mhurhangee/ep-ind-claims huggingface dataset:
Electrical supply device for a vehicle electrical system of a vehicle, - having at least one electrical power distributor (5, 6, 7, 8, 18, 19) configured to supply a multiplicity of electrical loads (11, 12, 20, 21) with electrical energy, and - having at least one DC-DC voltage converter (9, 10) configured to supply power to the at least one electrical power distributor (5, 6, 7, 8, 18, 19), - wherein one of the at least one electrical power distributors (5, 6, 7, 8, 18, 19) and one of the at least one DC-DC voltage converters (9, 10) are physically combined to form a single physical unit (3, 4), characterized in that - wherein the electrical supply device comprises an energy buffer store in the at least one physical unit (3, 4), the energy buffer store comprising a number of series-connected power cells as a chemical store for storing electrical energy and being designed to cover power peaks, - wherein two or more physical units (3, 4) that each physically combine at least one electrical power distributor (5, 6, 7, 8, 18, 19) and at least one DC-DC voltage converter (9, 10) and these two or more physical units (3, 4) are designed to be able to be arranged in a distributed manner inside the vehicle, and - wherein the two or more physical units (3, 4) are electrically conductively connected to one another by way of an energy backbone, in particular by way of a multi-rail. - having at least one electrical power distributor (5, 6, 7, 8, 18, 19) configured to supply a multiplicity of electrical loads (11, 12, 20, 21) with electrical energy, and - having at least one DC-DC voltage converter (9, 10) configured to supply power to the at least one electrical power distributor (5, 6, 7, 8, 18, 19), - wherein one of the at least one electrical power distributors (5, 6, 7, 8, 18, 19) and one of the at least one DC-DC voltage converters (9, 10) are physically combined to form a single physical unit (3, 4), - wherein the electrical supply device comprises an energy buffer store in the at least one physical unit (3, 4), the energy buffer store comprising a number of series-connected power cells as a chemical store for storing electrical energy and being designed to cover power peaks, - wherein two or more physical units (3, 4) that each physically combine at least one electrical power distributor (5, 6, 7, 8, 18, 19) and at least one DC-DC voltage converter (9, 10) and these two or more physical units (3, 4) are designed to be able to be arranged in a distributed manner inside the vehicle, and - wherein the two or more physical units (3, 4) are electrically conductively connected to one another by way of an energy backbone, in particular by way of a multi-rail.
A transmission for providing mechanical power from an input comprising: a transmission assembly including an arm configured and adapted to be connected to a mechanical input for rotation at an input speed; a first planet rotatably mounted to a first end of the arm; a trim ring operatively contacting the first planet for mutual rotation therewith; a brake operatively connected to the trim ring for controlling rotation of the trim ring; a second planet rotatably mounted to a second end of the arm, wherein the second planet operatively contacts the first planet for mutual rotation therewith; and an output ring operatively contacting the second planet for mutual rotation therewith to rotate at an output speed based on an input speed of the arm and a trim speed of the trim ring; characterised in that the brake is configured and adapted to shift the transmission assembly from a first condition in which the trim ring is held stationary relative to the arm, and a second condition in which the trim ring and arm rotate together; and in that the transmission further comprises an overrunning clutch operatively connecting the arm to the trim ring to allow relative rotation of the arm and trim ring in the first condition and when shifting between the first and second conditions, and to allow common rotation of the arm and trim ring in the second condition, preventing rotation speed of the trim ring exceeding input rotation speed of the arm. a transmission assembly including an arm configured and adapted to be connected to a mechanical input for rotation at an input speed; a first planet rotatably mounted to a first end of the arm; a trim ring operatively contacting the first planet for mutual rotation therewith; a brake operatively connected to the trim ring for controlling rotation of the trim ring; a second planet rotatably mounted to a second end of the arm, wherein the second planet operatively contacts the first planet for mutual rotation therewith; and an output ring operatively contacting the second planet for mutual rotation therewith to rotate at an output speed based on an input speed of the arm and a trim speed of the trim ring; characterised in that the brake is configured and adapted to shift the transmission assembly from a first condition in which the trim ring is held stationary relative to the arm, and a second condition in which the trim ring and arm rotate together; and in that the transmission further comprises an overrunning clutch operatively connecting the arm to the trim ring to allow relative rotation of the arm and trim ring in the first condition and when shifting between the first and second conditions, and to allow common rotation of the arm and trim ring in the second condition, preventing rotation speed of the trim ring exceeding input rotation speed of the arm.
A light (10, 310, 410, 510), comprising: a removable battery pack; a base portion (100, 300, 400) configured to receive the battery pack; a light section (150, 550) operably connected to the base portion (100, 300, 400), the light section (150, 550) including a light generator which produces light; and a mount (110, 210) disposed on the base portion (100, 300, 400), the mount (110, 210) comprising a first mount member (125, 225) and a second mount member (125, 225); wherein each of the first mount member (125, 225) and the second mount member (125, 225) is independently rotatable relative to the base portion (100, 300, 400); and wherein each of the first mount member (125, 225) and the second mount member (125, 225) includes a magnet and a mount member housing; characterized in that a pair of ferrous metal plates projects through each mount member housing for contacting a surface, the ferrous metal plates and the magnet together configured to create a magnetic field for attaching the mount members (125, 225) to metal objects. a removable battery pack; a base portion (100, 300, 400) configured to receive the battery pack; a light section (150, 550) operably connected to the base portion (100, 300, 400), the light section (150, 550) including a light generator which produces light; and a mount (110, 210) disposed on the base portion (100, 300, 400), the mount (110, 210) comprising a first mount member (125, 225) and a second mount member (125, 225); wherein each of the first mount member (125, 225) and the second mount member (125, 225) is independently rotatable relative to the base portion (100, 300, 400); and wherein each of the first mount member (125, 225) and the second mount member (125, 225) includes a magnet and a mount member housing; characterized in that a pair of ferrous metal plates projects through each mount member housing for contacting a surface, the ferrous metal plates and the magnet together configured to create a magnetic field for attaching the mount members (125, 225) to metal objects.
Method for combustion of a fuel with an oxidant in the form of oxygen gas in a heating furnace, where fuel and oxidant are supplied to a burner head, where fuel and oxidant, respectively, are injected via the burner head through at least two pairs of nozzles (2, 3; 4, 5), where one pair is formed by a separate fuel nozzle (3; 5) and a separate oxidant nozzle (2; 4), where the nozzles (2 - 5) of the pairs are uniformly distributed along and within the circumference of a surface of the burner head facing the interior of a furnace, wherein a fuel nozzle (3, 5) is provided with an oxidant nozzle (2, 4) on each side of the fuel nozzle (3, 5), wherein the burner head is provided with an additional nozzle, a starting nozzle positioned in or near the centre of the burner head, discharging fuel and oxidant through concentric channels (8, 9), operating said additional nozzle until the furnace has reached the auto ignition temperature of the fuel and the oxidant, wherein said nozzles (2, 3; 4, 5; 7) are the only nozzles in the burner head; characterized in that the oxidant (2; 3) and fuel (3; 5) nozzles are directed straight ahead and in supplying the oxidant, which is gaseous and provided with an oxygen content of 80 vol% or more, at an overpressure of at least 1 bar.
Organic electronic device comprising at least one inverse coordination complex, the inverse coordination complex comprising: (i) a core consisting of one atom or of a plurality of atoms forming together a covalent cluster; (ii) a first coordination sphere consisting of at least four electropositive atoms having each individually an electronegativity according to Allen of less than 2.4; and (iii) a second coordination sphere comprising a plurality of ligands; wherein the first coordination sphere is closer to the core than the second coordination sphere; and all atoms of the core have a higher electronegativity according to Allen than any of the electropositive atoms of the first coordination sphere. (i) a core consisting of one atom or of a plurality of atoms forming together a covalent cluster; (ii) a first coordination sphere consisting of at least four electropositive atoms having each individually an electronegativity according to Allen of less than 2.4; and (iii) a second coordination sphere comprising a plurality of ligands;
A compound of formula or a pharmaceutically acceptable salt thereof wherein: A is selected from and wherein each R 2 is independently selected from -C 1-4 alkyl, -haloC 1-4 alkyl,-CN, halo, - C CH 3, deuterium, and -deuterio-C- 1-4 alkyl, and p is 0, 1 or 2, and R 3 is selected from -C 1-4 alkyl, -haloC 1-4 alkyl, -CN, halo, deuterium, and - deuterio-C- 1-4 alkyl, and q is 0 or 1; X is -CH 2 -; Y is selected from substituted and unsubstituted C 1-4 alkylene, C 2-4 alkenylene, and C 3-6 cycloalkylene wherein substituted C 1-4 alkylene, substituted C 2-4 alkenylene and substituted C 3-6 cycloalkylene are C 1-4 alkylene, C 2-4 alkenylene and C 3-6 cycloalkylene substituted with one of halo, -C 1-4 alkyl, -OH, and -C 3-4 cycloalkyl; B is selected from wherein r is independently selected from 0, 1 and 2 and R 4 is selected from C 1-4 alkyl, haloC 1-4 alkyl, halogen, -OCHF 2, -CN, -CHF 2, -CF 3, -OCF 3, -N(CH 3) 2, - OCH 3, -phenyl, t is selected from 0 and 1 and R 5 is halogen; and u is selected from 0 and 1 and R 6 is selected from C 1-4 alkyl; and; and v is 0 or 1. A is selected from and wherein each R 2 is independently selected from -C 1-4 alkyl, -haloC 1-4 alkyl,-CN, halo, - C CH 3, deuterium, and -deuterio-C- 1-4 alkyl, and p is 0, 1 or 2, and R 3 is selected from -C 1-4 alkyl, -haloC 1-4 alkyl, -CN, halo, deuterium, and - deuterio-C- 1-4 alkyl, and q is 0 or 1; X is -CH 2 -; Y is selected from substituted and unsubstituted C 1-4 alkylene, C 2-4 alkenylene, and C 3-6 cycloalkylene wherein substituted C 1-4 alkylene, substituted C 2-4 alkenylene and substituted C 3-6 cycloalkylene are C 1-4 alkylene, C 2-4 alkenylene and C 3-6 cycloalkylene substituted with one of halo, -C 1-4 alkyl, -OH, and -C 3-4 cycloalkyl; B is selected from wherein r is independently selected from 0, 1 and 2 and R 4 is selected from C 1-4 alkyl, haloC 1-4 alkyl, halogen, -OCHF 2, -CN, -CHF 2, -CF 3, -OCF 3, -N(CH 3) 2, - OCH 3, -phenyl, t is selected from 0 and 1 and R 5 is halogen; and u is selected from 0 and 1 and R 6 is selected from C 1-4 alkyl; and; and r is independently selected from 0, 1 and 2 and R 4 is selected from C 1-4 alkyl, haloC 1-4 alkyl, halogen, -OCHF 2, -CN, -CHF 2, -CF 3, -OCF 3, -N(CH 3) 2, - OCH 3, -phenyl, t is selected from 0 and 1 and R 5 is halogen; and u is selected from 0 and 1 and R 6 is selected from C 1-4 alkyl; and; and v is 0 or 1.
An orally disintegrating tablet having a specific surface area of from 1.60 to 2.30 mm 2 /mg, a diameter of 4 mm or less and a weight of from 10 to 50 mg, and comprising a disintegrative particulate composition and a medicinal ingredient, wherein the disintegrative particulate composition comprises a first disintegrator component of an acid-type carboxymethylcellulose, a second disintegrator component other than the acid-type carboxymethylcellulose, and an excipient.
A reach truck, comprising: a. a main body; b. at least one load arm, which protrudes from the main body; c. a mast trolley, which is supported at the at least one load arm, wherein the mast trolley is shift-able along a longitudinal axis of the reach truck relative to the main body; d. a mast, which is attached to the mast trolley; e. a linear actuator, for shifting the mast trolley along the longitudinal axis relative to the main body; wherein f. the linear actuator is attached at a first end (52, A) thereof to the main body and at a second end (54, C) thereof to the mast trolley; and g. the linear actuator is arranged inclined to the longitudinal axis of the reach truck and defines a first angle (a) between the extension direction of the linear actuator and the longitudinal axis, wherein the first angle (a) changes depending on the position of the mast trolley relative to the main body; characterized in that h. the reach truck further comprises a sensor, for determining the angular position of the linear actuator. a. a main body; b. at least one load arm, which protrudes from the main body; c. a mast trolley, which is supported at the at least one load arm, wherein the mast trolley is shift-able along a longitudinal axis of the reach truck relative to the main body; d. a mast, which is attached to the mast trolley; e. a linear actuator, for shifting the mast trolley along the longitudinal axis relative to the main body; wherein f. the linear actuator is attached at a first end (52, A) thereof to the main body and at a second end (54, C) thereof to the mast trolley; and g. the linear actuator is arranged inclined to the longitudinal axis of the reach truck and defines a first angle (a) between the extension direction of the linear actuator and the longitudinal axis, wherein the first angle (a) changes depending on the position of the mast trolley relative to the main body; characterized in that h. the reach truck further comprises a sensor, for determining the angular position of the linear actuator.
A method for controlling a loading process of a transport container of a transport vehicle by a milling device during milling operation, the milling device comprising a conveyor device, via which milled material is conveyed into the transport container during milling operation of the milling device, and a control unit, characterized by the steps of: a) detecting the relative position of the transport container in the loading area of the milling device by means of a sensor device; b) starting the loading process by actuating the conveyor device; c) monitoring the relative position of the transport container by means of the sensor device; and d) outputting a signal when a target filling level of the transport container is ascertained and/or as soon as the sensor device detects a removal of the transport container from the loading area, in particular stopping the loading process, the loading process being controlled in step c) by detecting the discharge path of the milled material discharged from the conveyor device into the transport container and closed-loop control of the discharge distance of the discharge path, in particular by regulating the operating speed of the conveyor device, by height adjustment of the conveyor device and/or by adjusting the orientation angle of the conveyor device. a) detecting the relative position of the transport container in the loading area of the milling device by means of a sensor device; b) starting the loading process by actuating the conveyor device; c) monitoring the relative position of the transport container by means of the sensor device; and d) outputting a signal when a target filling level of the transport container is ascertained and/or as soon as the sensor device detects a removal of the transport container from the loading area, in particular stopping the loading process, the loading process being controlled in step c) by detecting the discharge path of the milled material discharged from the conveyor device into the transport container and closed-loop control of the discharge distance of the discharge path, in particular by regulating the operating speed of the conveyor device, by height adjustment of the conveyor device and/or by adjusting the orientation angle of the conveyor device.
The method for melting a pseudo β-titanium alloy comprising (4.0-6.0)% Al - (4.5-6.0)% Mo - (4.5-6.0)% V - (2.0-3.6)% Cr - (0.2-0.5)% Fe - (0.1-2.0)% Zr, which includes preparation of master alloy having two or more alloying elements, alloying of the blend, fabrication of consumable electrode and alloy melting in vacuum-arc furnace wherein Al, Mo, V, Cr are introduced into the blend in the form of a complex mater alloy made via aluminothermic process and having the following elements (% by mass): Molybdenum - 25 - 27 Vanadium - 25 - 27 Chromium -14 - 16 Titanium - 9 - 11 Aluminum - base, while Iron and Zirconium are introduced as pure metals, wherein the alloy is produced via double melting minimum with the first melt being either vacuum-arc remelt or scull - consumable electrode method. Molybdenum - 25 - 27 Vanadium - 25 - 27 Chromium -14 - 16 Titanium - 9 - 11 Aluminum - base, while Iron and Zirconium are introduced as pure metals, wherein the alloy is produced via double melting minimum with the first melt being either vacuum-arc remelt or scull - consumable electrode method.
A heat flow sensor, comprising an active sensor element, which comprises thermoelectric materials of the n-type and the p-type in the form of thermopiles (3, 4) orientated in parallel with one another and normal to the interfaces, wherein the thermopiles (3, 4) are embedded in a matrix as a cladding material and the thermopiles (3, 4) are electrically connected on the end faces by means of electrical connections and the active sensor element is provided on the cold side and on the hot side with a thermally highly conductive heat-conducting element (8, 9), characterised in that the sensor element is coated or clad with an extremely thin, 0.1 μm to 20 μm thick, electrically highly insulating, chemically inert and highly adhesive protective layer, wherein the sections of the matrix facing the heat-conducting elements (8, 9) and the connections are covered and the sensor element thus has a reduced thermal invasiveness or reduced thermal resistance.
A method of manufacturing an abrasion and water resistant multilayer panel, in particular an abrasion and water resistant floor panel, comprising the steps of: - providing at least one PVC carrier plate; - applying at least one base coat comprising at least one polyurethane hot melt adhesive to the surface of the PVC carrier plate; - applying at least one white base coat on top of the base coat; - direct printing on the PVC carrier plate with the formation of a decorative layer; - applying at least a first covering layer comprising a polyurethane hot-melt adhesive to the printed decorative layer; wherein the amount of the polyurethane hot-melt adhesive as first covering layer is between 20 and 50 g/m 2, preferably 30 and 40 g/m 2; - uniform scattering of abrasion-resistant particles onto the at least one covering ayer applied to the decorative layer; - applying at least a second covering layer comprising a polyurethane hot-melt adhesive on the layer of scattered abrasion-resistant particles; wherein the amount of the polyurethane hot-melt adhesive as second covering layer varies depending on the amount of the first covering layer applied to the printed decoration and is between 20 and 50 g/m 2, preferably 30 and 40 g/m 2; - introducing a structure into the at least second covering layer; - applying at least one lacquer layer; and - curing of the layer structure, whereby the polyurethane hot melt adhesive is applied at an application temperature of approx. 150°C. - providing at least one PVC carrier plate; - applying at least one base coat comprising at least one polyurethane hot melt adhesive to the surface of the PVC carrier plate; - applying at least one white base coat on top of the base coat; - direct printing on the PVC carrier plate with the formation of a decorative layer; - applying at least a first covering layer comprising a polyurethane hot-melt adhesive to the printed decorative layer; wherein the amount of the polyurethane hot-melt adhesive as first covering layer is between 20 and 50 g/m 2, preferably 30 and 40 g/m 2; - uniform scattering of abrasion-resistant particles onto the at least one covering ayer applied to the decorative layer; - applying at least a second covering layer comprising a polyurethane hot-melt adhesive on the layer of scattered abrasion-resistant particles; wherein the amount of the polyurethane hot-melt adhesive as second covering layer varies depending on the amount of the first covering layer applied to the printed decoration and is between 20 and 50 g/m 2, preferably 30 and 40 g/m 2; - introducing a structure into the at least second covering layer; - applying at least one lacquer layer; and - curing of the layer structure,
Apparatus comprising: a conductive substrate; and a coating on the conductive substrate and having a color, the coating comprising: adhesion and transition layers, a CrSiN layer on the adhesion and transition layers, the CrSiN layer being opaque to light of the color, and an uppermost layer on the CrSiN layer, the uppermost layer comprising a CrSiC film. a conductive substrate; and a coating on the conductive substrate and having a color, the coating comprising: adhesion and transition layers, a CrSiN layer on the adhesion and transition layers, the CrSiN layer being opaque to light of the color, and an uppermost layer on the CrSiN layer, the uppermost layer comprising a CrSiC film. adhesion and transition layers, a CrSiN layer on the adhesion and transition layers, the CrSiN layer being opaque to light of the color, and an uppermost layer on the CrSiN layer, the uppermost layer comprising a CrSiC film.