mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a filling system with a container filling machine for filling containers with liquid material, preferably with a liquid material containing solids, wherein the container filling machine has at least one filling tank for receiving the filling material and at least one filling element for the controlled delivery of the filling material, which flows out of the tank into the respective container, with a processing unit for preparing the filling material to be fed into the filling tank, with at least one bypass line connecting to at least one filling element, with a bypass pump for returning a filling material residue or a bypass volume flow from the at least one filling element and/or from the filling tank to the processing unit, and with an overflow line for returning an unneeded filling material quantity to the processing unit, the bypass pump is configured as a displacement pump, and the filling material residue and/or the bypass volume flow is/are actively drawn from the at least one filling element and/or from the filling tank, through the bypass pump configured as a displacement pump, wherein the level of the filling material in the filling tank is regulated and/or controlled by a change in the volume flow in the overflow line, by change in the delivery capacity of an overflow pump in the overflow line.
A method for manufacturing a lactic acid bacterium which generates higher shear stress and/or gel stiffness than the mother strain when the bacteria are used for fermenting milk, comprising the steps: a) providing a lactic acid bacterial strain as the mother strain; b) exposing the mother strain to a bacteriophage which is able to lyse the mother strain; c) isolating a mutant strain of the mother strain, which mutant strain is not lysed by the bacteriophage; d) introducing a mutation in the galK regulatory sequence of the strain before, during and/or after step b); wherein said mutant strain generates higher shear stress and/or gel stiffness than the mother strain when used for fermenting milk. a) providing a lactic acid bacterial strain as the mother strain; b) exposing the mother strain to a bacteriophage which is able to lyse the mother strain; c) isolating a mutant strain of the mother strain, which mutant strain is not lysed by the bacteriophage; d) introducing a mutation in the galK regulatory sequence of the strain before, during and/or after step b);
A kit for assembling a dental attachment device, comprising; a cap for securing a dental appliance, the cap having an open end and an inner cavity forming a concave annular wall, and a first attachment portion; an abutment comprising an upper portion and a second attachment portion, the second attachment portion is configured for attachment to a tooth root or implant, the upper portion having a convex outer surface and an open end, the convex outer surface configured for face to face swivel engagement with the concave annular wall of the cap; and a one piece removable ball having an upper end and a head portion, the removable ball being positional between the cap and the abutment, wherein the head portion is configured for releasable retentive engagement in the open end of the abutment and the upper end configured for engagement to the cap, wherein the removable ball comprises a driving feature in the form of an internal hexagon. a cap for securing a dental appliance, the cap having an open end and an inner cavity forming a concave annular wall, and a first attachment portion; an abutment comprising an upper portion and a second attachment portion, the second attachment portion is configured for attachment to a tooth root or implant, the upper portion having a convex outer surface and an open end, the convex outer surface configured for face to face swivel engagement with the concave annular wall of the cap; and a one piece removable ball having an upper end and a head portion, the removable ball being positional between the cap and the abutment, wherein the head portion is configured for releasable retentive engagement in the open end of the abutment and the upper end configured for engagement to the cap, wherein the removable ball comprises a driving feature in the form of an internal hexagon.
Housing for electrical equipment comprising: a base comprising a lateral wall and a bottom, said bottom being bordered by said lateral wall, said base comprising at least one location or one first location designed and intended to receive a single electrical device, said at least one location or one first location comprising at least one set or one first set of female fitting means which extend from the bottom or from at least a first part of the bottom to receive complementary male fitting means of the electrical device, the fitting means of said at least one location or a first location being symmetrical by rotation by an angle equal to 90 degrees and/or 180 degrees, according to a centre of symmetry or a first centre of symmetry respectively of the bottom or of said at least one first part of the bottom, the fitting means comprising at least one groove protruding from said at least one part of the bottom (23a, 23b) or from the bottom, extending in a direction substantially at right angles to the bottom, the groove comprising a stop disposed at a determined distance from the bottom, the housing is characterized in that said set of fitting means comprises four of these grooves equidistant from said centre of symmetry (O1, O2) and symmetrical by rotation by an angle equal to 90 degrees with respect to the centre of symmetry of the bottom. a base comprising a lateral wall and a bottom, said bottom being bordered by said lateral wall, said base comprising at least one location or one first location designed and intended to receive a single electrical device, said at least one location or one first location comprising at least one set or one first set of female fitting means which extend from the bottom or from at least a first part of the bottom to receive complementary male fitting means of the electrical device, the fitting means of said at least one location or a first location being symmetrical by rotation by an angle equal to 90 degrees and/or 180 degrees, according to a centre of symmetry or a first centre of symmetry respectively of the bottom or of said at least one first part of the bottom, the fitting means comprising at least one groove protruding from said at least one part of the bottom (23a, 23b) or from the bottom, extending in a direction substantially at right angles to the bottom, the groove comprising a stop disposed at a determined distance from the bottom, the housing is characterized in that said set of fitting means comprises four of these grooves equidistant from said centre of symmetry (O1, O2) and symmetrical by rotation by an angle equal to 90 degrees with respect to the centre of symmetry of the bottom.
A resin-transfer-moldable terminal-modified imide oligomer mixture comprising: a resin-transfer-moldable terminal-modified imide oligomer having a residue of a tetravalent aromatic tetracarboxylic acid, which oligomer is represented by General Formula, and wherein the resin-transfer-moldable terminal-modified imide oligomer contains an oligomer wherein n is 0 in an amount of 10% by mol or more (where R 1 and R 2 are a hydrogen atom or an aromatic hydrocarbon group having 6 to 10 carbon atoms, and one of R 1 and R 2 is the aromatic hydrocarbon group having 6 to 10 carbon atoms; R 3 is an aromatic organic group surrounded by four carbonyl groups in the aromatic tetracarboxylic acid, and for a formula where n is 2 or more, R 3 s are optionally the same as or different from each other; and n is an integer of 0 or more and 6 or less); and a resin-transfer-moldable terminal-modified imide oligomer represented by General Formula where n is 0. a resin-transfer-moldable terminal-modified imide oligomer having a residue of a tetravalent aromatic tetracarboxylic acid, which oligomer is represented by General Formula, and wherein the resin-transfer-moldable terminal-modified imide oligomer contains an oligomer wherein n is 0 in an amount of 10% by mol or more (where R 1 and R 2 are a hydrogen atom or an aromatic hydrocarbon group having 6 to 10 carbon atoms, and one of R 1 and R 2 is the aromatic hydrocarbon group having 6 to 10 carbon atoms; R 3 is an aromatic organic group surrounded by four carbonyl groups in the aromatic tetracarboxylic acid, and for a formula where n is 2 or more, R 3 s are optionally the same as or different from each other; and n is an integer of 0 or more and 6 or less); and a resin-transfer-moldable terminal-modified imide oligomer represented by General Formula where n is 0.
A method for operating a chemical plant, wherein the chemical plant has a steam turbine with a shaft and with a first pressure turbine stage and a second pressure turbine stage, which first pressure turbine stage and second pressure turbine stage are each disposed on the shaft and connected in series in terms of the steam process, wherein steam for driving the steam turbine is obtained from a reactor plant, which reactor plant produces a hydrogen-containing substance from a carbon-containing energy-carrier flow, wherein the steam is heated in an overheating step prior to being supplied to the second pressure turbine stage, wherein the steam turbine has a third pressure turbine stage which is disposed on the shaft and which is connected between the first pressure turbine stage and the second pressure turbine stage in terms of the steam process, and wherein the steam passes through the overheating step after exiting the third pressure turbine stage, characterized in that the steam is heated to a temperature above the saturation temperature, and that the reactor plant produces methanol.
A build platform for a printing station, comprising: a trolley, and a print bucket, mounted on the trolley and comprising coupling elements (115A, 115B), respectively engageable to receiving elements (120A, 120B) of the printing station, the coupling elements to cause the print bucket to at least partially disengage from the trolley when the coupling elements engage with the receiving elements of the printing station, characterized in that each of either the coupling elements or the receiving elements comprises a bearing, whereas each of the respective receiving or coupling elements comprises a ramp, the ramp leading to a pocket, wherein the receiving elements are to guide the coupling elements upwards towards a coupling position as the trolley is inserted inside the printing station. a trolley, and a print bucket, mounted on the trolley and comprising coupling elements (115A, 115B), respectively engageable to receiving elements (120A, 120B) of the printing station, the coupling elements to cause the print bucket to at least partially disengage from the trolley when the coupling elements engage with the receiving elements of the printing station, characterized in that each of either the coupling elements or the receiving elements comprises a bearing, whereas each of the respective receiving or coupling elements comprises a ramp, the ramp leading to a pocket, wherein the receiving elements are to guide the coupling elements upwards towards a coupling position as the trolley is inserted inside the printing station.
Blade, in particular shaving blade for processing hides, comprising an elongated, flat blade leg which is provided helically around a central axis along its longitudinal axis, so that the longitudinal axis of the blade extends helical, wherein the blade leg provides a cutting portion at an upper end facing away from the central axis which comprises at its upper end a cutting edge, wherein the blade provides at least in its cutting portion a surface structure which is elongated with respect to a smooth surface path and which, when viewed along the longitudinal axis of the blade, provides regularly alternating high points and low points, wherein mountain lines and valley lines, which correspond respectively to the high points and low points of the surface structure, extend from the cutting edge in direction to the longitudinal axis of the blade, characterized in that the mountain lines and valley lines run in an arc shape in the blade leg plane.
A molding device for obtaining in one step a thermal insulation product comprising at least one vacuum insulation panel enveloped in at least one polymer material, comprising a mold provided with at least two inner walls (20, 21), comprising one or more orifices for the introduction of at least one polymer material into the interior of the mold, and comprising in at least one of its inner walls, retractable needles (5, 6), said device comprising at least two types of needles: - a plurality of positioning needles making it possible to wedge each vacuum panel on at least two sides, by holding said panels at their edge, at least some of said needles being preferably retractable; and - a plurality of holding needles, making it possible to wedge each vacuum panel at a distance from the inner wall or walls of the mold by coming into abutment against one of the main faces of the panel positioned opposite, said needles being retractable, the positioning needles having a greater length than the holding needles. - a plurality of positioning needles making it possible to wedge each vacuum panel on at least two sides, by holding said panels at their edge, at least some of said needles being preferably retractable; and - a plurality of holding needles, making it possible to wedge each vacuum panel at a distance from the inner wall or walls of the mold by coming into abutment against one of the main faces of the panel positioned opposite, said needles being retractable, the positioning needles having a greater length than the holding needles.
A payload control apparatus, comprising: a spring-line assembly, including: a spring line actuating mechanism; a spring-line flying sheave assembly including only a single flying sheave over which a load line can pass; and a flexible spring line having one end connected to the spring line actuating mechanism and another end connected to the spring line flying sheave assembly, wherein the spring line flying sheave assembly can be moveably disposed via the spring line actuating mechanism into at least one position such that the single flying sheave is in one of a non-contacting, spaced relation and a non-path-altering, contacting relation to a region of a straight load-line path having a load line path length, L 1, of the load-line that is connected at one region thereof to a winch assembly and at another region thereof to a payload to be controllably lifted, lowered, positioned, or maintained in a stationary location, and one or more rotatable, positionally fixed sheaves disposed in the load-line path, wherein the one or more fixed sheaves provide load-line path stabilization when the spring-line assembly flying sheave is disposed in the path-altering, engaging contact position with the load-line, further wherein the spring-line flying sheave assembly can be moveably disposed via the actuating mechanism into at least another position such that the single flying sheave is in a load line path-altering, engaging contact with the region of the straight load-line path of the load-line such that the load-line path is not straight and has a load line path length, L 2, that is greater than load line path length L 1. a spring line actuating mechanism; a spring-line flying sheave assembly including only a single flying sheave over which a load line can pass; and a flexible spring line having one end connected to the spring line actuating mechanism and another end connected to the spring line flying sheave assembly, wherein the spring line flying sheave assembly can be moveably disposed via the spring line actuating mechanism into at least one position such that the single flying sheave is in one of a non-contacting, spaced relation and a non-path-altering, contacting relation to a region of a straight load-line path having a load line path length, L 1, of the load-line that is connected at one region thereof to a winch assembly and at another region thereof to a payload to be controllably lifted, lowered, positioned, or maintained in a stationary location, and one or more rotatable, positionally fixed sheaves disposed in the load-line path,
A pilot protection method for transmission line of renewable energy power station based on current waveform similarity, comprising: mounting identical relay protection devices respectively on opposite sides (M, N) of a transmission line connected to the renewable energy power station, with each protection device independently measuring the three-phase current of its own side, and acquiring the three-phase current of the opposite side by means of a communication channel; calculating separately the correlation coefficients of each set of relay protection devices, according to the sampled values of the same phase currents in the same time window at the same time on the own side and the opposite side; and each set of relay protection device judging whether there is a fault inside the internal transmission line of the renewable energy power station based on the comparison between the set value and said correlation coefficient of current of each phase and, and enables protective measures according to the fault type. mounting identical relay protection devices respectively on opposite sides (M, N) of a transmission line connected to the renewable energy power station, with each protection device independently measuring the three-phase current of its own side, and acquiring the three-phase current of the opposite side by means of a communication channel; calculating separately the correlation coefficients of each set of relay protection devices, according to the sampled values of the same phase currents in the same time window at the same time on the own side and the opposite side; and each set of relay protection device judging whether there is a fault inside the internal transmission line of the renewable energy power station based on the comparison between the set value and said correlation coefficient of current of each phase and, and enables protective measures according to the fault type.
Apparatus comprising: a home mobile positioning centre configured to: receive a packet-formatted positioning request for location of a mobile station pursuant to a location based service, wherein the positioning request comprises a base station identifier identifying where the mobile station is in a network; forward said positioning request to a serving mobile positioning centre; receive information related to a positioning determining entity, PDE, from the serving mobile positioning centre, wherein the information includes an address of the PDE; and send a discovery response including the address of the PDE to the mobile station. a home mobile positioning centre configured to: receive a packet-formatted positioning request for location of a mobile station pursuant to a location based service, wherein the positioning request comprises a base station identifier identifying where the mobile station is in a network; forward said positioning request to a serving mobile positioning centre; receive information related to a positioning determining entity, PDE, from the serving mobile positioning centre, wherein the information includes an address of the PDE; and send a discovery response including the address of the PDE to the mobile station. receive a packet-formatted positioning request for location of a mobile station pursuant to a location based service, wherein the positioning request comprises a base station identifier identifying where the mobile station is in a network; forward said positioning request to a serving mobile positioning centre; receive information related to a positioning determining entity, PDE, from the serving mobile positioning centre, wherein the information includes an address of the PDE; and send a discovery response including the address of the PDE to the mobile station.
Decoupling element which serves for decoupling a fuel injection valve from a cylinder head, having a main body which, in the installed state, serves for surrounding a housing of the fuel injection valve, wherein, on the main body, there are formed a cylinder-side bearing region, which serves for support on the cylinder head, and a valve-side support region, which serves for supporting the fuel injection valve, wherein only the cylinder-side bearing region of the main body is formed at least partially in the manner of a closed ring, and the main body has segments (15 - 18) which are distributed over a circumference and which are connected to one another by the closed ring of the cylinder-side bearing region, characterized in that, at least on one segment of the valve-side support region, there is formed a securing element which, in the installed state, interacts with the housing of the fuel injection valve to form a retainer.
An apparatus configured to apply material to a crop in a field comprising: a delivery vehicle configured to move across a field; a delivery vehicle controller configured to automatically control the movement of the delivery vehicle; a sensor configured to obtain crop data during movement of the delivery vehicle across said field; and an agriculture controller configured to: determine, during the movement of the delivery vehicle, needs of the crop based on said crop data; characterized in that the controller is further configured to determine, in real-time with the determination of the needs of said crop based on said crop data, movement commands to adjust said movement of said delivery vehicle, said movement commands comprising commands to change a direction of the delivery vehicle, based on said needs of said crop; and transmit said movement commands to said delivery vehicle controller. a delivery vehicle configured to move across a field; a delivery vehicle controller configured to automatically control the movement of the delivery vehicle; a sensor configured to obtain crop data during movement of the delivery vehicle across said field; and an agriculture controller configured to: determine, during the movement of the delivery vehicle, needs of the crop based on said crop data; characterized in that the controller is further configured to determine, in real-time with the determination of the needs of said crop based on said crop data, movement commands to adjust said movement of said delivery vehicle, said movement commands comprising commands to change a direction of the delivery vehicle, based on said needs of said crop; and transmit said movement commands to said delivery vehicle controller. determine, during the movement of the delivery vehicle, needs of the crop based on said crop data; characterized in that the controller is further configured to determine, in real-time with the determination of the needs of said crop based on said crop data, movement commands to adjust said movement of said delivery vehicle, said movement commands comprising commands to change a direction of the delivery vehicle, based on said needs of said crop; and transmit said movement commands to said delivery vehicle controller.