corresponding, in particular in terms of shape and size, to a second sealing surface of the vacuum valve opening wherein the second sealing surface surrounds the vacuum valve opening, and • a sealing material (25,25',37) vulcanized onto the first sealing surface in accordance with the course thereof and having a defined height in the direction of the surface normal of the first sealing surface, wherein the sealing material (25,25',37) has a defined shape with respect to a sealing material cross section, comprising □ a first seal portion, particularly provided on the process volume side, and □ a second seal portion, particularly provided facing away from the process volume, characterized in that • the closure element (20,20',20'') has a compression (24,24',24") adjoining the first seal portion and having a pressing edge (28,28'), and • the pressing edge (28,28') is shaped, and is configured with respect to the first seal portion, such that the surface course of the sealing material (25,25',37), which surface course is given by the shape of the first seal portion and tapers into the pressing edge (28,28'), is continued substantially homogeneously, in particular linearly. • a first sealing surface, corresponding, in particular in terms of shape and size, to a second sealing surface of the vacuum valve opening wherein the second sealing surface surrounds the vacuum valve opening, and • a sealing material (25,25',37) vulcanized onto the first sealing surface in accordance with the course thereof and having a defined height in the direction of the surface normal of the first sealing surface, wherein the sealing material (25,25',37) has a defined shape with respect to a sealing material cross section, comprising □ a first seal portion, particularly provided on the process volume side, and □ a second seal portion, particularly provided facing away from the process volume, characterized in that □ a first seal portion, particularly provided on the process volume side, and □ a second seal portion, particularly provided facing away from the process volume, • the closure element (20,20',20'') has a compression (24,24',24") adjoining the first seal portion and having a pressing edge (28,28'), and • the pressing edge (28,28') is shaped, and is configured with respect to the first seal portion, such that the surface course of the sealing material (25,25',37), which surface course is given by the shape of the first seal portion and tapers into the pressing edge (28,28'), is continued substantially homogeneously, in particular linearly.