mhurhangee/ep-ind-claims huggingface dataset:
A method for generating a frame in a Long Term Evolution, LTE, system having a primary synchronization channel and a secondary synchronization channel, comprising: generating a first sequence and a second sequence for identifying cell groups; generating a first scrambling sequence and a second scrambling sequence that are mapped to a sequence number of a primary synchronization signal being used for identifying a cell within the cell group, the primary synchronization signal being mapped to the primary synchronization channel of the LTE system; scrambling the first sequence with the first scrambling sequence and scrambling the second sequence with the second scrambling sequence; generating a secondary synchronization signal being used for identifying the cell group that includes the scrambled first sequence and the scrambled second sequence; and mapping the secondary synchronization signal to the secondary synchronization channel of the LTE system. generating a first sequence and a second sequence for identifying cell groups; generating a first scrambling sequence and a second scrambling sequence that are mapped to a sequence number of a primary synchronization signal being used for identifying a cell within the cell group, the primary synchronization signal being mapped to the primary synchronization channel of the LTE system; scrambling the first sequence with the first scrambling sequence and scrambling the second sequence with the second scrambling sequence; generating a secondary synchronization signal being used for identifying the cell group that includes the scrambled first sequence and the scrambled second sequence; and mapping the secondary synchronization signal to the secondary synchronization channel of the LTE system.
A light conversion device, comprising: a wavelength conversion element configured to absorb light of an excitation wavelength and generate light of an emission wavelength, the wavelength conversion element comprising an inorganic binder and a phosphor, wherein the inorganic binder comprises an inorganic material, a filler and a dispersant, wherein the filler has a thermal expansion coefficient that is substantially equivalent to a thermal expansion coefficient of the inorganic material, wherein the thermal expansion coefficient of the inorganic binder is about 0.5 to about 25 ppm/°C, and wherein the filler has a density that is substantially equivalent to a density of the inorganic material.
A male needleless connector (550, 650, 710, 730, 850), comprising: a first body (552, 652, 712, 736, 852) comprising an elongated tubular member and a collar partially surrounding the elongated tubular member, the elongated tubular member defining a fluid pathway; and a second body (582, 660, 714, 734, 858) translatable relative to the first body comprising a longitudinal passageway surrounding the elongated tubular member and a collar partially surrounding the longitudinal passageway, the collar of the second body having internal threads configured to threadably engage with external threads of a female connector; wherein a seal is formed between the elongated tubular member and the longitudinal passageway, and the seal unseals when the first body is rotated relative to the second body; characterised by the collar of the first body having internal threads; and the longitudinal passageway having external threads threadably engaging the internal threads of the collar of the first body. a first body (552, 652, 712, 736, 852) comprising an elongated tubular member and a collar partially surrounding the elongated tubular member, the elongated tubular member defining a fluid pathway; and a second body (582, 660, 714, 734, 858) translatable relative to the first body comprising a longitudinal passageway surrounding the elongated tubular member and a collar partially surrounding the longitudinal passageway, the collar of the second body having internal threads configured to threadably engage with external threads of a female connector; wherein a seal is formed between the elongated tubular member and the longitudinal passageway, and the seal unseals when the first body is rotated relative to the second body; characterised by the collar of the first body having internal threads; and the longitudinal passageway having external threads threadably engaging the internal threads of the collar of the first body.
An offshore wind turbine comprising: - a tower structure body that is configured with a tower and a foundation thereof; - a rotor that is supported at the top of the tower; - a power generator that generates electric power by the rotation of the rotor; - a power converter that converts electric power output from the power generator; - wherein the foundation is fixed to the seabed or floats; - wherein a cavity is formed in the tower and the foundation; - wherein an internal space configured with the cavity in the tower and the foundation is divided into an upper chamber and a lower chamber by a bulkhead between the tower and the foundation or in the tower or the foundation; - wherein the power converter is disposed in the upper chamber; and - wherein a first air vent and a second air vent are formed at the bulkhead; and - an air circulating channel and an air blower wherein air is circulated from the power converter to the lower chamber through the first air vent, then from the lower chamber to the power converter through the second air vent, wherein the air is cooled by heat exchange through the outer wall with water outside of the lower chamber. - a tower structure body that is configured with a tower and a foundation thereof; - a rotor that is supported at the top of the tower; - a power generator that generates electric power by the rotation of the rotor; - a power converter that converts electric power output from the power generator; - wherein the foundation is fixed to the seabed or floats; - wherein a cavity is formed in the tower and the foundation; - wherein an internal space configured with the cavity in the tower and the foundation is divided into an upper chamber and a lower chamber by a bulkhead between the tower and the foundation or in the tower or the foundation; - wherein the power converter is disposed in the upper chamber; and - wherein a first air vent and a second air vent are formed at the bulkhead; and - an air circulating channel and an air blower wherein air is circulated from the power converter to the lower chamber through the first air vent, then from the lower chamber to the power converter through the second air vent, wherein the air is cooled by heat exchange through the outer wall with water outside of the lower chamber.
A rear vehicle body structure comprising: a rear pillar of a rear vehicle body section of a vehicle; a rear wheel arch disposed underneath the rear pillar; a damper stiffener extending in such a manner that loads transmitted to the rear wheel arch and transmitted from the rear wheel arch to a damper are dispersed to the rear pillar; and a brace extending in a rearward direction of the vehicle continuously from the damper stiffener and extending from the rear wheel arch to the rear pillar, the brace having a front surface section located in a front portion of the brace to face in a forward direction of the vehicle, a side surface section extending rearwardly continuously from the front surface section, and a rear surface section extending continuously from the side surface section to be located in a rear portion of the brace, the rear surface section being opposed to the front surface section, at least one of a front ridgeline portion defined by the front surface section and the side surface section and a rear ridgeline portion defined by the side surface section and the rear surface section extending from the rear wheel arch to reach the rear pillar, characterized in that the front surface section, the side surface section and the rear surface section of the brace protrude from the rear pillar in a lateral outward direction of the vehicle, and the brace further includes a ceiling section extending from respective upper end portions (41, 42, 43) of the front surface section, the side surface section and the rear surface section to reach the rear pillar. a rear pillar of a rear vehicle body section of a vehicle; a rear wheel arch disposed underneath the rear pillar; a damper stiffener extending in such a manner that loads transmitted to the rear wheel arch and transmitted from the rear wheel arch to a damper are dispersed to the rear pillar; and a brace extending in a rearward direction of the vehicle continuously from the damper stiffener and extending from the rear wheel arch to the rear pillar, the brace having a front surface section located in a front portion of the brace to face in a forward direction of the vehicle, a side surface section extending rearwardly continuously from the front surface section, and a rear surface section extending continuously from the side surface section to be located in a rear portion of the brace, the rear surface section being opposed to the front surface section, at least one of a front ridgeline portion defined by the front surface section and the side surface section and a rear ridgeline portion defined by the side surface section and the rear surface section extending from the rear wheel arch to reach the rear pillar, characterized in that the front surface section, the side surface section and the rear surface section of the brace protrude from the rear pillar in a lateral outward direction of the vehicle, and the brace further includes a ceiling section extending from respective upper end portions (41, 42, 43) of the front surface section, the side surface section and the rear surface section to reach the rear pillar.
A ventilator autoclave comprising a chamber with a space for receiving goods to be sterilized, at least one fan arrangement for circulating steam and/or air in said chamber, and at least one first heat exchanger arrangement for cooling and/or heating said steam and/or air, wherein said fan arrangement is arranged and configured to circulate said steam and/or air in said chamber, wherein said fan arrangement further is of a radial type, and wherein said chamber is configured such that said steam and/or air that is circulated in said chamber follows a flow path passing at least a part of said first heat exchanger arrangement before reaching said goods to be sterilized characterized in that t said autoclave further comprises at least one second heat exchanger arrangement that is provided upstream of said first heat exchanger arrangement in said flow path, and wherein said second heat exchanger arrangement is provided so that it circumscribes said fan arrangement and is provided at such a distance from the periphery of said fan arrangement that said flow of steam and/or air being circulated by said fan arrangement has a tangential velocity component, as seen in relation to the fan arrangement, when it passes said second heat exchanger arrangement.
A laser delivery device comprising: a fiber core that extends along a fiber axis, is configured to transmit a laser energy along the fiber axis, and terminates at a distal end; a first glass cladding that extends along the fiber axis, is adjacent to the fiber core, and terminates at a distal end; a coating that extends along the fiber axis and terminates at a distal end, wherein the coating is a gold, silver, copper, or brass coating; an outer jacket that extends along the fiber axis, surrounds the coating and terminates at a distal end; and a fiber tip, characterised in that the coating has a thickness of 3 μm or less. a fiber core that extends along a fiber axis, is configured to transmit a laser energy along the fiber axis, and terminates at a distal end; a first glass cladding that extends along the fiber axis, is adjacent to the fiber core, and terminates at a distal end; a coating that extends along the fiber axis and terminates at a distal end, wherein the coating is a gold, silver, copper, or brass coating; an outer jacket that extends along the fiber axis, surrounds the coating and terminates at a distal end; and a fiber tip, characterised in that the coating has a thickness of 3 μm or less.
An instrument panel crossmember for vehicles that have different configurations, said crossmember being intended to extend between two front pillars (28, 30) of a vehicle, the crossmember comprising a first portion extending opposite the vehicle driving seat, one end of said first portion being intended to be connected to a front pillar of the vehicle, the other end being connected to a fixing device, said fixing device being designed selectively to support one end of a second portion extending facing the vehicle passenger seat and/or a strut designed to connect the crossmember to the floor of the vehicle, depending on the configuration of the vehicle, the second portion comprising receiving orifices, the strut comprising receiving orifices, characterized in that the fixing device comprises fixing and/or centering means designed to cooperate with the receiving orifices (46, 48) belonging to the second portion and with the receiving orifices belonging to the upper end of the strut in a first configuration of the vehicle, with the receiving orifices belonging to the upper end of the strut in a second configuration of the vehicle and with the receiving orifices belonging to the second portion in a third configuration of the vehicle.
A method for moving cells in a hollow fiber bioreactor wherein the hollow fibers have an intracapillary space and an extracapillary space, the method comprises the steps of: loading cells into the intracapillary space or extracapillary space; flowing fluid into one of the intracapillary space or extracapillary space containing the cells; and providing a fluid flow pressure in one of the intracapillary space or extracapillary space greater than the fluid flow pressure in the other of the intracapillary or extracapillary space. loading cells into the intracapillary space or extracapillary space; flowing fluid into one of the intracapillary space or extracapillary space containing the cells; and providing a fluid flow pressure in one of the intracapillary space or extracapillary space greater than the fluid flow pressure in the other of the intracapillary or extracapillary space.
Method for operating an anti-lock braking system of a vehicle, in which method a braking torque on at least one wheel of the vehicle is controlled cyclically at least in build-up phases and reduction phases in order to prevent locking of the wheel, wherein the braking torque is increased in a build-up phase until a maximum adhesion at the wheel is exceeded, characterized in that the braking torque is reduced in a subsequent reduction phase by a braking torque difference, which is determined using a wheel acceleration value for the wheel recorded after the build-up phase and a target acceleration value for the wheel.
- Pyrotechnic delay composition comprising at least one oxidant and at least one reducing agent, the composition being characterised in that it comprises tungsten as the first reducing agent, a first oxidant consisting of triiron tetraoxide and a second oxidant having an oxygen content greater than that of the first oxidant, the second oxidant being selected from among the following oxidants: potassium perchlorate, barium peroxide, bismuth oxide, diiodine pentoxide.
A method, in a user equipment, for initializing a secondary cell in a cellular communication system, comprising: receiving (S101; S201; S301; S601) from a base station a Radio Resource Control, RRC, configuration request for the secondary cell to perform the RRC configuration; and performing, in response to receiving the RRC configuration request, uplink synchronization with the base station in the secondary cell, wherein performing, in response to receiving the RRC configuration request, uplink synchronization with the base station in the secondary cell comprises: receiving a Physical Downlink Control Channel, PDCCH, order signaling from the base station; and performing uplink synchronization with the base station in the secondary cell based on the PDCCH order signaling, including identifying a field of Carrier Indicator Field, CIF, in the PDCCH order signaling to determine the secondary cells for uplink synchronization. receiving (S101; S201; S301; S601) from a base station a Radio Resource Control, RRC, configuration request for the secondary cell to perform the RRC configuration; and performing, in response to receiving the RRC configuration request, uplink synchronization with the base station in the secondary cell, wherein performing, in response to receiving the RRC configuration request, uplink synchronization with the base station in the secondary cell comprises: receiving a Physical Downlink Control Channel, PDCCH, order signaling from the base station; and performing uplink synchronization with the base station in the secondary cell based on the PDCCH order signaling, including identifying a field of Carrier Indicator Field, CIF, in the PDCCH order signaling to determine the secondary cells for uplink synchronization. receiving a Physical Downlink Control Channel, PDCCH, order signaling from the base station; and performing uplink synchronization with the base station in the secondary cell based on the PDCCH order signaling, including identifying a field of Carrier Indicator Field, CIF, in the PDCCH order signaling to determine the secondary cells for uplink synchronization.
A hybrid thermal apparatus comprising at least one heat exchanger and at least one heat source and heat sink, wherein said hybrid thermal apparatus is formed as a combination of a first thermal apparatus (1, 15) based on a vapour-compression principle and comprising a first medium for heat transfer, and of a second thermal apparatus (2, 16) based on an elastocaloric principle and comprising a second medium for heat transfer, wherein said thermal apparatuses (1, 15; 2, 16) have at least one third thermal apparatus in common comprising the at least one heat exchanger, which is a deformable heat exchanger made of elastocaloric material.
An intelligent oil extraction system using an all-metal screw pump, comprising: the all-metal screw pump, an oil collecting unit, and a steam generating unit; wherein the all-metal screw pump comprises: a stator, a rotor, a sucker rod, a sleeve, a reducer, and a drive motor; the stator has an internal threaded curve surface; the rotor is installed in the stator and has an external threaded curve surface matched with the internal threaded curve surface of the stator; the sleeve is connected to the stator, and the sucker rod is installed in the sleeve and connected to the rotor; the drive motor, the reducer and the sucker rod are connected in sequence; the oil collecting unit stores crude oil, and the steam generating unit provides steam; an oil outlet of the all-metal screw pump is connected to an input end of an oil pipeline, and an output end of the oil pipeline is connected to an oil inlet of the oil collecting unit and a steam outlet of the steam generating unit; a first valve is install at the oil inlet of the oil collecting unit, and a second valve is installed at the steam outlet of the steam generating unit; the internal threaded curve surface and the external threaded curve surface are both tapered spiral structures with equal tapers; the oil extraction system further comprises a lifting mechanism, and the lifting mechanism comprises: a cross beam, a first clamping member, a second clamping member, a plane bearing, two lifting assemblies, and a servo motor; the sucker rod penetrates the plane bearing and the cross beam; the first clamping member is detachably fixed to the sucker rod which is below the cross beam; the first clamping member and the reducer are in a sliding fit along an up-down direction, thereby transmitting torque to the reducer and the sucker rod; the second clamping member is detachably fixed to the sucker rod which is above the cross beam; the second clamping member abuts against the plane bearing, and the plane bearing is installed on the cross beam; the two lifting assemblies are separately provided at both ends of the cross beam, and output ends of the two lifting assemblies are fixed to the cross beam; the servo motor drives the lifting assemblies to perform lifting motion; the oil extraction system further comprises a monitoring and control mechanism, and the monitoring and control mechanism comprises: a controller, a torque sensor, a flow sensor, a pressure sensor, a liquid level detector, and a backup power source; the controller is electrically connected to the torque sensor, the flow sensor, the pressure sensor, the liquid level detector, the backup power source, the drive motor, the servo motor, the first valve and the second valve; the torque sensor monitors pumping torque of the sucker rod; the flow sensor monitors a crude oil flow rate in the all-metal screw pump; the pressure sensor monitors a gas pressure in the screw pump; the liquid level detector monitors a liquid level in a well; the backup power source supplies power to the controller and the servo motor during power failure.
A process for producing foam moldings, comprising a) providing a first amount of expandable foam particles; b) providing a second amount of expandable foam particles; c) preparing a physical mixture on basis of said first and second amount of foam particles; d) introduction of the mixture of step c) into a mold and sintering under pressure and heat, wherein the chemical origin of the first amount of expandable foam particles differs from the chemical origin of the second amount of foam particles, said process further comprising the presence of a coating in said mixture before said introduction of said mixture into said mold, wherein said coating is used for obtaining a good adhesion between said expandable foam particles of step a) and said expandable foam particles of step b), wherein at least one of said expandable foam particles of step a) and said expandable foam particles of step b) is provided with said coating. a) providing a first amount of expandable foam particles; b) providing a second amount of expandable foam particles; c) preparing a physical mixture on basis of said first and second amount of foam particles; d) introduction of the mixture of step c) into a mold and sintering under pressure and heat, wherein the chemical origin of the first amount of expandable foam particles differs from the chemical origin of the second amount of foam particles, said process further comprising the presence of a coating in said mixture before said introduction of said mixture into said mold, wherein said coating is used for obtaining a good adhesion between said expandable foam particles of step a) and said expandable foam particles of step b), wherein at least one of said expandable foam particles of step a) and said expandable foam particles of step b) is provided with said coating.