mhurhangee/ep-ind-claims huggingface dataset:
A method for inspecting a sealing performance of a mouth portion of a container filled with a liquid, and a cap including a top face portion, a tubular portion that extends downward from a circumferential edge of the top face portion and has an inner circumferential surface provided with a thread portion for screwing on an outer circumferential surface of the mouth portion, a resin outer seal that is formed on an inner surface of the top face portion and comes into contact with the outer circumferential surface of the mouth portion, and a resin inner seal that is formed on the inner surface of the top face portion and comes into contact with the inner circumferential surface of the mouth portion, the inspection method comprising: a first drilling step of forming, in the top face portion included in the cap screwed on the mouth portion of the container, a first hole that is in communication with a first space defined by a circumferential edge portion of the mouth portion and the inner seal and the outer seal that are included in the cap; a first injecting step of injecting a dye into the first space via the first hole; a first pressurizing step of applying an internal pressure to the cap of the container into which the dye has been injected in the first injecting step; a first checking step of checking whether or not the dye leaks into the container after the first pressurizing step; and an evaluating step of evaluating the sealing performance based on a checking result of the first checking step. a first drilling step of forming, in the top face portion included in the cap screwed on the mouth portion of the container, a first hole that is in communication with a first space defined by a circumferential edge portion of the mouth portion and the inner seal and the outer seal that are included in the cap; a first injecting step of injecting a dye into the first space via the first hole; a first pressurizing step of applying an internal pressure to the cap of the container into which the dye has been injected in the first injecting step; a first checking step of checking whether or not the dye leaks into the container after the first pressurizing step; and an evaluating step of evaluating the sealing performance based on a checking result of the first checking step.
A method comprising: compressing a void cell in a first matrix of void cells coupled together with an intermedial binding layer in a direction substantially normal to the intermedial binding layer without substantially compressing at least one fluidly connected neighboring void cell and at least one opposing void cell in a second opposing matrix of void cells, wherein the void cell is compressed within an independent compression range of the void cell; and compressing the void cell outside the independent compression range of the void cell, wherein the intermedial binding layer is deflected and at least one opposing void cell in the second matrix of void cells is compressed, wherein the void cell has an opening in continuous fluid communication with an environmental external to the cellular cushioning system while the void cell is compressed and decompressed. compressing a void cell in a first matrix of void cells coupled together with an intermedial binding layer in a direction substantially normal to the intermedial binding layer without substantially compressing at least one fluidly connected neighboring void cell and at least one opposing void cell in a second opposing matrix of void cells, wherein the void cell is compressed within an independent compression range of the void cell; and compressing the void cell outside the independent compression range of the void cell, wherein the intermedial binding layer is deflected and at least one opposing void cell in the second matrix of void cells is compressed, wherein the void cell has an opening in continuous fluid communication with an environmental external to the cellular cushioning system while the void cell is compressed and decompressed.
A method of handling interference caused by inter-modulation in a network node site comprising a set of network nodes for wireless communication capable of communication with a set of stations for wireless communication, wherein the stations are wireless transceiver devices and communication from the network node to any of the stations is considered to be downlink communication and communication from any of the stations is considered to be uplink communication, the method comprising detecting an interference level on the uplink carrier frequency band for a subset of stations of the set of stations; determining whether the interference level indicates probable inter-modulation interference, wherein, if the interference level indicates probable inter-modulation interference, modifying a power control scheme for the subset of stations; and sending a parameter set based on the modified power control scheme to the subset of stations, characterised by the modifying of the power control scheme is adapted to force the stations of the subset of stations to use a higher transmit power to compensate for the higher interference level.
A wire feeder, comprising: a base assembly, including a gear; a mounting plate having a shaft hole and being comprised of an electrical insulating material; an intermediate mounting plate, wherein the intermediate mounting plate is mounted to the base assembly and the mounting plate is mounted to the base assembly by being mounted on the intermediate plate, a motor mounted to the mounting plate, and having a motor shaft extending through the shaft hole; and wherein the base assembly can be at a first potential and the motor can be at a second potential without current flowing therebetween, characterized by an insulating cap, wherein the insulating cap is connected to the gear, wherein the insulating cap and the intermediate mounting plate are comprised of an electrical insulating material; and wherein the base assembly includes a gear hub with a hollowed interior that receives the motor shaft which extends into the insulating cap, and wherein the hollowed interior and the motor shaft have matching keys, wherein the gear hub is connected to rotate with the motor shaft and the insulating cap is connected to rotate with the gear hub, and wherein the insulating cap has a hollow interior that is shaped to match the outer contour of the gear hub, such that when the insulating cap rotates the gear rotates. a base assembly, including a gear; a mounting plate having a shaft hole and being comprised of an electrical insulating material; an intermediate mounting plate, wherein the intermediate mounting plate is mounted to the base assembly and the mounting plate is mounted to the base assembly by being mounted on the intermediate plate, a motor mounted to the mounting plate, and having a motor shaft extending through the shaft hole; and wherein the base assembly can be at a first potential and the motor can be at a second potential without current flowing therebetween, characterized by an insulating cap, wherein the insulating cap is connected to the gear, wherein the insulating cap and the intermediate mounting plate are comprised of an electrical insulating material; and wherein the base assembly includes a gear hub with a hollowed interior that receives the motor shaft which extends into the insulating cap, and wherein the hollowed interior and the motor shaft have matching keys, wherein the gear hub is connected to rotate with the motor shaft and the insulating cap is connected to rotate with the gear hub, and wherein the insulating cap has a hollow interior that is shaped to match the outer contour of the gear hub, such that when the insulating cap rotates the gear rotates.
Adapter (26, 126) for a windscreen wiper, in particular a motor vehicle windscreen wiper, said adapter being intended to connect a wiper blade to an end piece (28', 128') of a first driving arm (14', 114'), of the laterally locking type that is secured to a cylindrical rod (33, 133) that defines an articulation axis of the adapter with respect to said blade, said adapter comprising a longitudinal body comprising two substantially parallel first longitudinal lateral walls (42a, 42b, 142a, 142b) that are connected together by a transverse wall (44, 144), said body being connected at one longitudinal end to a cowling (46,146) that has a transverse dimension (L1, L2) larger than that of said body, said body having, at a longitudinal distance from said cowling, a transverse orifice (45, 145) configured to receive said cylindrical rod, and said cowling comprising on a first side of said adapter a first lateral face (46b, 146b) configured to cooperate with said end piece by bearing.
Filter structural body for a filter module for separating impurities from a raw gas stream containing impurities, comprising a support structure subdivided into segments and a filter layer arranged, in particular fixed, thereon, wherein, for installation in an outer frame, the segments, with the filter layer arranged thereon, can be arranged with their segment flat sides (20, 22) consecutively in a stacking direction, wherein at least two of the segments are formed to be contiguous via a connecting region (34, 35) or are subsequently connected to one another, characterised in that the filter layer is applied at least to the segment flat sides (20, 22).
Dental use of a chitosan modified by derivatization of residues -NH 2 of D-Glucosamine units for increasing the adhesion strength of the restoration resin to dentin, wherein said modified chitosan is represented by the general formula I wherein: - the chitosan has a degree of total substitution with CO-C(CH 2)R 1 acrylic and acetyl residues of the -NH 2 residues of D-Glucosamine units comprised from 10% to 50% with a ratio between acrylic and acetyl residues comprised from 0.1 to 9; and - R 1 is selected from H, a halogen, a linear or branched C 1 -C 3 alkyl chain, optionally substituted with an OH or a halogen, and NHCOR 2 with R 2 equal to a linear or branched C 1 -C 3 alkyl chain. - the chitosan has a degree of total substitution with CO-C(CH 2)R 1 acrylic and acetyl residues of the -NH 2 residues of D-Glucosamine units comprised from 10% to 50% with a ratio between acrylic and acetyl residues comprised from 0.1 to 9; and - R 1 is selected from H, a halogen, a linear or branched C 1 -C 3 alkyl chain, optionally substituted with an OH or a halogen, and NHCOR 2 with R 2 equal to a linear or branched C 1 -C 3 alkyl chain.
A method of handling component carrier activation and deactivation for a mobile device capable of receiving and transmitting on a plurality of component carriers in a wireless communication system, characterized by the method comprising: starting a deactivation timer for a component carrier of the plurality of component carriers when the component carrier is activated, wherein the deactivation timer provides a period of time for component carrier activation; and extending activation time of the component carrier when a Physical Downlink Control Channel (PDCCH) indicating an uplink grant or downlink assignment is received for another component carrier of the plurality of component carriers, from the component carrier. when the deactivation timer has expired and the component carrier is deactivated, uplink transmission and downlink reception is not allowed on the component carrier. starting a deactivation timer for a component carrier of the plurality of component carriers when the component carrier is activated, wherein the deactivation timer provides a period of time for component carrier activation; and extending activation time of the component carrier when a Physical Downlink Control Channel (PDCCH) indicating an uplink grant or downlink assignment is received for another component carrier of the plurality of component carriers, from the component carrier. plurality of component carriers when the component carrier is activated, wherein the deactivation timer provides a period of time for component carrier activation; and extending activation time of the component carrier when a Physical Downlink Control Channel (PDCCH) indicating an uplink grant or downlink assignment is received for another component carrier of the plurality of component carriers, from the component carrier. when the deactivation timer has expired and the component carrier is deactivated, uplink transmission and downlink reception is not allowed on the component carrier.
A feeder for machines for wrapping sheet-like chewing gum products of the type comprising a track for supplying laminar chewing gum blanks, a cutting unit for dividing the blanks into sheet-like chewing gum products and a channel for supplying a respective wrapping station with said sheet-like chewing gum products, characterized in that said channels are at least two in number, are arranged mutually side by side, and lead to respective mutually opposite wrapping elements of distinct wrapping stations, a sorting apparatus being interposed between said channels and said cutting unit for the selective transfer of the sheet-like chewing gum products that arrive from said cutting unit to one respective channel at a time, said sorting apparatus comprising respective deflectors, arranged downstream of the output of said cutting unit, which can be oriented selectively toward one of said channels, the sheet-like chewing gum product in output from said cutting unit moving along said deflector to a respective supply channel.
A composition comprising: a) nicotinamide riboside and b) a urolithin which is a compound of formula or a salt thereof: wherein: A, B, C and D are each independently selected from H and OH; W, X and Y are each independently selected from H and OH; and Z is selected from H and OH. a) nicotinamide riboside and b) a urolithin which is a compound of formula or a salt thereof: wherein: A, B, C and D are each independently selected from H and OH; W, X and Y are each independently selected from H and OH; and Z is selected from H and OH. A, B, C and D are each independently selected from H and OH; W, X and Y are each independently selected from H and OH; and Z is selected from H and OH.
An implantable heart analysing system, comprising: an activator adapted to make the wall of the heart deflect or vibrate; a sensor adapted to generate a sensor signal which represents movement of the heart wall; a lead connected to said activator and to said sensor; an implantable heart analysing device comprising: a housing; a connector portion adapted to connect said lead; a control circuit located within said housing and connected to said connector portion to communicate with said activator and said sensor; at least one memory connected to the control circuit, said control circuit is adapted to generate an output signal adapted to actuate said activator and to receive said sensor signal from said sensor; said control circuit is arranged to be able to carry out a procedure that involves generation of said output signal and sensing, during a certain time interval, said sensor signal; said control circuit is adapted to derive information concerning tension of a heart wall of a heart based on i) attenuation of the sensor signal during said time interval, or ii) a comparison of a shape of said sensor signal with a shape of a template that has previously been stored in said at least one memory, characterized in that said activator is adapted to be positioned in contact with an inner or an outer heart wall of said heart; and said sensor is identical with said activator. an activator adapted to make the wall of the heart deflect or vibrate; a sensor adapted to generate a sensor signal which represents movement of the heart wall; a lead connected to said activator and to said sensor; an implantable heart analysing device comprising: a housing; a connector portion adapted to connect said lead; a control circuit located within said housing and connected to said connector portion to communicate with said activator and said sensor; at least one memory connected to the control circuit, a housing; a connector portion adapted to connect said lead; a control circuit located within said housing and connected to said connector portion to communicate with said activator and said sensor; at least one memory connected to the control circuit, said control circuit is adapted to generate an output signal adapted to actuate said activator and to receive said sensor signal from said sensor; said control circuit is arranged to be able to carry out a procedure that involves generation of said output signal and sensing, during a certain time interval, said sensor signal; said control circuit is adapted to derive information concerning tension of a heart wall of a heart based on i) attenuation of the sensor signal during said time interval, or ii) a comparison of a shape of said sensor signal with a shape of a template that has previously been stored in said at least one memory, characterized in that said activator is adapted to be positioned in contact with an inner or an outer heart wall of said heart; and said sensor is identical with said activator.
A method of removing ash from a wall flow type particulate filter which is arranged in an exhaust passage of an internal combustion engine in which combustion is performed in an excess of oxygen for trapping particulate matter in exhaust gas, using a solid acid which is carried on the particulate filter, the method characterized in that the method renders the state of the particulate filter a state where the exhaust gas which flows into the particulate filter is lowered in concentration of oxygen and the particulate filter is raised in temperature to thereby atomize the ash and hold the atomized ash in the solid acid in a dispersed state, then renders the state of the particulate filter a state where the exhaust gas which flows into the particulate filter in an oxidizing atmosphere contains SOx to thereby release the atomized ash which is held at the solid acid from the solid acid and make it be released from the particulate filter.
An organic electroluminescent device comprising at least an anode electrode, a hole-injecting layer, a hole-transporting layer, an emitting layer, an electron-transporting layer and a cathode electrode in this order, wherein the hole-injecting layer contains an arylamine compound having, in its molecule, a structure in which three or more triphenylamine structures are connected through a single bond or a hetero atom-free divalent group, which is an arylamine compound represented by the following general formula: wherein R 12 to R 23 may be the same or different and each represents a hydrogen atom, a fluorine atom, a chlorine atom, a cyano group, a trifluoromethyl group, a linear or branched alkyl group having from 1 to 6 carbon atoms, a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group or a substituted or unsubstituted condensed polycyclic aromatic group, and when a plurality of these substituents are bonded on the same benzene ring, they may be bonded to each other to form a ring; r 12 to r 23 each represents an integer of from 1 to 4; and A 1, A 2 and A 3 may be the same or different and each represents a divalent group represented by one of the following structural formulae to or a single bond: wherein n2 represents an integer of from 1 to 3. -CH 2 - and the hole-transporting layer contains an arylamine compound having two triphenylamine structures in its molecule.
A power group comprising: - an engine, and - a shoulder support for the engine, wherein said shoulder support comprises: - a support frame adapted for supporting the engine, wherein the support frame is L-shaped and has a vertical first portion and an horizontal second portion cantilevered associated with the first portion and to which the engine is connected at the top of the horizontal second portion to be supported thereon, - a wearable framework connected to the support frame, and - a damper element (90, 125, 135) interposed between the support frame and at least one element (65, 85, 55) of which the wearable framework consists, characterized in that a first element of which the wearable framework consists comprises a lumbar support and the damper element (90, 125, 135) comprises a first damper interposed between the lumbar support and the support frame. - an engine, and - a shoulder support for the engine, - a support frame adapted for supporting the engine, wherein the support frame is L-shaped and has a vertical first portion and an horizontal second portion cantilevered associated with the first portion and to which the engine is connected at the top of the horizontal second portion to be supported thereon, - a wearable framework connected to the support frame, and - a damper element (90, 125, 135) interposed between the support frame and at least one element (65, 85, 55) of which the wearable framework consists,
Position sensor system, particularly for detecting rotary movement, comprising: a position sensor, particularly for detecting rotary movement, with a first sensor output and a second sensor output, a first signal processing unit for processing, particularly amplifying and filtering, the signal of the first sensor output or the second sensor output, a second signal processing unit for processing, particularly amplifying and filtering, the signal of the second sensor output or the first sensor output, a first system output providing the output of the first signal processing unit or of the second signal processing unit, and a second system output providing the output of the second signal processing unit or of the first signal processing unit, characterized in that the position sensor system further comprises a swapping unit for swapping the first signal processing unit from the first sensor output and first system output to the second sensor output and second system output and for simultaneously swapping the second signal processing unit from the second sensor output and second system output to the first sensor output and first system output and vice versa. a position sensor, particularly for detecting rotary movement, with a first sensor output and a second sensor output, a first signal processing unit for processing, particularly amplifying and filtering, the signal of the first sensor output or the second sensor output, a second signal processing unit for processing, particularly amplifying and filtering, the signal of the second sensor output or the first sensor output, a first system output providing the output of the first signal processing unit or of the second signal processing unit, and a second system output providing the output of the second signal processing unit or of the first signal processing unit, characterized in that the position sensor system further comprises a swapping unit for swapping the first signal processing unit from the first sensor output and first system output to the second sensor output and second system output and for simultaneously swapping the second signal processing unit from the second sensor output and second system output to the first sensor output and first system output and vice versa.
A positive electrode material mixture for a non-aqueous secondary battery, which comprises a cathode active material (a), a binder (b) containing a fluorinated copolymer having polymerized units derived from tetrafluoroethylene and polymerized units derived from propylene, and an aqueous medium, wherein the cathode active material (a) is such a cathode active material that the pH of a supernatant obtained by mixing 10 g of the cathode active material (a) with 100 cm 3 of water at 25°C for 5 minutes and thereafter allowing the same to stand still for one minute, is at least 10, wherein the fluorinated copolymer has a weight average molecular weight of from 10,000 to 300,000.