mhurhangee/ep-ind-claims huggingface dataset:
A rubber composition, comprising: 10 parts by mass or more and 90 parts by mass or less of a rubber-like polymer having an iodine value as measured in accordance with JIS K0070:1992 of 10 to 200, a content of an ethylene structure of 3% by mass or more, a content of an aromatic vinyl monomer block of less than 10% by mass, and a content of a conjugated diene monomer unit of 2% by mass or more; 10 parts by mass or more and 90 parts by mass or less of a natural rubber, wherein a total amount of a rubber component including the rubber-like polymer and the natural rubber is 100 parts by mass; and 60 parts by mass or more and 120 parts by mass or less of a silica-based inorganic filler. 10 parts by mass or more and 90 parts by mass or less of a rubber-like polymer having an iodine value as measured in accordance with JIS K0070:1992 of 10 to 200, a content of an ethylene structure of 3% by mass or more, a content of an aromatic vinyl monomer block of less than 10% by mass, and a content of a conjugated diene monomer unit of 2% by mass or more; 10 parts by mass or more and 90 parts by mass or less of a natural rubber, wherein a total amount of a rubber component including the rubber-like polymer and the natural rubber is 100 parts by mass; and 60 parts by mass or more and 120 parts by mass or less of a silica-based inorganic filler.
A drive mechanism for a medicament delivery device, comprising: an activation rod provided with external activation rod threads having a first thread helix angle (α1), an activation knob rotationally locked with the activation rod, wherein the activation knob is configured to be moved between a first axial position relative to the activation rod in which the activation knob is prevented from rotation and a second axial position in which the activation knob is allowed to rotate in a first direction, an axially slidable drum which is rotationally locked, a dose drum rotationally locked relative to the activation rod, wherein the dose drum is configured to rotate relative to the slidable drum, an indicator drum provided with external indicator drum threads having a second thread helix angle (α2), the drive mechanism being characterized in that it is configured such that rotation of the activation knob in the first direction causes concurrent first rotation of the activation rod and the dose drum in accordance with the first thread helix angle (α1) thereby axially displacing the activation knob, the activation rod, the dose drum and the slidable drum in a distal direction, wherein the slidable drum is configured to bring the indicator drum with it causing second rotation of the indicator drum in accordance with the second thread helix angle (α2). an activation rod provided with external activation rod threads having a first thread helix angle (α1), an activation knob rotationally locked with the activation rod, wherein the activation knob is configured to be moved between a first axial position relative to the activation rod in which the activation knob is prevented from rotation and a second axial position in which the activation knob is allowed to rotate in a first direction, an axially slidable drum which is rotationally locked, a dose drum rotationally locked relative to the activation rod, wherein the dose drum is configured to rotate relative to the slidable drum, an indicator drum provided with external indicator drum threads having a second thread helix angle (α2), the drive mechanism being characterized in that it is configured such that rotation of the activation knob in the first direction causes concurrent first rotation of the activation rod and the dose drum in accordance with the first thread helix angle (α1) thereby axially displacing the activation knob, the activation rod, the dose drum and the slidable drum in a distal direction, wherein the slidable drum is configured to bring the indicator drum with it causing second rotation of the indicator drum in accordance with the second thread helix angle (α2).
A motor controller for controlling a motor system, the motor system including: a direct current power supply; a power converter configured to convert direct current power supplied from the direct current power supply into alternating current power; a smoothing capacitor connected electrically in parallel with the power converter; a three-phase alternating current motor that is driven by using the alternating current power output from the power converter; and a current sensor (14v, 14w) that detects a phase current supplied to the three-phase alternating current motor, the motor controller comprising: an electronic control unit configured to: (a) specify a target phase that is a phase of a second phase voltage command signal having a largest difference from a first phase voltage command signal having a signal level that is neither a maximum nor a minimum signal level, based on three phase voltage command signals generated from a detection value of the current sensor (14v, 14w), the three phase voltage command signals regulating operation of the three-phase alternating current motor; and (b) correct the detection value of the current sensor (14v, 14w) that detects the phase current of the target phase, such that a terminal voltage of the smoothing capacitor matches a desired voltage value. a direct current power supply; a power converter configured to convert direct current power supplied from the direct current power supply into alternating current power; a smoothing capacitor connected electrically in parallel with the power converter; a three-phase alternating current motor that is driven by using the alternating current power output from the power converter; and a current sensor (14v, 14w) that detects a phase current supplied to the three-phase alternating current motor, an electronic control unit configured to: (a) specify a target phase that is a phase of a second phase voltage command signal having a largest difference from a first phase voltage command signal having a signal level that is neither a maximum nor a minimum signal level, based on three phase voltage command signals generated from a detection value of the current sensor (14v, 14w), the three phase voltage command signals regulating operation of the three-phase alternating current motor; and (b) correct the detection value of the current sensor (14v, 14w) that detects the phase current of the target phase, such that a terminal voltage of the smoothing capacitor matches a desired voltage value. (a) specify a target phase that is a phase of a second phase voltage command signal having a largest difference from a first phase voltage command signal having a signal level that is neither a maximum nor a minimum signal level, based on three phase voltage command signals generated from a detection value of the current sensor (14v, 14w), the three phase voltage command signals regulating operation of the three-phase alternating current motor; and (b) correct the detection value of the current sensor (14v, 14w) that detects the phase current of the target phase, such that a terminal voltage of the smoothing capacitor matches a desired voltage value.
A power management method is provided for; projecting the likelihood that power outage will occur at a mobile radio base site over some future interval by projecting the power which will be available to a mobile radio base station over some future interval, and projecting the power which will be consumed by the loads at the site of the mobile radio base station over the same future interval, the likelihood of outage being determined by whether or not the projected generated power is greater than the projected consumed power, and in the event that power outage is expected, invoking actions to prolong the period for which a mobile radio base station provides service.
A method of creating a hydrodynamic barrier of an operating fluid on a surface, the method comprising: outputting, through a plurality of outlets disposed on the surface (205, 305, 405, 505), the operating fluid; and simultaneously with the outputting, withdrawing, through a plurality of inlets disposed on the surface (205, 305, 405, 505), the operating fluid, thereby creating a hydrodynamic barrier on the surface with movement of the operating fluid, wherein the plurality of outlets comprise a plurality of substantially trapezoidal outlet trenches disposed on the surface, and wherein the plurality of inlets comprise a plurality of substantially trapezoidal inlet trenches disposed on the surface, the inlet trenches and the outlet trenches being disposed in an alternating pattern. outputting, through a plurality of outlets disposed on the surface (205, 305, 405, 505), the operating fluid; and simultaneously with the outputting, withdrawing, through a plurality of inlets disposed on the surface (205, 305, 405, 505), the operating fluid, thereby creating a hydrodynamic barrier on the surface with movement of the operating fluid, wherein the plurality of outlets comprise a plurality of substantially trapezoidal outlet trenches disposed on the surface, and wherein the plurality of inlets comprise a plurality of substantially trapezoidal inlet trenches disposed on the surface, the inlet trenches and the outlet trenches being disposed in an alternating pattern.
A communication system comprising radio base stations (211, 212, 213) and a management control apparatus, wherein the management control apparatus includes: a first communication means for collecting backhaul resource load information indicating traffic loads of respective links in a backhaul between the radio base stations (211, 212, 213) and a core network from relay apparatuses (221, 222) that relay communications between the radio base stations (211, 212, 213) and the core network; an operation means for extracting, for each radio base station (211, 212, 213), a bottleneck link having the highest load among respective links in a backhaul between a radio base station (211, 212, 213) and the core network on the basis of the backhaul resource load information collected by the first communication means; and a second communication means for transmitting backhaul resource load information of the bottleneck link to the radio base stations (211, 212, 213); and each radio base station (211, 212, 213) includes: an execution means for executing distribution of traffic loads among the radio base stations (211, 212, 213) on the basis of backhaul resource load information of a bottleneck link in a backhaul between an own station and the core network received from the management control apparatus. a first communication means for collecting backhaul resource load information indicating traffic loads of respective links in a backhaul between the radio base stations (211, 212, 213) and a core network from relay apparatuses (221, 222) that relay communications between the radio base stations (211, 212, 213) and the core network; an operation means for extracting, for each radio base station (211, 212, 213), a bottleneck link having the highest load among respective links in a backhaul between a radio base station (211, 212, 213) and the core network on the basis of the backhaul resource load information collected by the first communication means; and a second communication means for transmitting backhaul resource load information of the bottleneck link to the radio base stations (211, 212, 213); and each radio base station (211, 212, 213) includes: an execution means for executing distribution of traffic loads among the radio base stations (211, 212, 213) on the basis of backhaul resource load information of a bottleneck link in a backhaul between an own station and the core network received from the management control apparatus.
A method of operating a lighting device (214; 215) positioned in an environment, the method comprising: acquiring lighting data corresponding to an environment using one or more sensing devices (118; 122; 138), wherein the one or more sensing devices are communicatively coupled to a processor; determining from the lighting data, by the processor, a lighting condition of the environment; acquiring presence data based on one or more signals generated by the one or more sensing devices, wherein the one or more sensing devices are configured to sense one or more individuals in the environment and wherein at least one of the one or more sensing devices is positioned on or in a vision assist device configured to be worn by a registered individual in the environment; and generating, by the processor, an actuation signal receivable by a lighting device present in the environment to actuate the lighting device based on the lighting condition of the environment and both the presence of the registered individual wearing the vision assist device and the presence data. acquiring lighting data corresponding to an environment using one or more sensing devices (118; 122; 138), wherein the one or more sensing devices are communicatively coupled to a processor; determining from the lighting data, by the processor, a lighting condition of the environment; acquiring presence data based on one or more signals generated by the one or more sensing devices, wherein the one or more sensing devices are configured to sense one or more individuals in the environment and wherein at least one of the one or more sensing devices is positioned on or in a vision assist device configured to be worn by a registered individual in the environment; and generating, by the processor, an actuation signal receivable by a lighting device present in the environment to actuate the lighting device based on the lighting condition of the environment and both the presence of the registered individual wearing the vision assist device and the presence data.
An automated brick laying system, said automated brick laying system including mortar application means (42, 500) for allowing mortar to be applied to a brick in use, brick gripping means (44, 502) for allowing at least one brick to be gripped in use, and platform means comprising several support arms (60, 61, 64, 82, 83, 84, 86, 530, 532, 550, 562) which provide pre-defined pathways of movement along which the mortar application means (42, 500) and/or brick gripping means (44, 502) are movable, wherein the mortar application means (42, 500) and the brick gripping means (44, 502) are movably mounted on said support arms (60, 61, 64, 82, 83, 84, 86, 530, 532, 550, 562) to undergo linear and sliding movement therealong and also to be independently movable relative to the platform means in use, and wherein at least one of said support arms (60, 61, 64, 82, 83, 84, 86, 530, 532, 550, 562) is provided in each of an X-axis direction, a Y-axis direction and a Z-axis direction to provide the separate and pre-defined pathways of movement along which the mortar application means (42, 500) and/or brick gripping means (44, 502) can undergo the sliding and linear movement, drive means are provided on or associated with the mortar application means and/or brick gripping means to allow movement of the same along the pre-defined pathways of movement; one or more of said support arms (60, 61, 64, 82, 83, 84, 86, 530, 532, 550, 562) is movably mounted on one or more further of said support arms (60, 61, 64, 82, 83, 84, 86, 530, 532, 550, 562), wherein further drive means are provided on or associated with the brick gripping means (44, 502), such that the brick gripping means (44, 502) can undergo movement about pre-defined pitch, roll and yaw axes corresponding to rotational movement about the X axis direction, Z axis direction, and Y axis direction respectively; wherein the drive means and further drive means are at least six separate drive means provided for use with the brick gripping means (44, 502), three drive means to allow the linear movement along the X, Y and Z axes and three further drive means to allow the rotational movement in the pitch, roll and yaw axes.
Method for producing thin substrates, the thin substrate being separated from a substrate block by means of focused laser pulses, characterized in that the substrate block is repeatedly at least partially perforated along at least one desired fracture surface by the laser pulses, and the substrate is then separated from the substrate block along the fracture line, the laser pulses are focused into the interior of the substrate at different depths, the cutting direction extending from bottom to top, and the substrate having a transparency of > 70% in a range of +/- 100 nm around the wavelength of the laser light used, and the real inline transmission of the substrate for the wavelength of the laser that is used being more than 5%.
A rail vehicle bogie, comprising: a) two pairs of wheels, the wheels of each pair being connected to one another by an axle structure, b) an articulated chassis, each axle structure being connected to the chassis via primary suspension means, and c) secondary suspension means supported by the chassis, the secondary suspension means comprising at least one leveling valve, and - for at least one of the wheels, a wear detection part of the wheel and a mechanical connection part between the leveling valve and the wear detection part of the wheel, the mechanical connection part being able to transmit, to the leveling valve, a movement of the wear detection part to control the increase or the decrease of the pressure prevailing in the secondary suspension means, characterized in that each wear detection part is articulated about a first pivot link with the corresponding wheel and the mechanical connection part is articulated about a second pivot link with the leveling valve, and on the other hand about a movable third pivot link and a fourth rigid pivot link with the wear detection part of the wheel. a) two pairs of wheels, the wheels of each pair being connected to one another by an axle structure, b) an articulated chassis, each axle structure being connected to the chassis via primary suspension means, and c) secondary suspension means supported by the chassis, the secondary suspension means comprising at least one leveling valve, - for at least one of the wheels, a wear detection part of the wheel and a mechanical connection part between the leveling valve and the wear detection part of the wheel, the mechanical connection part being able to transmit, to the leveling valve, a movement of the wear detection part to control the increase or the decrease of the pressure prevailing in the secondary suspension means,
Cable marker label for automated use for the labelling of electric cables, comprising a tube (2, 15) and a plate (11,26) where said tube has a cavity (3, 16), which is configured for the insertion and retention of an electric cable (9, 22, 23, 24) to be labelled, where said tube (2, 15) is overlaid by said plate (11, 26); where said tube (2, 15) is configured with a tubular section and is defined by an upper wall (4, 17), a lower wall (5, 18) and a pair of side walls (6, 19); the side walls (6, 19) join with their ends opposite the corresponding and respective terminal ends of the upper wall (4, 17) with the terminal ends of the lower wall (5, 18); where said pair of side walls (6, 19) are opposite and symmetrical and each have profiling in the central area of their extension with a deformed section (7, 20) recessed towards the hollow central part of the cavity (3, 16) of the tube (2,15), where at least said deformed recessed section (7, 20) has a residual elastic memory after having been forced apart towards the outside of the tube (2, 15) by retraction devices for the insertion of an electric cable (9, 22, 23, 24) inside the tube (2, 15); furthermore, the surface of said deformed recessed section (7, 20) faces the inside of the cavity (3, 16) of the tube (2, 15), which rests on the electric cable (9, 22, 23, 24) inserted into said cable tube (2, 15) so as to retain it; said upper wall (4, 17) of the tube (2, 15), is joined, by means of a connection element, towards the outside of the tube (2, 15), in an overlaid way, to said plate (11, 26), whose outer surface (13, 28), opposite to the one (12, 27) connecting with the tube (2, 15), is a writable surface, which is a continuous and flat surface, in an position perpendicular to the main axis of the tube (2, 15) and passing through the upper wall (4, 17) and the lower wall (5, 18), and where said connection element (29, 30), between the tube and said plate, is present only in the central part of said tube and said plate and smaller by half than the entire width of the plate.
A deliming process comprising a deliming step: deliming the limed pelt with a deliming agent which is free of ammonium and boric acid, the deliming agent comprising protein hydrolysate, the protein hydrolysate being produced according to a method comprising the following steps: hydrolyzing hair, shavings, trimmings and/or feathers to generate amino acid and/or amino acid salt, then obtaining the protein hydrolysate.
Car carpet with perfuming action, wherein it comprises a woven support and a containing body that is adapted to contain a removable perfuming element, said containing body being received in a through hole that has a shape corresponding to the containing body and is formed in the woven support; a seat being formed in said containing body and being adapted to receive the removable perfuming element; characterized by the fact that the containing body comprises adjusting means (18, 32, 40) that adjust the perfuming flow coming from the perfuming element.
A composition comprising a nitric oxide donor of formula or stereoisomers thereof: RC O-(CH 2) 4 -ONO 2 wherein R is a linear or branched (C 3 -C 5)-alkyl chain, and an ophthalmic drug selected from one of the following groups: alpha adrenergic agonists, beta blockers, carbonic anhydrase inhibitors, prostaglandin analogs, cholinergic agonists, non-steroidal anti-inflammatory and steroidal anti-inflammatory drugs. a nitric oxide donor of formula or stereoisomers thereof: RC O-(CH 2) 4 -ONO 2 wherein R is a linear or branched (C 3 -C 5)-alkyl chain, and an ophthalmic drug selected from one of the following groups: alpha adrenergic agonists, beta blockers, carbonic anhydrase inhibitors, prostaglandin analogs, cholinergic agonists, non-steroidal anti-inflammatory and steroidal anti-inflammatory drugs.
A method of operation of a navigation system comprising: generating a maneuver instruction for a driving maneuver, the maneuver instruction including an explanation of how to turn, merge, park or operate a driver's vehicle; monitoring a maneuver attempt for a compliance to the maneuver instruction; modifying the maneuver instruction based on the maneuver attempt; characterized by assigning a driver skill grade for the maneuver attempt based on the compliance to the maneuver instruction; generating a training feedback to improve the driver skill grade of the maneuver attempt for displaying on a device, wherein the maneuver instruction includes guidance for instructing a driver to complete the driving maneuver with where to position the vehicle and how fast the vehicle should be traveling during the driving maneuver. generating a maneuver instruction for a driving maneuver, the maneuver instruction including an explanation of how to turn, merge, park or operate a driver's vehicle; monitoring a maneuver attempt for a compliance to the maneuver instruction; modifying the maneuver instruction based on the maneuver attempt; characterized by assigning a driver skill grade for the maneuver attempt based on the compliance to the maneuver instruction; generating a training feedback to improve the driver skill grade of the maneuver attempt for displaying on a device, wherein the maneuver instruction includes guidance for instructing a driver to complete the driving maneuver with where to position the vehicle and how fast the vehicle should be traveling during the driving maneuver.