mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a steam power plant comprising a steam generator, a turbine, a condenser, a condensate line, at least two superheaters (SH1, SH2, SH3) and at least one resuperheater (RSH1, RSH2), wherein the steam passes the superheaters (SH1, SH2, SH3) before entering into a high-pressure part of the turbine, wherein at low load of the steam power plant steam is extracted between the first and the last superheater, characterized in that by extracting steam between the first and the last superheater the live steam temperature (T LS) and high live steam pressure (p LS) is stabilized, so that the changes of temperature during operation at different loads become minimal for the steam generator.
Hob apparatus, in particular induction hob apparatus, with at least one housing unit, which, at least in the assembled state, embodies at least one part of an external housing, with at least one base body, which embodies at least one cooking surface, wherein the housing unit and the base body, at least in the assembled state, embody at least one interior for storing components, with at least one operating unit, with at least one support unit, which is provided to hold the operating unit, and with at least one space divider element which, at least in the assembled state, is arranged on a side of the support unit facing away from the operating unit, characterised in that the support unit has at least one engagement element, which, at least in the assembled state, passes at least partially through the space divider element, which subdivides the interior into at least two subspaces, wherein the space divider element is embodied as a shielding element.
Ground-guided work device with a control arrangement to guide the work device during operation, wherein the control arrangement is fixed to a housing part of the work device via at least one anti-vibration element, characterised in that the anti-vibration element is formed as a sleeve, and the anti-vibration element is arranged in a recess, wherein the recess is formed from at least two part shells (23, 24) connected to each other via securing means, and wherein at least one stop is provided, which defines at least one internal dimension (a) of the recess when the securing means are fixed, wherein the internal dimension (a) is measured in a plane perpendicular to the longitudinal middle axis of the recess in an area in which the anti-vibration element lies against the recess.
An endoscope apparatus comprising: an illumination light source unit that emits illumination light used to illuminate a subject; an auxiliary measurement light source unit that emits auxiliary measurement light; an image acquisition unit that acquires a picked-up image obtained from image pickup of the subject which is illuminated with the illumination light and on which an irradiated region is formed by the auxiliary measurement light; a position specifying section that specifies a position of the irradiated region from the picked-up image; and a display control unit; characterized by a distance calculation section that obtains an observation distance (D5, D7), which is a distance between an endoscope-distal end part and the subject, from the position of the irradiated region; an offset setting section that sets an amount of offset, which corresponds to a height of the irradiated region of a convex portion, for the observation distance; an offset distance-calculation section that calculates an offset distance (D6, D8) by adding the amount of offset to the observation distance; and an offset measurement marker-generation section that generates an offset measurement marker (MK1 - MK5) on the basis of the offset distance; wherein the display control unit displays a specific image (MI1 - MI7) in which the offset measurement marker is superimposed on the picked-up image. an illumination light source unit that emits illumination light used to illuminate a subject; an auxiliary measurement light source unit that emits auxiliary measurement light; an image acquisition unit that acquires a picked-up image obtained from image pickup of the subject which is illuminated with the illumination light and on which an irradiated region is formed by the auxiliary measurement light; a position specifying section that specifies a position of the irradiated region from the picked-up image; and a display control unit; a distance calculation section that obtains an observation distance (D5, D7), which is a distance between an endoscope-distal end part and the subject, from the position of the irradiated region; an offset setting section that sets an amount of offset, which corresponds to a height of the irradiated region of a convex portion, for the observation distance; an offset distance-calculation section that calculates an offset distance (D6, D8) by adding the amount of offset to the observation distance; and an offset measurement marker-generation section that generates an offset measurement marker (MK1 - MK5) on the basis of the offset distance; wherein the display control unit displays a specific image (MI1 - MI7) in which the offset measurement marker is superimposed on the picked-up image.
A bus of the hardtop type having at least ten seats, comprising a chassis and a body with an at least substantially U-shaped roof construction, which covers at least some of the seats of the bus, which roof construction can be removed, and be replaced again, over at least some of the at least ten seats, the bus, at the rear side, comprising two Z-pillars and a roof part therebetween characterised in that the substantially U-shaped roof construction comprises at least two substantially shape retaining, nestable roof elements of at least substantially U-shaped cross-section, wherein windows are provided in the downwardly extending side panels that correspond to the legs of the U-shape, which nestable roof elements are movable relative to each other and which are positioned at least substantially one behind another, at least in the covering position, with the legs of the U-shaped cross-section extending beyond the windows present in the roof construction.
A varistor ceramic formulation comprising zinc oxide (ZnO) and at least one minor amount of dopant, wherein the minor amount of dopant comprises an alkali metal compound, an alkaline earth compound, or a combination thereof, characterized in that the varistor ceramic formulation comprises: Bi 2 O 3 at a concentration in a range of about 0.1 mol % to about 1.5 mol %; Sb 2 O 3 at a concentration in a range of about 0.01 mol % to about 2.0 mol %; Co 3 O 4 at a concentration in a range of about 0.01 mol % to about 1.0 mol %; Mn 3 O 4 at a concentration in a range of about 0.01 mol % to about 1.0 mol %; NiO at a concentration in a range of about 0 mol % to about 1.0 mol %; Cr 2 O 3 at a concentration in a range of about 0 mol % to about 1.0 mol %; B 2 O 3, H 3 BO 3, or a combination thereof, at a concentration in a range of about 0.01 mol % to about 0.2 mol %; Na 2 CO 3 at a concentration in a range of about 20 ppm to about 1000 ppm; and a remainder of ZnO to 100 mol % of metal or metalloid compounds. Bi 2 O 3 at a concentration in a range of about 0.1 mol % to about 1.5 mol %; Sb 2 O 3 at a concentration in a range of about 0.01 mol % to about 2.0 mol %; Co 3 O 4 at a concentration in a range of about 0.01 mol % to about 1.0 mol %; Mn 3 O 4 at a concentration in a range of about 0.01 mol % to about 1.0 mol %; NiO at a concentration in a range of about 0 mol % to about 1.0 mol %; Cr 2 O 3 at a concentration in a range of about 0 mol % to about 1.0 mol %; B 2 O 3, H 3 BO 3, or a combination thereof, at a concentration in a range of about 0.01 mol % to about 0.2 mol %; Na 2 CO 3 at a concentration in a range of about 20 ppm to about 1000 ppm; and a remainder of ZnO to 100 mol % of metal or metalloid compounds.
A reel dispenser housing 12 and mounting 22, for a reel dispenser, the dispenser including in use the housing 12, a coupling 16 associated with a reel 14 and the mounting 22, the mounting 22 being arranged to permit removable mounting of the coupling 16 to the housing 12 so that the coupling 16 is movable between a mounted and a dismounted condition, the coupling 16 including a key, characterised in that the mounting 22 includes a lock arrangement 26 which is movable between a locked condition and a free condition, the mounting 22 being arranged so that when the coupling 16 is moved from the dismounted condition to the mounted condition, the key moves the lock arrangement 26 to the free condition, permitting rotation of the coupling 16 relative to the housing 17.
A vibrational apparatus, whether uphole or downhole, to be operable as part of a drill string, which apparatus comprises or includes an elongate casing; an outer elongate assembly substantially coaxially disposed within the casing and constrained against rotation, but not reciprocal longitudinal rectilinear movement, with respect to the casing, the outer elongate assembly having an array of magnets coaxially of and longitudinally of the outer elongate assembly, each magnet of the array having a single pole, whether of mixed or unmixed poles in the array, facing inwardly, an inner elongate assembly at least substantially coaxially disposed within the outer elongate assembly, the inner elongate assembly being adapted to duct a fluid longitudinally of at least part of the vibrational apparatus and providing an array of magnets coaxially of, and longitudinally of, the inner elongate assembly, and at least substantially within, but spaced from, yet coaxially, of the array of the outer elongate assembly, the magnets of the inner elongate assembly each having a single pole, whether of mixed or unmixed poles in the array, facing outwardly; wherein the inner or outer elongate assembly is rotatable under the action of a drive to rotate relative to the other elongate assembly thereby to cause a relative reciprocal rectilinear movement between the inner and outer elongate assemblies as a result of multiple magnetic interactions across the elongate and longitudinally extending annular spacing between the magnetic arrays; and wherein relative rotation of the inner and outer elongate assemblies and the consequential reciprocal rectilinear movement provides a vibrational output from the vibrational apparatus; and wherein the drive derives an input from said fluid to directly or indirectly cause the relative rotation of the inner and outer elongate assemblies yet that fluid is excluded from the said elongate annular spacing, notwithstanding such spacing may contain another fluid.
An ion-conducting membrane comprising first and second sides (32, 37), the membrane comprising: a substrate comprising a plurality of ion-conducting regions that are spaced apart from one another and a non-ion-conducting region, including a first ion-conducting region and a second ion-conducting region; each of the plurality of ion-conducting regions having a plurality of ion-conducting passageways that extend through the substrate; the passageways containing an ion-conducting material that is more ion-conductive than the substrate; wherein the ion-conducting regions are surrounded by the non-ion-conducting region; wherein at least the first side of the membrane provides an ion-conducting region corresponding to the ion-conducting regions of the substrate that is permeable to ions and at least the first side of the membrane provides a non-ion-conducting-region corresponding to the non-ion-conducting region of the substrate, wherein the passageways of each of the ion-conducting regions include a maximum transverse dimension and neighboring passageways in each of the ion-conducting regions include a transverse center to center spacing and wherein a parameter ratio (L/D) of the passageways in the first ion-conducting region is greater than 5 and the parameter ratio (L/D) of the passageways in the second ion-conducting region is less than 3. a substrate comprising a plurality of ion-conducting regions that are spaced apart from one another and a non-ion-conducting region, including a first ion-conducting region and a second ion-conducting region; each of the plurality of ion-conducting regions having a plurality of ion-conducting passageways that extend through the substrate; the passageways containing an ion-conducting material that is more ion-conductive than the substrate; wherein the ion-conducting regions are surrounded by the non-ion-conducting region; wherein at least the first side of the membrane provides an ion-conducting region corresponding to the ion-conducting regions of the substrate that is permeable to ions and at least the first side of the membrane provides a non-ion-conducting-region corresponding to the non-ion-conducting region of the substrate, wherein the passageways of each of the ion-conducting regions include a maximum transverse dimension and neighboring passageways in each of the ion-conducting regions include a transverse center to center spacing and wherein a parameter ratio (L/D) of the passageways in the first ion-conducting region is greater than 5 and the parameter ratio (L/D) of the passageways in the second ion-conducting region is less than 3.
Axle link junction unit for use in utility vehicles, comprising a base section and an attachment section, wherein the base section is in the form of a hollow body at least in regions and transitions into the attachment section along an attachment axis, wherein the attachment section is designed for non-detachably fixing a support element, in the form of an axle element or link element, to the axle link junction unit, and wherein a second attachment section is arranged coaxially with respect to the first attachment section and so as to be situated opposite said first attachment section, characterized in that the axle link junction unit has a third and a fourth attachment section, wherein the third attachment section extends substantially along a second attachment axis (B 2) and the fourth attachment section extends substantially along a third attachment axis (B 3).
A field effect transistor comprising: a gate electrode; a source electrode and a drain electrode; an active layer provided adjacent to the source electrode and the drain electrode, the active layer being formed of a metal oxide semiconductor of n-type; and a gate insulator layer provided between the gate electrode and the active layer, wherein the metal oxide semiconductor is formed of an n-type substitutional doped oxide wherein the n-type doped compound comprises at least one dopant selected from the group consisting of a trivalent cation, a tetravalent cation, a pentavalent cation and a hexavalent cation, and wherein the valence of the dopant is larger than a valence of a metal in the metal oxide semiconductor for which it is substitutionally doped, wherein the metal oxide semiconductor is formed of a bixbite compound having one or more of trivalent cations selected from Sc 3+, Y 3+, and Ln 3+ where the Ln is a rare earth element, and the n-type doping of the bixbite compound is obtained by introducing one or more types of cations including Ge 4+, Sn 4+, Ti 4+, Zr 4+, Hf 4+, V 5+, Nb 5+, Ta 5+, Sb 5+ Mo 6+, and W 6+. a gate electrode; a source electrode and a drain electrode; an active layer provided adjacent to the source electrode and the drain electrode, the active layer being formed of a metal oxide semiconductor of n-type; and a gate insulator layer provided between the gate electrode and the active layer, wherein the metal oxide semiconductor is formed of an n-type substitutional doped oxide wherein the n-type doped compound comprises at least one dopant selected from the group consisting of a trivalent cation, a tetravalent cation, a pentavalent cation and a hexavalent cation, and wherein the valence of the dopant is larger than a valence of a metal in the metal oxide semiconductor for which it is substitutionally doped, wherein the metal oxide semiconductor is formed of a bixbite compound having one or more of trivalent cations selected from Sc 3+, Y 3+, and Ln 3+ where the Ln is a rare earth element, and the n-type doping of the bixbite compound is obtained by introducing one or more types of cations including Ge 4+, Sn 4+, Ti 4+, Zr 4+, Hf 4+, V 5+, Nb 5+, Ta 5+, Sb 5+ Mo 6+, and W 6+.
A converter control device (4;4';4a) used for a converter, the converter including a bridge circuit for converting three-phase AC voltage output from a three-phase AC power supply into DC voltage and outputting the DC voltage, the bridge circuit having a pair of switch units (11a, 11b, 11c) provided for each phase of the three-phase AC power supply, the pair of switch units including an upper arm switching element (12a,12b,12c) and a lower arm switching element (13a,13b,13c), the upper arm switching element and the lower arm switching element having a junction point connected to each corresponding phase, the converter control device (4;4';4a) being characterized in that it comprises: a reactive current calculation means configured to calculate a reactive current by using current detection values of any two phases and a voltage phase of any one phase; a correction amount calculation means configured to calculate a phase difference between the voltage phase of the phase and a voltage phase of the phase for zeroing the reactive current; a phase correction means configured to correct the voltage phase of the phase by using the phase difference calculated by the correction amount calculation means; a three-phase voltage command determination means configured to determine phase voltage commands corresponding to the respective phases based on a predetermined voltage command value and a corrected voltage phase of the phase; and a driving signal generation means configured to generate driving signals for the switch units (11a, 11b, 11c) corresponding to the respective phases by using the phase voltage commands. a reactive current calculation means configured to calculate a reactive current by using current detection values of any two phases and a voltage phase of any one phase; a correction amount calculation means configured to calculate a phase difference between the voltage phase of the phase and a voltage phase of the phase for zeroing the reactive current; a phase correction means configured to correct the voltage phase of the phase by using the phase difference calculated by the correction amount calculation means; a three-phase voltage command determination means configured to determine phase voltage commands corresponding to the respective phases based on a predetermined voltage command value and a corrected voltage phase of the phase; and a driving signal generation means configured to generate driving signals for the switch units (11a, 11b, 11c) corresponding to the respective phases by using the phase voltage commands.
A main laminate forming a load carrying structure for a wind turbine blade, the main laminate extending in a spanwise direction from a proximal end through a transition region to a distal end, wherein the main laminate comprises: - a top side configured for facing the interior of the wind turbine blade, a bottom side opposite of the top side, and a thickness direction extending between the top side and the bottom side; - a pultrusion portion including a bottom pultrusion element (61, 62) extending in the spanwise direction from the proximal end to a transition end located in the transition region of the main laminate, the pultrusion portion having a transition portion at the transition end, the bottom pultrusion element forming a first part of the bottom side of the main laminate; - a plurality of fibre-reinforced elements including bottom and top fibre-reinforced elements (71, 72) extending in the spanwise direction from the distal end to a transition end located in the transition region of the main laminate, the plurality of fibre-reinforced elements having a transition portion at the transition end, the bottom fibre-reinforced element forming a second part of the bottom side of the main laminate, the plurality of fibre-reinforced elements being stacked in the thickness direction from the bottom fibre-reinforced element to the top fibre-reinforced element; wherein the transition portion of the pultrusion portion and the transition portion of the plurality of fibre-reinforced elements are connected by a joint in the transition region of the main laminate, characterised by a chordwise side of the transition portion of the pultrusion portion and a chordwise side of the transition portion of the plurality of fibre-reinforced elements connected by a joint (81, 82). - a top side configured for facing the interior of the wind turbine blade, a bottom side opposite of the top side, and a thickness direction extending between the top side and the bottom side; - a pultrusion portion including a bottom pultrusion element (61, 62) extending in the spanwise direction from the proximal end to a transition end located in the transition region of the main laminate, the pultrusion portion having a transition portion at the transition end, the bottom pultrusion element forming a first part of the bottom side of the main laminate; - a plurality of fibre-reinforced elements including bottom and top fibre-reinforced elements (71, 72) extending in the spanwise direction from the distal end to a transition end located in the transition region of the main laminate, the plurality of fibre-reinforced elements having a transition portion at the transition end, the bottom fibre-reinforced element forming a second part of the bottom side of the main laminate, the plurality of fibre-reinforced elements being stacked in the thickness direction from the bottom fibre-reinforced element to the top fibre-reinforced element;
Device for producing containers made of a thermoplastic material by blowing a preform, the device including: - a moulding cavity which is intended to receive a preform; - a blowing nozzle which is capable of injecting a compressed gas at a blowing pressure into the preform; - an exhaust pipe which connects the nozzle to an end outlet orifice to the atmosphere, and in which the compressed gas is depressurized to the atmospheric pressure so that the gas stream exiting the outlet orifice is cold; - an accessory including a heat source; characterized in that the outlet orifice is arranged near the hot accessory so that at least a portion of the cold gas stream exiting the outlet orifice is directed toward the hot accessory in order to cool the accessory by ventilation. - a moulding cavity which is intended to receive a preform; - a blowing nozzle which is capable of injecting a compressed gas at a blowing pressure into the preform; - an exhaust pipe which connects the nozzle to an end outlet orifice to the atmosphere, and in which the compressed gas is depressurized to the atmospheric pressure so that the gas stream exiting the outlet orifice is cold; - an accessory including a heat source;