mhurhangee/ep-ind-claims huggingface dataset:
A laminate adhesive comprising: a curing agent including a polyisocyanate component and a main component including a polyol component, wherein the polyisocyanate component includes an isocyanurate derivative of xylylenediisocyanate, the content of the isocyanurate derivative of xylylenediisocyanate in the polyisocyanate component being 20 mass% or more, and in the chromatogram when the isocyanurate derivative of xylylenediisocyanate is subjected to gel permeation chromatograph measurement, the area percentage of a peak area having peak top between the polystyrene-based molecular weight of 400 to 1000 relative to the total peak area is 30% or more and 85% or less. a curing agent including a polyisocyanate component and a main component including a polyol component, wherein the polyisocyanate component includes an isocyanurate derivative of xylylenediisocyanate, the content of the isocyanurate derivative of xylylenediisocyanate in the polyisocyanate component being 20 mass% or more, and in the chromatogram when the isocyanurate derivative of xylylenediisocyanate is subjected to gel permeation chromatograph measurement, the area percentage of a peak area having peak top between the polystyrene-based molecular weight of 400 to 1000 relative to the total peak area is 30% or more and 85% or less.
A method comprising: displaying a graphical user interface, the graphical user interface showing simultaneously a graphical schedule for at least one device, and historical information related to the at least one device, the graphical schedule indicating a relationship between time and at least one user-selected condition to be satisfied by the at least one device or at least one user selected action to be taken by the at least one device, the historical information including historical data that indicates a relationship between time and price charged for power by a utility modifying the graphical schedule based on graphical manipulations from a user; providing the graphical schedule to a programmable multimedia controller which includes an interface to the at least one device, using the programmable multimedia controller to control the at least one device in accordance with the graphical schedule. displaying a graphical user interface, the graphical user interface showing simultaneously a graphical schedule for at least one device, and historical information related to the at least one device, the graphical schedule indicating a relationship between time and at least one user-selected condition to be satisfied by the at least one device or at least one user selected action to be taken by the at least one device, the historical information including historical data that indicates a relationship between time and price charged for power by a utility modifying the graphical schedule based on graphical manipulations from a user; providing the graphical schedule to a programmable multimedia controller which includes an interface to the at least one device, using the programmable multimedia controller to control the at least one device in accordance with the graphical schedule.
Method for electronically regulating the brake force distribution in a pressure medium-operated brake system of a vehicle having at least one front axle brake circuit, which is associated with a front axle, and at least one rear axle brake circuit, which is associated with at least one rear axle, wherein a) when the brake system is operated, a rear axle brake pressure, which acts in the at least one rear axle brake circuit, is regulated with the objective of preventing locking of the rear wheels before locking of the front wheels, characterized in that b) the brake pressure at the rear axle is limited only while a pressure value which acts in the rear axle brake circuit is below a prespecified pressure threshold value, but the brake pressure at the rear axle is not limited if the pressure value which acts in the rear axle brake circuit is equal to or greater than the prespecified pressure threshold value. a) when the brake system is operated, a rear axle brake pressure, which acts in the at least one rear axle brake circuit, is regulated with the objective of preventing locking of the rear wheels before locking of the front wheels, characterized in that b) the brake pressure at the rear axle is limited only while a pressure value which acts in the rear axle brake circuit is below a prespecified pressure threshold value, but the brake pressure at the rear axle is not limited if the pressure value which acts in the rear axle brake circuit is equal to or greater than the prespecified pressure threshold value.
A light system for an aircraft, comprising: a wheel speed sensor; a first aircraft light; a controller coupled to the sensor and the first aircraft light; and a tangible, non-transitory memory configured to communicate with the controller, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: receiving, by the controller, data from the wheel speed sensor; determining, by the controller, a status of the aircraft based on the data; and controlling, by the controller, the first aircraft light based on the status of the aircraft; wherein the first aircraft light comprises a taxi light; the system comprising a weight on wheels sensor configured to provide indication that the aircraft is on the ground; and wherein the operations further comprise activating, by the controller, the taxi light in response to a wheel speed being below a second threshold and an indication from the weight on wheels sensor that the aircraft is on the ground. a wheel speed sensor; a first aircraft light; a controller coupled to the sensor and the first aircraft light; and a tangible, non-transitory memory configured to communicate with the controller, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: receiving, by the controller, data from the wheel speed sensor; determining, by the controller, a status of the aircraft based on the data; and controlling, by the controller, the first aircraft light based on the status of the aircraft; receiving, by the controller, data from the wheel speed sensor; determining, by the controller, a status of the aircraft based on the data; and controlling, by the controller, the first aircraft light based on the status of the aircraft; wherein the first aircraft light comprises a taxi light; the system comprising a weight on wheels sensor configured to provide indication that the aircraft is on the ground; and wherein the operations further comprise activating, by the controller, the taxi light in response to a wheel speed being below a second threshold and an indication from the weight on wheels sensor that the aircraft is on the ground.
A rear part of an aircraft including: - a fuselage defining an internal space of the aircraft; - at least two engines; - an engine support structure, traversing the said fuselage in the area of first and second openings made in the latter, and distributed either side of a vertical median plane of the aircraft, where the said support structure has first and second opposite ends; - each of the said first and second opposite ends of the support structure protruding externally from the fuselage, respectively either side of the said vertical median plane, and supporting one of the said engines; and - fastening means connecting the said support structure to the fuselage; characterised in that said fastening means include two effort transmission connecting rods positioned, as seen from a front view of the rear part of an aircraft, either side of the vertical median plane, where each connecting rod has a first end mounted on the said support structure in rotary fashion along an axis of rotation parallel to the longitudinal direction of the aircraft, and a second end mounted on the fuselage, at some distance from the first and second openings, in a rotary fashion along an axis of rotation parallel to the longitudinal direction of the aircraft, where said rear part of an aircraft is designed so as to allow, by rotation of the connecting rods around the said axes of rotation (67, 69), an oscillating movement of limited amplitude of the assembly formed by the support structure and the said engines, relative to the said fuselage, through the said first and second openings of the latter. - a fuselage defining an internal space of the aircraft; - at least two engines; - an engine support structure, traversing the said fuselage in the area of first and second openings made in the latter, and distributed either side of a vertical median plane of the aircraft, where the said support structure has first and second opposite ends; - each of the said first and second opposite ends of the support structure protruding externally from the fuselage, respectively either side of the said vertical median plane, and supporting one of the said engines; and - fastening means connecting the said support structure to the fuselage;
A suction head for the aspiration of the blood accumulating in the intervention area during a surgical intervention, in particular in the cardiac and thoracic region during cardiac operations, with a plurality of circumferential longitudinal slots, wherein an outer sleeve of the suction head has longitudinal slots, into which corresponding ribs of an inner part, inserted into the outer sleeve, engage, narrowing the cross-section, characterized in that the inner part is constructed in a star-shaped manner in cross-section with the formation of the ribs, between the ribs and the longitudinal slots free spaces are formed, which create a flow connection into the suction head during aspirating, the tubular inner part is connected on the face side with a suction tube and in this end-side connecting region is securely coupled with the outer sleeve and outside the connecting region the inner part is spaced apart in certain areas with respect to the outer sleeve, in order to form flow channels.
Machine for printing material webs, - which machine has a station (1, 11, 41) for observing the printed material web, - the station (1, 11, 41) for observing the material web having a sensor for observing the material web and at least one support (2, 12, 32) for guiding the web, the at least one support (2, 12, 32) being situated on that side of the web which faces away from the sensor (3, 13), - and that surface of the support which faces the material web consisting at least partially of a porous or perforated material which is flowed through by compressed air, characterized in that that surface of the support which faces the material web has a mirror and/or a backlight (18, 39). - which machine has a station (1, 11, 41) for observing the printed material web, - the station (1, 11, 41) for observing the material web having a sensor for observing the material web and at least one support (2, 12, 32) for guiding the web, the at least one support (2, 12, 32) being situated on that side of the web which faces away from the sensor (3, 13), - and that surface of the support which faces the material web consisting at least partially of a porous or perforated material which is flowed through by compressed air,
An anhydrous crystalline form of the sodium salt of (4-{4-[5-(6-trifluoromethyl-pyridin-3-ylamino)-pyridin-2-yl]-phenyl}-cyclohexyl)-acetic acid of formula which remains dry at 25°C and at a relative humidity ranging from 0% to 70%, and which is in the form of Modification N or O, wherein Modification N is characterized by an X-ray powder diffraction pattern comprising four or more 2θ values (± 0.1 degree) (CuKα λ=1.5418 Å) selected from the group consisting of 6.2, 8.3, 16.6, 19.6, 21.2, 25.0, and 29.4, at a temperature of about 22°C, and Modification O is characterized by an X-ray powder diffraction pattern comprising four or more 2θ values (± 0.1 degree) (CuKα λ=1.5418 Å) selected from the group consisting of 4.3, 8.7, 15.2, 17.8, 18.5, 19.1, and 19.6, at a temperature of about 22°C. which remains dry at 25°C and at a relative humidity ranging from 0% to 70%, and which is in the form of Modification N or O, wherein Modification N is characterized by an X-ray powder diffraction pattern comprising four or more 2θ values (± 0.1 degree) (CuKα λ=1.5418 Å) selected from the group consisting of 6.2, 8.3, 16.6, 19.6, 21.2, 25.0, and 29.4, at a temperature of about 22°C, and Modification O is characterized by an X-ray powder diffraction pattern comprising four or more 2θ values (± 0.1 degree) (CuKα λ=1.5418 Å) selected from the group consisting of 4.3, 8.7, 15.2, 17.8, 18.5, 19.1, and 19.6, at a temperature of about 22°C.
A harvesting machine comprising: a harvesting part that is provided forward of a machine body, and is configured to harvest crops in a farm field; and a plurality of crop sensors (31, 32, 33, 34) that are provided in the harvesting part at intervals in a left-right direction, and are configured to detect the presence of crops upon coming into contact with the crops, wherein a conveying part that is configured to convey crops from the harvesting part toward the machine body is coupled to a rear portion of the harvesting part, the harvesting part including: a lateral conveying member that is configured to be driven to rotate about an axis that extends in a left-right direction so as to convey crops toward an entrance of the conveying part in a left-right direction of the harvesting part; and a frame member that supports the lateral conveying member so as to be rotatable, and to which the conveying part is coupled, and the crop sensors (31, 32, 33, 34) are provided on the frame member, characterized in that the crop sensors (31, 32, 33, 34) are provided on a portion that is located below the lateral conveying member, of the frame member. a harvesting part that is provided forward of a machine body, and is configured to harvest crops in a farm field; and a plurality of crop sensors (31, 32, 33, 34) that are provided in the harvesting part at intervals in a left-right direction, and are configured to detect the presence of crops upon coming into contact with the crops, wherein a conveying part that is configured to convey crops from the harvesting part toward the machine body is coupled to a rear portion of the harvesting part, the harvesting part including: a lateral conveying member that is configured to be driven to rotate about an axis that extends in a left-right direction so as to convey crops toward an entrance of the conveying part in a left-right direction of the harvesting part; and a frame member that supports the lateral conveying member so as to be rotatable, and to which the conveying part is coupled, and a lateral conveying member that is configured to be driven to rotate about an axis that extends in a left-right direction so as to convey crops toward an entrance of the conveying part in a left-right direction of the harvesting part; and a frame member that supports the lateral conveying member so as to be rotatable, and to which the conveying part is coupled, and the crop sensors (31, 32, 33, 34) are provided on the frame member, characterized in that the crop sensors (31, 32, 33, 34) are provided on a portion that is located below the lateral conveying member, of the frame member.
Kneading apparatus for kneading and mixing dough, comprising a kneading chamber that is delimited on all sides, at least in regions, by a wall and that has a discharge opening for discharging the kneaded dough from the kneading chamber and an entry region, provided on the side of the kneading chamber that faces away from the discharge opening, for filling the kneading chamber with dough to be kneaded, and comprising at least two shafts (12, 14) on which tools (18, 22) arranged in the kneading chamber are secured, wherein at least one of the tools (18, 22) is configured to convey dough in a conveying direction from the entry region towards the discharge opening, and the rotational speeds of the two motor-driven shafts (12, 14) can be set and changed independently of each other by means of a control unit, and the two shafts (12, 14) are each equipped differently with tools (18, 22) so that the conveying action of all the tools of the first shaft in the form of a volume stream of the dough located in the kneading chamber in the conveying direction and/or the kneading action of all the tools of the first shaft in the form of a volume stream of the dough located in the kneading chamber in the direction towards the tools of the other shaft deviates from the conveying action and/or the kneading action of all the tools of the second shaft when the shafts (12, 14) have the same rotational speed, wherein the first shaft and the tools secured thereon are arranged within an imaginary cylindrical jacket, on which the inner edges of the tools secured on the second shaft, which edges point toward the first shaft, run during a rotation about the axis of the second shaft, wherein the tools of the first shaft are formed by a plurality of paddles having a paddle surface that moves dough located in the kneading chamber during a rotation of the first shaft, and the paddles are arranged along the shaft so as to be offset relative to each other and the movement paths of the paddle surfaces of two adjacent paddles overlap in part during a rotation about the axis of the first shaft, and the tools of the second shaft are formed by a plurality of conveying kneading segments that each have a working surface that moves dough located in the kneading chamber during a rotation of the second shaft and are arranged along the shaft so as to be offset relative to each other, wherein the movement paths of the working surfaces of two adjacent conveying kneading segments overlap at least in part during a rotation about the axis of the second shaft, and wherein the minimum spacing between the paddles and the conveying kneading segments is from 1.5 mm to 15.0 mm, and preferably from 5.0 to 10.0 mm.
A device for recovering and converting heat energy into electrical energy comprising at least one cell (C1, C2, C101, C102) comprising: - a first cavity (2, 2') at least one part of at least one wall (2.1) of which is configured to contact a heat source, - a second cavity (4, 4') at least one part of at least one wall (4.1) of which is configured to contact a cold source, - a primary channel connecting the first cavity and the second cavity intended to transport a fluid as liquid drops, the primary channel comprising means providing transport of liquid fluid drops from the second cavity to the first cavity, - at least one secondary channel connecting the first cavity and the second cavity intended to transport the fluid as a gas, - at least one piezoelectric material provided in at least one of the first and second cavities, - a fluid as a liquid and gas contained within the cell, - means for connecting said piezoelectric material to a device for recovering electrical energy generated by the piezoelectric material. - a first cavity (2, 2') at least one part of at least one wall (2.1) of which is configured to contact a heat source, - a second cavity (4, 4') at least one part of at least one wall (4.1) of which is configured to contact a cold source, - a primary channel connecting the first cavity and the second cavity intended to transport a fluid as liquid drops, the primary channel comprising means providing transport of liquid fluid drops from the second cavity to the first cavity, - at least one secondary channel connecting the first cavity and the second cavity intended to transport the fluid as a gas, - at least one piezoelectric material provided in at least one of the first and second cavities, - a fluid as a liquid and gas contained within the cell, - means for connecting said piezoelectric material to a device for recovering electrical energy generated by the piezoelectric material.
A method for sending control messages from one or more nodes (16, 18) in a wireless communication network to a wireless communication device comprising: sending a reconfiguration message to the device using an existing downlink control channel configuration for the device, said reconfiguration message indicating a new downlink control channel configuration for the device; and the method being characterized in that it comprises: during a window of control channel configuration ambiguity that arises for the device as a consequence of sending the reconfiguration message (22, 24), sending a control message (22, 24) to the device using the existing downlink control channel configuration and sending the same control message (22, 24) to the device using the new downlink control channel configuration. sending a reconfiguration message to the device using an existing downlink control channel configuration for the device, said reconfiguration message indicating a new downlink control channel configuration for the device; and the method being characterized in that it comprises: during a window of control channel configuration ambiguity that arises for the device as a consequence of sending the reconfiguration message (22, 24), sending a control message (22, 24) to the device using the existing downlink control channel configuration and sending the same control message (22, 24) to the device using the new downlink control channel configuration.
Docking module for labelling machines, for a selectively dockable labelling-aggregate, wherein respectively at least one plug-in multi-coupling (K1-K4) for operating media and/or controlling media is provided in the docking module and at the labelling-aggregate, the docking module comprising an adjusting drive (4, 5) for a height-adjustable docking station, and each multi-coupling (K1, K2) provided at least in the docking station has a cover lid being movable between an open position and a closed position, the cover lid being opened prior to establishing a plugged-in connection with a multi-coupling (K3, K4) of the labelling-aggregate, characterized in that a mechanical motion control having a control curve (19, 20, 21) for an actuating protrusion of the cover lid pivotably linked to the multi-coupling (K1, K2) is arranged between the cover lid and the docking station, and that by means of the motion control the cover-lid is automatically brought from the closed position into the opened position at least during the movement for establishing the plugged-in connection of the multi-couplings (K1-K4), the movement being initiated by an adjustment drive of the docking station.