mhurhangee/ep-ind-claims huggingface dataset:
An injection blow molding apparatus including an injection molding section which is equipped with an injection unit and an injection mold unit to be operated by an oil pressure and which forms a preform by injection molding, and a blow molding section which is equipped with a blow mold unit to be operated by an oil pressure and which blow molds the preform, the injection blow molding apparatus, comprising: a first oil supply section which has a hydraulic drive source composed of a drive motor, whose number of revolutions can be controlled, and a hydraulic pump and which supplies oil from an oil tank to an injection mold drive unit provided in the injection mold unit; and characterized by a second oil supply section which has a hydraulic drive source composed of a drive motor, whose number of revolutions can be controlled, and a hydraulic pump and which supplies oil from the oil tank to a blow mold drive unit provided in the blow mold unit, the second oil supply section being provided independently of the first oil supply section. a first oil supply section which has a hydraulic drive source composed of a drive motor, whose number of revolutions can be controlled, and a hydraulic pump and which supplies oil from an oil tank to an injection mold drive unit provided in the injection mold unit; and characterized by a second oil supply section which has a hydraulic drive source composed of a drive motor, whose number of revolutions can be controlled, and a hydraulic pump and which supplies oil from the oil tank to a blow mold drive unit provided in the blow mold unit, the second oil supply section being provided independently of the first oil supply section.
A method for scheduling an execution of a task on a device, the method comprising: detecting a first state of the device, wherein the first state of the device is associated with a first power level, and wherein the first power level is at least partially based on power consumption of a first task; determining that the first power level associated with the first state is above a threshold or that a battery coupled to the device is charging; and in response to determining that the first power level associated with the first state is above the threshold or that the battery coupled to the device is charging, scheduling an execution of a second task on the device, wherein the second task is associated with automatically collecting calibration data using at least one sensor. detecting a first state of the device, wherein the first state of the device is associated with a first power level, and wherein the first power level is at least partially based on power consumption of a first task; determining that the first power level associated with the first state is above a threshold or that a battery coupled to the device is charging; and in response to determining that the first power level associated with the first state is above the threshold or that the battery coupled to the device is charging, scheduling an execution of a second task on the device, wherein the second task is associated with automatically collecting calibration data using at least one sensor.
An apparatus for processing aggregate material comprising a chassis, a trough mounted on the chassis at an inclined angle, a pair of parallel shafts (6,8) being rotatably mounted within the trough adjacent one another and extending from a lower to an upper end of the trough, a drive being provided adapted to drive the shafts in opposite directions, each shaft (6,8) having a plurality of blades (14,16) mounted thereon, the blades (14,16) on the shafts (6,8) being staggered such that the blades (14,16) on the adjacent shafts (6,8) can pass between one another during rotation of the shafts, and wherein the blades (14,16) are angled so that they carry material within the trough towards an upper end of the trough when the shafts (6,8) are rotated by the drive in a normal direction of rotation, a water supply being provided for adding water to the trough, wherein at least one weir (18,20) is provided in a side wall (22,24) of the trough adjacent a lower end thereof over which excess water and any floating trash within the trough may pass, said at least one weir (18,20) defining a normal water level within the trough during operation of the apparatus, a first vibratory screen being mounted adjacent the lower end of the trough such that water and floating trash overflowing from said at least one weir (18,20) passes onto a deck of the first vibratory screen, dewatered trash passing over a downstream end of the deck of the first vibratory screen while undersize material and water passes into a sump of the first vibratory screen, a second vibatory screen being mounted adjacent the upper end of the trough for receiving particulate material from the upper end of the trough, the second vibratory screen having at least one deck over which oversize material passes and a sump into which water and undersize material passing through the at least one deck of the second vibratory screen is collected, wherein water collected in the sump of the first vibratory screen is arranged to pass into the sump of the second vibratory screen.
A display device for displaying legally prescribed fields of view (210, 220, 230, 235, 240, 250) of a commercial vehicle within a driver's cabin of the commercial vehicle, the display device comprising at least one capturing unit, a calculation unit, and at least one display unit, wherein the display device is adapted to process information acquired by the at least one capturing unit by means of the calculation unit and to transmit said information to the at least one display unit such that at least two of the legally prescribed fields of view (210, 220, 230, 235, 240, 250), which have to be permanently displayed during driving operation, are displayed on the display unit in the driver's cabin permanently, continuously, visibly for the driver at any time, and in real time, wherein the at least two fields of view (210, 220, 230, 235, 240, 250) are shown in a common depiction, characterized in that the legally prescribed fields of view (210, 220, 230, 235, 240, 250) include the field of view (210, 230) of a main mirror and the field of view (220, 235) of a wide-angle mirror, which fields of view are shown in the common representation, and wherein the display unit includes a voltage supply that is independent from the commercial vehicle's on-board voltage.
A package comprising a top-sealed gable-top carton of rectangular cross-section, a flowable substance contained in said carton, and a pour spout fitment openable to pour said substance from said carton, said carton including a top closure including a roof sub-panel (30; 130; 330) carrying and sealed to a flange of said fitment, said carton also including a front sub-panel (40; 140; 340) extending downwardly from a boundary zone between said roof sub-panel (30; 130; 330) and said front sub-panel (40; 140; 340), said boundary zone being constituted by an edge (68; 68a-68c; 68d, 68e; 68f, 68g, 68h; 68i-68k; 681-68n; 168; 268; 368; 468) protruding into said front sub-panel (40; 140; 340), and characterised by said flange having respective opposite peripheral portions which extend adjacent to said edge and adjacent to a further boundary zone opposite the first-mentioned boundary zone and between said roof sub-panel (30; 130; 330) and a top sealing sub-panel disposed outwardly of said roof sub-panel.
A driver's cab front module for a driver's cab of a utility vehicle, wherein the driver's cab front module is premanufactured and preassembled and has: a driver's cab front wall structure; and a driver's cab partial floor structure which is connected to the driver's cab front wall structure, partially forms a driver's cab floor and has a support construction with at least one attachment region for the supporting attachment of the driver's cab front module to a further driver's cab partial floor structure of the driver's cab. a driver's cab front wall structure; and a driver's cab partial floor structure which is connected to the driver's cab front wall structure, partially forms a driver's cab floor and has a support construction with at least one attachment region for the supporting attachment of the driver's cab front module to a further driver's cab partial floor structure of the driver's cab.
A method for sharing a web page between a device and peer devices, the method comprising, in the device: searching for a peer device (operation 210); transmitting, to the peer device, a sharing request signal requesting the peer device to display the web page (operation 224), wherein the sharing request signal includes location information of the web page; operating in a first control mode operating as a touch mouse for controlling the peer device (operation 230), in response to transmitting the sharing request signal; detecting a touch coordinate corresponding to a screen touch operation of a user (operation 232); transmitting, to the peer device, a control signal corresponding to the detected touch coordinate to move a mouse cursor on the web page displayed on the peer device (operation 234); receiving, from the peer device, a request to change input means for controlling the peer device; and in response to receiving the request, transition from the first control mode to a second control mode for inputting characters into a character input window of the web page displayed on the peer device. searching for a peer device (operation 210); transmitting, to the peer device, a sharing request signal requesting the peer device to display the web page (operation 224), wherein the sharing request signal includes location information of the web page; operating in a first control mode operating as a touch mouse for controlling the peer device (operation 230), in response to transmitting the sharing request signal; detecting a touch coordinate corresponding to a screen touch operation of a user (operation 232); transmitting, to the peer device, a control signal corresponding to the detected touch coordinate to move a mouse cursor on the web page displayed on the peer device (operation 234); receiving, from the peer device, a request to change input means for controlling the peer device; and in response to receiving the request, transition from the first control mode to a second control mode for inputting characters into a character input window of the web page displayed on the peer device.
A false-twisted yarn of a dyeable polyolefin fiber comprising three or more filaments of a polymer alloy fiber having a sea-island structure composed mainly of a polyolefin as sea component and a polyester copolymerized with cyclohexanedicarboxylic acid as island component, the island component having a dispersed particle diameter of 30 to 1,000 nm in the fiber cross section and having the physical features and described below: a crimp recovery rate of 10% to 40%, and hot-water dimensional change rate of 0.0% to 7.0%, wherein the polymer alloy fiber is one that contains an island component in a discontinuously dispersed state, the polyester copolymerized with cyclohexanedicarboxylic acid to 10 to 50 mol% relative to the total quantity of the dicarboxylic acid component, and the crimp recovery rate is determined by the method specified in JIS L 1013 8.12, the hot-water dimensional change rate is determined by the method specified in JIS L1013 8.18.1 "hot-water dimensional change rate: rate of change in hank size (A-method)", and the dispersed particle diameter is measured by the method described in the description. a crimp recovery rate of 10% to 40%, and hot-water dimensional change rate of 0.0% to 7.0%, the polymer alloy fiber is one that contains an island component in a discontinuously dispersed state, the polyester copolymerized with cyclohexanedicarboxylic acid to 10 to 50 mol% relative to the total quantity of the dicarboxylic acid component, and the crimp recovery rate is determined by the method specified in JIS L 1013 8.12, the hot-water dimensional change rate is determined by the method specified in JIS L1013 8.18.1 "hot-water dimensional change rate: rate of change in hank size (A-method)", and the dispersed particle diameter is measured by the method described in the description.
An aircraft galley insert comprising a computer apparatus, said computer apparatus comprising: at least one tag reader disposed in a surface of the aircraft galley insert; and at least one processor in data communication with the at least one tag reader and a memory storing processor executable code for configuring the at least one processor to: receive data from the tag reader corresponding to a tag; identify aircraft galley insert location-based configuration data based on the data received from the tag; and alter at least one setting of the aircraft galley insert based on the identified aircraft galley insert configuration data. at least one tag reader disposed in a surface of the aircraft galley insert; and at least one processor in data communication with the at least one tag reader and a memory storing processor executable code for configuring the at least one processor to: receive data from the tag reader corresponding to a tag; identify aircraft galley insert location-based configuration data based on the data received from the tag; and alter at least one setting of the aircraft galley insert based on the identified aircraft galley insert configuration data. receive data from the tag reader corresponding to a tag; identify aircraft galley insert location-based configuration data based on the data received from the tag; and alter at least one setting of the aircraft galley insert based on the identified aircraft galley insert configuration data.
A computing system, comprising: a primary processing component (201, 233) and an auxiliary processing component (202; 215), wherein each of the primary and auxiliary processing components comprise an application runtime and wherein low intensity tasks are hosted on the auxiliary processing component; a power supply connected to the primary and auxiliary processing components, wherein the connection between the power supply and said primary processing component is switchable and wherein the connection between said power supply and said auxiliary processing component is always on; a command and control interface between said primary processing component and said auxiliary processing component; and a communication controller responsive to switch predetermined ones of peripheral components between said primary processing component and said auxiliary processing component in accordance with requirements to execute an application on said computing system. a primary processing component (201, 233) and an auxiliary processing component (202; 215), wherein each of the primary and auxiliary processing components comprise an application runtime and wherein low intensity tasks are hosted on the auxiliary processing component; a power supply connected to the primary and auxiliary processing components, wherein the connection between the power supply and said primary processing component is switchable and wherein the connection between said power supply and said auxiliary processing component is always on; a command and control interface between said primary processing component and said auxiliary processing component; and a communication controller responsive to switch predetermined ones of peripheral components between said primary processing component and said auxiliary processing component in accordance with requirements to execute an application on said computing system.
Apparatus for expanding preforms into containers within a blow mould by means of a pressurised pneumatic medium (M G), wherein a compressor piston unit for compressing the pneumatic medium (M G) is in flow communication with the blow mould, in order to introduce a volume flow of the pneumatic medium (M G) into an inner region of the blow mould, characterized in that an actuator unit that can be activated by a hydraulic medium (M F) interacts with at least one element of the compressor piston unit, in order to drive during an expansion process of the container the compressor piston unit in order to compress the pneumatic medium (M G), and in order to be driven itself during a relaxation process that temporally follows the expansion process due to the returning volume flow of the pneumatic medium (M G) into the compressor piston unit, wherein by a movement of an actuator piston element also a piston element of the compressor piston unit which is in operative connection with this actuator piston element is moved and wherein the actuator unit itself comprises an actuator piston element and an actuator medium space within which a hydraulic medium (M F) is introduced in order to move the actuator piston element in such a way that by a movement of the actuator piston element also the piston element of the compressor piston unit which is in operative connection with this actuator piston element is moved, so that during an expansion process of the container to be expanded the piston element of the compressor piston unit compresses a pneumatic medium situated in a compression space (11 a) of the compressor piston unit which is then transferred to the blow mould.
A method of producing a pharmacophore against aggregation of an aggregation prone protein, the method comprising (a) providing at least one inhibitor of the protein aggregation with a known effect on at least one microscopic rate constant in the protein aggregation, wherein the microscopic rate constant is selected from primary nucleation and secondary nucleation; (b) generating a inhibitor scaffold from the at least one inhibitor; (c) introducing at least one chemical substitution into the inhibitor scaffold to prepare a modified inhibitor scaffold comprising the at least one chemical substitution and analysing the effect of the at least one chemical substitution on aggregation kinetics of said aggregation-prone protein, wherein said analysing comprises: determining at least one microscopic rate constant of protein aggregation in the presence of said modified inhibitor scaffold comprising the at least one chemical substitution, wherein the microscopic rate constant is selected from primary nucleation and secondary nucleation;; (d) comparing the at least one microscopic rate constant of protein aggregation in step (c) against a corresponding microscopic rate constant of protein aggregation in the absence of said modified inhibitor to identify a reduction in the microscopic rate constant for primary nucleation and/or secondary nucleation; and (e) producing a pharmacophore against aggregation of a aggregation-prone protein by aligning the positive results from (d). (a) providing at least one inhibitor of the protein aggregation with a known effect on at least one microscopic rate constant in the protein aggregation, wherein the microscopic rate constant is selected from primary nucleation and secondary nucleation; (b) generating a inhibitor scaffold from the at least one inhibitor; (c) introducing at least one chemical substitution into the inhibitor scaffold to prepare a modified inhibitor scaffold comprising the at least one chemical substitution and analysing the effect of the at least one chemical substitution on aggregation kinetics of said aggregation-prone protein, wherein said analysing comprises: determining at least one microscopic rate constant of protein aggregation in the presence of said modified inhibitor scaffold comprising the at least one chemical substitution, wherein the microscopic rate constant is selected from primary nucleation and secondary nucleation;; (d) comparing the at least one microscopic rate constant of protein aggregation in step (c) against a corresponding microscopic rate constant of protein aggregation in the absence of said modified inhibitor to identify a reduction in the microscopic rate constant for primary nucleation and/or secondary nucleation; and (e) producing a pharmacophore against aggregation of a aggregation-prone protein by aligning the positive results from (d).
Revolving joint with at least one rolling contact bearing and with an electromotive drive unit, wherein the rolling contact bearing has at least one row of rolling bodies arranged around the rotational axis, and wherein the rolling bodies are in contact with at least one running track which can be driven by the drive unit, with permanent magnets of a torque motor of the drive unit, which are coupled in a rotationally fixed manner by the driven running track to a rotor of the torque motor and which, at an air gap encircling the rotational axis, are opposite a stator of the torque motor, with at least the stator and the permanent magnets being separated from each other by the air gap, characterized by surface roughnesses of the surface of the first running track driven by the drive unit and by surface roughnesses of the surface of at least one second running track where Ra values < 0.25, with the row of rolling bodies being in contact with the second running track, and characterized in that the ratio of the diameter of the reference circle to the diameter of each one of the rolling bodies of a row is greater than 30:1, with the reference circle being the imaginary circle which is arranged concentrically with respect to the rotational axis and which intersects the center axes of the rolling bodies, which center axes are oriented parallel to the rotational axis.
A method for preparing a concentrated polysaccharide mass, wherein the method comprises: blending the concentrated polysaccharide mass having a polysaccharide concentration in the range from ≥ 50 g to ≤ 800 g of polysaccharide per liter of concentrated polysaccharide mass, to obtain a mash having a polysaccharide concentration in the range from ≥ 5 g to ≤ 50 g of polysaccharide per liter of mash, wherein the blending comprises adding a first dilution liquid, and during the blending a particle size of particles of the concentrated polysaccharide mass is decreased and mixing with the first dilution liquid proceeds; homogenizing the mash having a polysaccharide concentration, in order to obtain a homogenized mash having a polysaccharide concentration in the range from ≥ 5 g to ≤ 50 g of polysaccharide per liter of homogenized mash, wherein, during the homogenization, homogenization of particles in the mash proceeds; diluting the homogenized mash having a polysaccharide concentration, in order to obtain a diluted homogenized mash having a polysaccharide concentration in the range from ≥ 0.05 g to ≤ 2.0 g of polysaccharide per liter of diluted homogenized mash, wherein the dilution comprises addition of a third dilution liquid, wherein the ratio of to is in the range from ≥ 1:30 to ≤ 1:20 000. blending the concentrated polysaccharide mass having a polysaccharide concentration in the range from ≥ 50 g to ≤ 800 g of polysaccharide per liter of concentrated polysaccharide mass, to obtain a mash having a polysaccharide concentration in the range from ≥ 5 g to ≤ 50 g of polysaccharide per liter of mash, wherein the blending comprises adding a first dilution liquid, and during the blending a particle size of particles of the concentrated polysaccharide mass is decreased and mixing with the first dilution liquid proceeds; homogenizing the mash having a polysaccharide concentration, in order to obtain a homogenized mash having a polysaccharide concentration in the range from ≥ 5 g to ≤ 50 g of polysaccharide per liter of homogenized mash, wherein, during the homogenization, homogenization of particles in the mash proceeds; diluting the homogenized mash having a polysaccharide concentration, in order to obtain a diluted homogenized mash having a polysaccharide concentration in the range from ≥ 0.05 g to ≤ 2.0 g of polysaccharide per liter of diluted homogenized mash, wherein the dilution comprises addition of a third dilution liquid,