mhurhangee/ep-ind-claims huggingface dataset:
A method of conditioning a supercapacitor, where the supercapacitor comprising at least one pair of the positively and negatively charged electrodes, including at least one polarisable micro/mesoporous carbon electrode, interleaved with porous ion-conductive separator and immersed with the electrolyte, where, before the conditioning of the supercapacitor the supercapacitor cell is stored after filling with the electrolyte for penetration of micropores by electrolyte, followed by step-by-step treatment of supercapacitor with the conditioning voltage (Uc), which is increased gradually by the voltage step (ΔUc) which is less than 0.3V, characterised in that during the conditioning step is performed the voltage cycling where the supercapacitor is charged to the conditioning voltage (Uc) and thereafter discharged to the voltage Uc-ΔU wherein ΔU is between 0 and Uc.
A dispersible moist wipe comprising synthetic fibers between 0 and 10 percent by weight, regenerated cellulose fibers between 5 percent and 20 percent by weight, and natural cellulose fibers in an amount between 70 and 95 percent by weight, at least 50 percent of the natural cellulose fibers being fibrillated, the regenerated cellulose fibers and the natural cellulose fibers being hydroentangled such that the web has a wet CD tensile strength of at least 200 grams per inch; wherein the natural cellulose fibers are softwood pulp; wherein the regenerated fibers have a decitex between 0.7 g/10,000 m and 2 g/10,000 m; and wherein the regenerated cellulose fibers have a length in the range of about 4 millimeters to about 15 millimeters.
A method, in a first base station, for providing an interface between the first base station and a second base station for providing bearer management functions, the first and second base stations comprising an anchor-assisting node relationship and being comprised in a wireless communications network, the method characterised by: establishing the interface with the second base station; and receiving and/or sending communications from and/or to, the second base station, respectively, on the interface for providing bearer management functions for bearers associated with a user equipment in multiple connectivity with at least thefirst and second base stations, wherein bearer management operations performed on the interface are related to E-RAB procedures, RRC messaging, handover procedures, or interface establishment procedures. establishing the interface with the second base station; and receiving and/or sending communications from and/or to, the second base station, respectively, on the interface for providing bearer management functions for bearers associated with a user equipment in multiple connectivity with at least thefirst and second base stations, wherein bearer management operations performed on the interface are related to E-RAB procedures, RRC messaging, handover procedures, or interface establishment procedures.
Optical scanning device (100, 100'), more particularly optical resonance scanner, comprising a resilient bending element, which is inducible to vibrate, more particularly to rotationally vibrate about a longitudinal axis (A-A) by means of at least one stationary magnet and by means of at least one stationary drive coil, wherein the drive coil is wound around a pole shoe which is magnetically coupled to the magnet and has two opposing free ends (21, 22), between which the bending element is symmetrically arranged in such a way that a magnetic flux is transmittable between the bending element and the free ends (21, 22) of the pole shoe in a manner substantially perpendicular to the longitudinal axis (A-A), wherein the magnet is arranged symmetrically with respect to the free ends (21, 22) of the pole shoe in such a way that the magnetic flux generated by the magnet couples with the bending element in a manner substantially perpendicular to the longitudinal axis (A-A) and a first magnetic circuit is formed by the magnet and a first half of the pole shoe and a second magnetic circuit is formed by the magnet and a second half of the pole shoe, both by way of the superposition of the magnet-induced and coil-induced magnetic fluxes, said magnetic circuits extending counter to one another through a magnetisable portion of the bending element in a plane perpendicular to the longitudinal axis (A-A), characterized in that provision is made of a short circuit winding (8.1) which surrounds the magnet.
A hybrid digital and screen printing press for printing an indicia on a substrate and comprising: an endless conveyor; a plurality of object supports connected to the conveyor and spaced from one another and moveable with the conveyor, each of the object supports defining a printing zone having a length dimension and a first width dimension; at least one digital-to-garment printing station positioned proximate the conveyor and having a print head moveable into the printing zone to engage the substrate and having a second width dimension equal to or greater than the first width dimension, the print head array mounted for movement exclusively along a length dimension of the printing zone; a direct to screen printing machine for preparing a silk screen for use in the DTG printing station once mounted to the print head; a raster image processor (RIP, 200) electronically coupled to the DTG printing station and the DTS printing machine, the RIP having a processor, and a memory storing computer-readable instructions when executed by the processor takes the following steps: store in the memory a digital art file containing an electronic representation of the colors and their locations to be printed on the substrate to produce the indicia; sending a first signal to the DTS printing machine representative of a base coat of the indicia; and sending a second signal to the at least one DTG printing station representative of the cyan, magenta, yellow, and black colors of the indicia. an endless conveyor; a plurality of object supports connected to the conveyor and spaced from one another and moveable with the conveyor, each of the object supports defining a printing zone having a length dimension and a first width dimension; at least one digital-to-garment printing station positioned proximate the conveyor and having a print head moveable into the printing zone to engage the substrate and having a second width dimension equal to or greater than the first width dimension, the print head array mounted for movement exclusively along a length dimension of the printing zone; store in the memory a digital art file containing an electronic representation of the colors and their locations to be printed on the substrate to produce the indicia; sending a first signal to the DTS printing machine representative of a base coat of the indicia; and sending a second signal to the at least one DTG printing station representative of the cyan, magenta, yellow, and black colors of the indicia.
An imaging unit comprising: an optical element on which light is incident; an imaging chip, on which light from the optical element is incident, that images a subject; a power supply circuit that supplies power for driving the imaging chip; a substrate that has a first surface on which the imaging chip is mounted and a second surface on which the power supply circuit is mounted, the second surface facing away from the first surface; and a member (143, 145) having an attaching portion for attaching another structure, the attaching portion being arranged outside of a region in which the imaging chip is arranged on the first surface of the substrate, characterised in that the optical element, the substrate, and the member (143, 145) form a space for housing the imaging chip. an optical element on which light is incident; an imaging chip, on which light from the optical element is incident, that images a subject; a power supply circuit that supplies power for driving the imaging chip; a substrate that has a first surface on which the imaging chip is mounted and a second surface on which the power supply circuit is mounted, the second surface facing away from the first surface; and a member (143, 145) having an attaching portion for attaching another structure, the attaching portion being arranged outside of a region in which the imaging chip is arranged on the first surface of the substrate,
A device for tying a knot, said device comprising a thread having a functional end and a pulling end, wherein a base body is provided around whose outer surface the thread is laid in the form of a prepared, still open knot, so that by pulling on the pulling end the thread forms a closed knot sliding along the outer surface, and wherein the prepared, still open knot has an adaptation knot facing the functional end and a securing knot facing the pulling end, wherein the thread for forming the adaptation knot is wrapped at least twice around the base body in a first wrapping direction and at least once around the functional end in a second wrapping direction different from the first wrapping direction and wherein the thread for forming the securing knot is wrapped at least once around the base body in the second wrapping direction, wherein a needle or point is arranged at the functional end of the thread, characterized in that the first winding direction is opposite to the second winding direction.
Tibial trial insert system, comprising: a bearing component having a superior articulating surface for articulation with a distal femoral surface; a plate component having an inferior fixation surface for fixation to a proximal tibia; and an adjustment arrangement for adjusting a proximal/distal spacing between the bearing component and the plate component, the adjustment arrangement comprising an adjustment device having a superior connector element configured to engage with an inferior surface of the bearing component, an inferior base element adapted to be placed at least indirectly upon a superior surface of the plate component, and having a telescopic mechanism operatively coupled to the connector element and to the base element, wherein the telescopic mechanism is user-operable for adjusting a thickness of the adjustment device; characterized in that the adjustment arrangement comprises at least one shim configured for insertion between the superior surface of the plate component and an inferior surface of the base element for adjusting a height level of the adjustment device in relation to the plate component. a bearing component having a superior articulating surface for articulation with a distal femoral surface; a plate component having an inferior fixation surface for fixation to a proximal tibia; and an adjustment arrangement for adjusting a proximal/distal spacing between the bearing component and the plate component, the adjustment arrangement comprising an adjustment device having a superior connector element configured to engage with an inferior surface of the bearing component, an inferior base element adapted to be placed at least indirectly upon a superior surface of the plate component, and having a telescopic mechanism operatively coupled to the connector element and to the base element, wherein the telescopic mechanism is user-operable for adjusting a thickness of the adjustment device; characterized in that the adjustment arrangement comprises at least one shim configured for insertion between the superior surface of the plate component and an inferior surface of the base element for adjusting a height level of the adjustment device in relation to the plate component.
Lighting device for a motor vehicle headlamp, which lighting device comprises the following: - at least two light sources for emitting at least two light beams in a first emission direction, preferably exactly two light sources, the at least two light sources each being designed as at least one light-emitting diode, - a first deflection device with a deflection surface which is set up to deflect at least part of the respective light beam of each of the at least two light sources in a second emission direction, the deflection surface of the first deflection device being designed as a hyperbolic, parabolic or ellipsoidal reflector, and - a second deflecting device with a plurality of independently controllable and movable deflecting elements for deflecting at least a part of the light beam of the light beam deflected by the first deflecting device into a third radiation direction and for generating a light distribution in front of the lighting device, characterized in that the illumination device comprises at least two expansion optics with a focal point, preferably precisely two expansion optics, each light source being assigned precisely one expansion optic which is set up to expand the light beam emitted by the light source in the direction of the first emission direction, wherein the expanded light beams partially overlap, and wherein the at least two light sources are arranged in the direction of the first radiation direction between the at least one expansion optics and the focal point of the expansion optics. - at least two light sources for emitting at least two light beams in a first emission direction, preferably exactly two light sources, the at least two light sources each being designed as at least one light-emitting diode, - a first deflection device with a deflection surface which is set up to deflect at least part of the respective light beam of each of the at least two light sources in a second emission direction, the deflection surface of the first deflection device being designed as a hyperbolic, parabolic or ellipsoidal reflector, and - a second deflecting device with a plurality of independently controllable and movable deflecting elements for deflecting at least a part of the light beam of the light beam deflected by the first deflecting device into a third radiation direction and for generating a light distribution in front of the lighting device,
A method for determining the presence of at least one predetermined material or material class in a sample of water, including the following: providing an electrical circuit that includes an electric field detector (200, 300, 400, 500, 600, 1200, 1300, 1400, 1500, 1601); providing a hydrophobic plastic cup (330, 430, 530, 630, 7005, 1230, 1330, 1430, 1530) adapted to receive the sample of water (340, 540, 640, 7010, 1240, 1340, 1440, 1540); placing the sample in the plastic cup; swirling said liquid sample in the plastic cup for a predetermined amount of time or for a predetermined number of revolutions; placing said electric field detector in non-contact proximity to the plastic cup; measuring presence and/or strength of an electrical field in non-contact proximity to the plastic cup; determining a presence or absence of a predetermined material or material class in said sample as a function of strength of said electric field; and, indicating to a user said presence or absence of said predetermined material or material class in said sample. providing an electrical circuit that includes an electric field detector (200, 300, 400, 500, 600, 1200, 1300, 1400, 1500, 1601); providing a hydrophobic plastic cup (330, 430, 530, 630, 7005, 1230, 1330, 1430, 1530) adapted to receive the sample of water (340, 540, 640, 7010, 1240, 1340, 1440, 1540); placing the sample in the plastic cup; swirling said liquid sample in the plastic cup for a predetermined amount of time or for a predetermined number of revolutions; placing said electric field detector in non-contact proximity to the plastic cup; measuring presence and/or strength of an electrical field in non-contact proximity to the plastic cup; determining a presence or absence of a predetermined material or material class in said sample as a function of strength of said electric field; and, indicating to a user said presence or absence of said predetermined material or material class in said sample.
A method, in a first node in a wireless network, for determining a reference signal density for reference signals associated with one or more data transmissions by a transmitting node, the method comprises: obtaining one or more reference signal conditions that govern reference signal density for reference signals transmitted in conjunction with one or more data transmissions, wherein the one or more reference signal conditions are defined in advance of any scheduling of the one or more data transmissions; and evaluating the one or more reference signal conditions and selecting a reference signal density from among two or more possible densities, based on the evaluation, characterized in that evaluating the one or more reference signal conditions comprises evaluating a time since a densest reference signal density of the two or more possible densities was used by the node transmitting the one or more data transmissions, or evaluating the one or more reference signal conditions comprises evaluating a previously configured pattern defining the usage of two or more reference signal densities by the transmitting node. obtaining one or more reference signal conditions that govern reference signal density for reference signals transmitted in conjunction with one or more data transmissions, wherein the one or more reference signal conditions are defined in advance of any scheduling of the one or more data transmissions; and evaluating the one or more reference signal conditions and selecting a reference signal density from among two or more possible densities, based on the evaluation,
A method for pumping using a piston pump or homogenizing using a homogenizer, said method comprising a step of sterilizing water for continuously spraying pistons in a piston pump or a homogenizer, characterized in that heating of the water takes places regeneratively in a first stage, thereafter in a second stage with steam, and that the water is held at a temperature of at least 121°C during a predetermined period of time, whereafter the water is cooled regeneratively to a temperature which exceeds 75°C and is below 110°C, enabling use of a piston seal material withstanding temperatures below 110°C.
A composite substrate comprising: a single crystal support substrate containing a first element as a main component, an oxide single crystal layer provided on the single crystal support substrate and containing a second element as a main component, the second element excluding oxygen; and an amorphous layer provided in between the single crystal support substrate and the oxide single crystal layer and containing the first element, the second element and Ar, the amorphous layer having a first amorphous region in which proportion of the first element is higher than proportion of the second element, and a second amorphous region in which the proportion of the second element is higher than the proportion of the first element, concentration of the Ar contained in the first amorphous region being higher than concentration of Ar contained in the second amorphous region and being 3 atom% or more, wherein the oxide single crystal layer includes one selected from a group consisting of lithium tantalate and lithium niobate. a single crystal support substrate containing a first element as a main component, an oxide single crystal layer provided on the single crystal support substrate and containing a second element as a main component, the second element excluding oxygen; and an amorphous layer provided in between the single crystal support substrate and the oxide single crystal layer and containing the first element, the second element and Ar, the amorphous layer having a first amorphous region in which proportion of the first element is higher than proportion of the second element, and a second amorphous region in which the proportion of the second element is higher than the proportion of the first element, concentration of the Ar contained in the first amorphous region being higher than concentration of Ar contained in the second amorphous region and being 3 atom% or more, wherein the oxide single crystal layer includes one selected from a group consisting of lithium tantalate and lithium niobate.
A thermal cracking system, characterized by comprising: a driving unit having an automated overhead crane assembly; a material treatment unit; a preparation unit; and a thermal cracking treatment unit, wherein: the driving unit is connected to the material treatment unit, the preparation unit, and the thermal cracking treatment unit separately, and the driving unit is configured to deliver or feed a material to the material treatment unit, the preparation unit, and the thermal cracking treatment unit; the material treatment unit comprises a crushing device and a plurality of stock containers, and the stock containers are adjacent to an output end of the crushing device; the preparation unit comprises a plurality of combustion devices, a plurality of driving assemblies, and a plurality of bases, and each said base is mounted with a said driving assembly so that each said combustion device, when mounted on any one of the driving assemblies, is able to be raised and lowered with respect to the base of the any one of the driving assemblies; and the thermal cracking treatment unit comprises a thermal cracking module, a collection device, a condensation module, and an auxiliary fuel module, and each said combustion device of the preparation unit is configured to be mounted on the thermal cracking module in order to operate under control of the thermal cracking module and be adjacent to the collection device, and the thermal cracking module is in communication with the condensation module and the auxiliary fuel module separately. a driving unit having an automated overhead crane assembly; a material treatment unit; a preparation unit; and a thermal cracking treatment unit, wherein: the driving unit is connected to the material treatment unit, the preparation unit, and the thermal cracking treatment unit separately, and the driving unit is configured to deliver or feed a material to the material treatment unit, the preparation unit, and the thermal cracking treatment unit; the material treatment unit comprises a crushing device and a plurality of stock containers, and the stock containers are adjacent to an output end of the crushing device; the preparation unit comprises a plurality of combustion devices, a plurality of driving assemblies, and a plurality of bases, and each said base is mounted with a said driving assembly so that each said combustion device, when mounted on any one of the driving assemblies, is able to be raised and lowered with respect to the base of the any one of the driving assemblies; and the thermal cracking treatment unit comprises a thermal cracking module, a collection device, a condensation module, and an auxiliary fuel module, and each said combustion device of the preparation unit is configured to be mounted on the thermal cracking module in order to operate under control of the thermal cracking module and be adjacent to the collection device, and the thermal cracking module is in communication with the condensation module and the auxiliary fuel module separately.