mhurhangee/ep-ind-claims huggingface dataset:
A method of dynamically generating information using a server computer of a client-server network, said method comprising the steps of: instantiating a plurality of servlet objects in a web server computer in response to a first condition; receiving, at the web server computer, a request for dynamically generated information from a browser on a client computer of a client-server network; designating a thread to handle said request; mapping, with said thread, said request to a selected servlet object of the plurality of instantiated servlet objects; invoking said selected servlet object to dynamically generate information in response to said request; and passing said dynamically generated information to said client computer. instantiating a plurality of servlet objects in a web server computer in response to a first condition; receiving, at the web server computer, a request for dynamically generated information from a browser on a client computer of a client-server network; designating a thread to handle said request; mapping, with said thread, said request to a selected servlet object of the plurality of instantiated servlet objects; invoking said selected servlet object to dynamically generate information in response to said request; and passing said dynamically generated information to said client computer.
A cap which is configured to be applied to a securing structure part for securing structure elements using a fastener which passes through a through-hole formed in overlapping multiple structure elements of an aircraft and a collar which is fastened to a tip part of the fastener protruding from a surface of the structure elements, wherein the cap is configured to be mounted to surround the tip part of the fastener and the collar, wherein the cap is configured to be mounted in a non-engaged state with respect to the tip part of the fastener and the collar, wherein a filler engaging part which is formed on an inner peripheral surface of the cap has a female threaded helical shape which turns about the center axis of the cap, and is configured to engage, in a mounted state, with a filler which fills a space formed between the inner peripheral surface, the fastener, the collar, and the surface of the structure element and is cured, and wherein the filler engaging part includes a first helical engagement part which is formed in a region near a cap inner part of the inner peripheral surface in the center axis direction, characterized in that the filler engaging part further includes a second helical engagement part which is formed in a region near a cap opening-end part of the inner peripheral surface in the center axis direction, has a larger inner diameter than that of the first helical engagement part, and has a helical direction which is opposite to that of the first helical engagement part.
Production line for producing containers by blow-moulding or stretch-blow-moulding preforms, the production line comprising: - an auxiliary rotary element, - a reference rotary element equipped with a means for determining the instantaneous angular position of the reference rotary element, - the production line having drive continuity with a reduction ratio between the reference rotary element and the auxiliary rotary element, characterized in that it is equipped with a device for determining the instantaneous angular position of the auxiliary rotary element, the said device comprising: - an initializing sensor capable for each revolution of the auxiliary rotary element of determining an initial instant at which the angular position of the auxiliary rotary element is zero, and - a computer connected to the initializing sensor and at each instant receiving information regarding the instantaneous angular position of the said reference rotary element, the computer being able, on the basis of the said reduction ratio and of the initial instant, to deduce the instantaneous angular position of the auxiliary rotary element. - an auxiliary rotary element, - a reference rotary element equipped with a means for determining the instantaneous angular position of the reference rotary element, - the production line having drive continuity with a reduction ratio between the reference rotary element and the auxiliary rotary element, - an initializing sensor capable for each revolution of the auxiliary rotary element of determining an initial instant at which the angular position of the auxiliary rotary element is zero, and - a computer connected to the initializing sensor and at each instant receiving information regarding the instantaneous angular position of the said reference rotary element, the computer being able, on the basis of the said reduction ratio and of the initial instant, to deduce the instantaneous angular position of the auxiliary rotary element.
A synthetic nutritional composition comprising: i. ruminant milk fat wherein the milk fat is capable of activating the aryl hydrocarbon receptor (AhR) in an AhR activity assay as defined in Example 1; and ii. a ruminant immunoglobulin in an amount of between 115 μg and 50 mg per gram of dry composition; characterized in that at least 30% of the ruminant immunoglobulin is non-denatured; and wherein the amount of milk fat is between 10 and 60 g of fat per 100 gram of formula, wherein the amount of ruminant fat is between 5 and 90 wt% as determined to the total amount of fat, and wherein the ruminant milk fat is not exposed to a temperature above 80 °C. i. ruminant milk fat wherein the milk fat is capable of activating the aryl hydrocarbon receptor (AhR) in an AhR activity assay as defined in Example 1; and ii. a ruminant immunoglobulin in an amount of between 115 μg and 50 mg per gram of dry composition; characterized in that at least 30% of the ruminant immunoglobulin is non-denatured; and wherein the amount of milk fat is between 10 and 60 g of fat per 100 gram of formula, wherein the amount of ruminant fat is between 5 and 90 wt% as determined to the total amount of fat, and wherein the ruminant milk fat is not exposed to a temperature above 80 °C.
A security paper for manufacturing a value document, comprising: - a carrier substrate having a first main surface and an opposing second main surface and, in the first main surface, at least one weakening line (31,32,33,20-29) that extends substantially perpendicularly to the main surfaces into the carrier substrate without reaching the second main surface, and - at least one security feature (7,20,23) on the first main surface or in the volume of the carrier substrate, - the weakening line extending at least so far into the carrier substrate that, in the event of a split in the carrier substrate between the first main surface and the second main surface into a first substrate sub-layer and a second substrate sub-layer, the carrier substrate tears at the weakening line, and - the weakening line and the security feature being arranged toward each other in such a way that, as a result of the tearing of the carrier substrate at the weakening line, the security feature is separated into at least two feature portions (7,7a,7b,7c,7d) that are located on or in different substrate sub-layers (11,12), characterized in that, in the second main surface, at least one weakening line is provided that extends substantially perpendicularly to the main surfaces into the carrier substrate without reaching the first main surface. - a carrier substrate having a first main surface and an opposing second main surface and, in the first main surface, at least one weakening line (31,32,33,20-29) that extends substantially perpendicularly to the main surfaces into the carrier substrate without reaching the second main surface, and - at least one security feature (7,20,23) on the first main surface or in the volume of the carrier substrate, - the weakening line extending at least so far into the carrier substrate that, in the event of a split in the carrier substrate between the first main surface and the second main surface into a first substrate sub-layer and a second substrate sub-layer, the carrier substrate tears at the weakening line, and - the weakening line and the security feature being arranged toward each other in such a way that, as a result of the tearing of the carrier substrate at the weakening line, the security feature is separated into at least two feature portions (7,7a,7b,7c,7d) that are located on or in different substrate sub-layers (11,12), characterized in that, in the second main surface, at least one weakening line is provided that extends substantially perpendicularly to the main surfaces into the carrier substrate without reaching the first main surface.
An article comprising layers of dough and a roll-in composition, the roll-in composition containing at least two weight-percent based on total roll-in composition weight of an oleogel comprising ethyl cellulose and a triacylglycerol; wherein said oleogel is a three-dimensional, thermo-reversible gel network.
A system for tracking assets, the system comprising: a visible light source that includes a wireless signal generator configured to produce first wireless signals; a tag that includes a detector configured to detect the presence of the first wireless signals produced by the visible light source, wherein the tag includes a transmitter that is configured to send second wireless signals, and a tag monitor that includes a receiver that is configured to receive the second wireless signals, wherein the tag monitor is configured to determine a location of the tag based on the second wireless signals received from the tag, characterised in that the tag includes a motion sensor configured to determine when the tag moves and the velocity of the tag, the detector is configured to begin detecting the first wireless signals when activated by the motion sensor, and the detector is configured to detect the first wireless signals from the visible light source at a rate determined by the velocity of tag. a visible light source that includes a wireless signal generator configured to produce first wireless signals; a tag that includes a detector configured to detect the presence of the first wireless signals produced by the visible light source, wherein the tag includes a transmitter that is configured to send second wireless signals, and a tag monitor that includes a receiver that is configured to receive the second wireless signals, wherein the tag monitor is configured to determine a location of the tag based on the second wireless signals received from the tag, characterised in that the tag includes a motion sensor configured to determine when the tag moves and the velocity of the tag, the detector is configured to begin detecting the first wireless signals when activated by the motion sensor, and the detector is configured to detect the first wireless signals from the visible light source at a rate determined by the velocity of tag.
A method of recording a response to Transcranial Magnetic Stimulation for mapping brain functions, comprising the steps of: - inducing a non-therapeutic bi-phasic double pulse pair from a TMS a single stimulation coil of a coil device to stimulate a subject, wherein - the second bi-phasic pulse of the non-therapeutic bi-phasic double pulse pair has a lower amplitude compared to the first bi-phasic pulse in the bi-phasic double pulse pair, and - measuring the subject's response to the non-therapeutic bi-phasic double pulse pair at a point in time when the TMS coil device is not actively producing magnetic stimulation, and wherein no magnetic field is generated by the TMS coil device between the conclusion of the second pulse of the bi-phasic double pulse pair and prior to the measurement of at least a first portion of the subject's response to said bi-phasic double pulse pair. - inducing a non-therapeutic bi-phasic double pulse pair from a TMS a single stimulation coil of a coil device to stimulate a subject, wherein - the second bi-phasic pulse of the non-therapeutic bi-phasic double pulse pair has a lower amplitude compared to the first bi-phasic pulse in the bi-phasic double pulse pair, and - measuring the subject's response to the non-therapeutic bi-phasic double pulse pair at a point in time when the TMS coil device is not actively producing magnetic stimulation, and wherein no magnetic field is generated by the TMS coil device between the conclusion of the second pulse of the bi-phasic double pulse pair and prior to the measurement of at least a first portion of the subject's response to said bi-phasic double pulse pair.
Vehicle with a steering wheel arrangement, comprising a control unit and a steering wheel arranged on a steering column, connected to the control unit and positionable from a steering position into a safety position, the steering wheel arrangement comprising an adjustment unit connected to the control unit at least for positioning the steering wheel arranged on the steering column from the steering position into the safety position, characterized in that the steering wheel arrangement is designed to vibrate when positioned from the steering position into the safety position.
Rollo assembly, comprising a rollo screen with opposite longitudinal ends and opposite transverse ends, a winding shaft for, in a longitudinal direction, winding and unwinding said rollo screen at a first one of said longitudinal ends, a pull beam connected to the other one of said longitudinal ends and two longitudinal guides for cooperation with the transverse ends of the rollo screen and for guiding opposite ends of the pull beam, and at least one support member (7,7') for the rollo screen extending underneath the rollo screen between two opposite longitudinal support member guides, which support member is movable in said longitudinal direction along the support member guides in such a manner that it moves along with the rollo screen when latter moves between its fully wound position and a partially wound off position, and is kept stationary in an end position when the rollo screen moves between its partially wound off position and its fully wound off position, characterized in that the support member (7,7') is connected to the pull beam by a spring means assembly.
An apparatus comprising: an actuation system, the actuation system comprising: a first chain cartridge including a drive chain engageably coupled to a drive mechanism actuated by a first actuator coupled to a power supply, the drive chain including a first plurality of inter-connected links conveying at least one first cable within a first interior space of each of the first plurality of inter-connected links; and a telescopic structure including a plurality of segments configured to extend and retract telescopically with respect to one another and conveying the drive chain therein, a first end of the drive chain coupled to a distal segment of the plurality of segments, the distal segment located at a first end of the telescopic structure, wherein the drive mechanism is arranged to impart a linear translation force on the first plurality of interconnected links to cause the distal segment to extend from or retract into the first end of the telescopic structure; characterised in that the apparatus further comprises a mobile robot, wherein the actuation system is coupled to a base of the mobile robot and further comprises a mast attached to the base of the mobile robot and a lift carriage coupled to the mast, wherein the lift carriage and the telescopic structure are arranged to translate vertically on the mast. a first chain cartridge including a drive chain engageably coupled to a drive mechanism actuated by a first actuator coupled to a power supply, the drive chain including a first plurality of inter-connected links conveying at least one first cable within a first interior space of each of the first plurality of inter-connected links; and a telescopic structure including a plurality of segments configured to extend and retract telescopically with respect to one another and conveying the drive chain therein, a first end of the drive chain coupled to a distal segment of the plurality of segments, the distal segment located at a first end of the telescopic structure, wherein the drive mechanism is arranged to impart a linear translation force on the first plurality of interconnected links to cause the distal segment to extend from or retract into the first end of the telescopic structure; characterised in that the apparatus further comprises a mobile robot, wherein the actuation system is coupled to a base of the mobile robot and further comprises a mast attached to the base of the mobile robot and a lift carriage coupled to the mast, wherein the lift carriage and the telescopic structure are arranged to translate vertically on the mast.
A vehicle braking unit, in particular a brake caliper unit for a disc brake, of the type comprising a support designed to be arranged in use close to an element to be braked, braking elements which are carried in a movable way by the support and which are suited for cooperating in use by friction with the element to be braked, and first and second guide surfaces that are integral with respect to the braking elements and the support and that cooperate together to guide and support the braking elements when they are moved towards the element to be braked by the activation of actuation elements; characterized in that the first and/or the second guide surfaces (8,9) are at least partially covered by an anti-noise coating consisting of: i)- a layer of a polymeric resin; ii)- glass particles of rounded shape, preferably spheres, dispersed in the polymeric resin layer. i)- a layer of a polymeric resin; ii)- glass particles of rounded shape, preferably spheres, dispersed in the polymeric resin layer.
A polymorphic form of [5-fluoro-3-({2-[(4-fluorobenzene)sulfonyl]pyridin-3-yl}methyl)-2-methylindol-1-yl]-acetic acid (Compound 1), characterised in that it gives an FT-Raman spectrum which is characterised by peaks at 3063 ± 2 cm -1, 1578 ± 2 cm -1, 1423 ± 2 cm -1, 1209 ± 2 cm -1, 1187 ± 2 cm -1, 1166 ± 2 cm -1, 1150 ± 2 cm -1, 930 ± 2 cm -1, 883 ± 2 cm -1, 770 ± 2 cm -1, 356 ± 2 cm -1, 304 ± 2 cm -1, 167 ± 2 cm -1, 119 ± 2 cm -1; or characterised by lattice parameters as follows: Sample Product P24 file J893 a 10.8 ± 0.1 Å b 13.9 ± 0.1 Å c 7.8 ± 0.1 Å α 101 ± 1° β 110 ± 1° γ 79 ± 1° cell volume 1.068 Å 3 RP 4.9% Weighted RP 7.1%
An unpolarized multiple orientation plug connector comprising: a body; a connector tab coupled to and extending away from the body, the connector tab including first and second surfaces (44a, 44b); a first plurality of external contacts carried by the tab at the first surface and a second plurality of external contacts carried by the tab at the second surface, wherein the first plurality of contacts includes a first pair of data contacts (106,) usable to enable communication using a first communication protocol and an ID contact (106) configured to carry information that identifies the communication protocol associated with the first pair of data contacts (106,); wherein the unpolarized multiple orientation plug connector is characterized by circuitry configured to participate in a handshaking algorithm that communicates the communication protocol used by the first pair of data contacts (106,) over the ID contact (106). a body; a connector tab coupled to and extending away from the body, the connector tab including first and second surfaces (44a, 44b); a first plurality of external contacts carried by the tab at the first surface and a second plurality of external contacts carried by the tab at the second surface, wherein the first plurality of contacts includes a first pair of data contacts (106,) usable to enable communication using a first communication protocol and an ID contact (106) configured to carry information that identifies the communication protocol associated with the first pair of data contacts (106,); wherein the unpolarized multiple orientation plug connector is characterized by circuitry configured to participate in a handshaking algorithm that communicates the communication protocol used by the first pair of data contacts (106,) over the ID contact (106).
A separator comprising: a porous substrate; and a first bonding layer pattern provided on at least one surface of the porous substrate, wherein each pattern constituting the first bonding layer pattern consists of a second bonding layer pattern in a form of an aggregate having an aperture ratio of 5% or more and 40% or less, and the first bonding layer pattern has a total aperture ratio of 20% or more and less than 80%. a porous substrate; and a first bonding layer pattern provided on at least one surface of the porous substrate, wherein each pattern constituting the first bonding layer pattern consists of a second bonding layer pattern in a form of an aggregate having an aperture ratio of 5% or more and 40% or less, and the first bonding layer pattern has a total aperture ratio of 20% or more and less than 80%.
A method of making a nickel complex with phosphorous-containing ligands, comprising (i). providing a basic nickel carbonate; and (ii) reducing at least a portion of the basic nickel carbonate of step (i) with a reducing agent to form a nickel-containing solid comprising nickel metal; (iii) reacting the nickel-containing solid with a bidentate phosphorus-containing ligand to form the nickel complex; wherein step (i) comprises: (a). contacting a precipitant solution with a nickel solution in a precipitation reactor to form a reaction mixture; (b). precipitating a basic nickel carbonate from said reaction mixture; wherein said nickel solution comprises nickel ions and water and said precipitant solution is selected from the group consisting of: (i) bicarbonate ions and water, (ii) carbonate ions and water, and (iii) mixtures thereof; and further wherein the mole ratio of bicarbonate ions to nickel ions in the reaction mixture is between 0:1 to 2:1 and said mole ratio of carbonate ions to nickel ions in the reaction mixture is between 0:1 to 1.6:1. (i). providing a basic nickel carbonate; and (ii) reducing at least a portion of the basic nickel carbonate of step (i) with a reducing agent to form a nickel-containing solid comprising nickel metal; (iii) reacting the nickel-containing solid with a bidentate phosphorus-containing ligand to form the nickel complex; (a). contacting a precipitant solution with a nickel solution in a precipitation reactor to form a reaction mixture; (b). precipitating a basic nickel carbonate from said reaction mixture;