mhurhangee/ep-ind-claims huggingface dataset:
A face gear comprising a plurality of annularly arranged gear teeth, wherein each gear tooth has two curved tooth surfaces, a tooth bottom, and a tooth tip, characterized in that the two curved tooth surfaces including a concave tooth surface and a convex tooth surface, each gear tooth has a radially inner end and a radially outer end in a tooth widthwise direction, each of the concave and convex tooth surfaces (9a, 9b) has a single recess for retaining lubricant, the single recess is formed in each of the concave and convex tooth surfaces (9a, 9b) only between the tooth bottom and a pitch point of the gear tooth, and the single recess in the concave tooth surface is located in the vicinity of the tooth bottom of the radially inner end, and the single recess in the convex tooth surface is located in the vicinity of the tooth bottom of the radially outer end.
A manufacturing method of porous glass base material for optical fiber by depositing glass fine particles on a starting material, comprising: a step of supplying an organic siloxane raw material supplied from a raw material tank is fed to a vaporizer; a step of mixing and vaporizing the raw material and carrier gas in the vaporizer; and a step of externally depositing SiO 2 fine particles through combustion reaction by supplying the mixed gas of raw the material and the carrier gas to the burner in the manufacturing apparatus of porous glass base material for optical fiber, wherein before starting to supply the raw material to a raw material gas supply pipe of the burner, the burner and the inside of a manufacturing apparatus of porous glass base material for optical fiber are pre-heated by flowing purge gas of 60°C or higher into the raw material gas supply pipe and supplying combustible gas and combustion supporting gas to the burner to form an oxyhydrogen flame at the burner outlet so that the outer surface temperature of the burner is 60°C or higher, and the purge gas flowing into the raw material gas supply pipe flows at a flow rate that satisfies Q/V >350[min -1] when the volume in the raw material gas supply pipe from a burner inlet of the raw material gas to the burner outlet in the burner is V and the gas flow rate flowing into the raw material gas supply pipe in the burner before the start of raw material supply is Q. a step of supplying an organic siloxane raw material supplied from a raw material tank is fed to a vaporizer; a step of mixing and vaporizing the raw material and carrier gas in the vaporizer; and a step of externally depositing SiO 2 fine particles through combustion reaction by supplying the mixed gas of raw the material and the carrier gas to the burner in the manufacturing apparatus of porous glass base material for optical fiber, wherein before starting to supply the raw material to a raw material gas supply pipe of the burner, the burner and the inside of a manufacturing apparatus of porous glass base material for optical fiber are pre-heated by flowing purge gas of 60°C or higher into the raw material gas supply pipe and supplying combustible gas and combustion supporting gas to the burner to form an oxyhydrogen flame at the burner outlet so that the outer surface temperature of the burner is 60°C or higher, and the purge gas flowing into the raw material gas supply pipe flows at a flow rate that satisfies Q/V >350[min -1] when the volume in the raw material gas supply pipe from a burner inlet of the raw material gas to the burner outlet in the burner is V and the gas flow rate flowing into the raw material gas supply pipe in the burner before the start of raw material supply is Q.
A cooker comprising at least one burner plate having at least one first opening thereon; at least one support plate which has at least one second opening thereon and which is placed under the burner plate; and at least one burner connection member which supports a burner group placed thereon, characterized by the burner connection member which is fixed to the support plate by being adhered onto the support plate wherein the support plate comprising the second opening having a width smaller than the width of the first opening and the burner connection member which is fixed to the support plate by being adhered on the surface of the support plate facing the burner plate and remaining between the first opening and the second opening.
System including an end cap for a two-shaft reactor/mixer and a discharge screw connector block being connectable with the end cap in a detachable manner, wherein the end cap comprises two bearings for receiving each time a shaft end, as well as multiple bores (38' 47, 52') for receiving fastening means (38, 39, 63, 64), and a mixture outlet opening; and wherein the discharge screw connector block comprises at least one channel for receiving a discharge double screw, as well as a mixture inlet opening corresponding with the mixture outlet opening of the end cap, which leads into the at least one channel, and multiple bores (52, 53, 54), which at least partially correspond with the bores (39', 52', 47) in the end cap, wherein the discharge screw connector block with the discharge double screw respectively the channel runs perpendicularly between the two bearings for the shaft ends
A display device, comprising: a substrate; a light emitting element disposed on a first surface of the substrate; a driving element disposed on a second surface of the substrate; a through-hole penetrating the substrate from the first surface to the second surface; a connecting electrode filling the through-hole for linking the driving element to the light emitting element; wherein at least a part of the through-hole overlaps a bank of the light emitting element; and characterized in that the through-hole and the connecting electrode comprise a plurality of through-holes and connecting electrodes, and the plurality of through-holes and connecting electrodes are disposed along the bank. a substrate; a light emitting element disposed on a first surface of the substrate; a driving element disposed on a second surface of the substrate; a through-hole penetrating the substrate from the first surface to the second surface; a connecting electrode filling the through-hole for linking the driving element to the light emitting element; wherein at least a part of the through-hole overlaps a bank of the light emitting element; and characterized in that the through-hole and the connecting electrode comprise a plurality of through-holes and connecting electrodes, and the plurality of through-holes and connecting electrodes are disposed along the bank.
A shock comprising: a first body member supporting a first piston and having a first stop member; a second body member having a second stop member, the second body member being received in an interior of the first body member and the first piston being received in an interior of the second body member, a spring compressed between the first and second stop members, at least one of the first and second stop members being moveable relative to the respective one of the first and second body members, the second body member including a second piston received in the first body member, and an air inlet member in fluid communication with the interior of the first body member, wherein the first piston is a damping piston which comprises a plurality of apertures permitting air in the second body to pass therethrough. a first body member supporting a first piston and having a first stop member; a second body member having a second stop member, the second body member being received in an interior of the first body member and the first piston being received in an interior of the second body member, a spring compressed between the first and second stop members, at least one of the first and second stop members being moveable relative to the respective one of the first and second body members, the second body member including a second piston received in the first body member, and an air inlet member in fluid communication with the interior of the first body member, wherein the first piston is a damping piston which comprises a plurality of apertures permitting air in the second body to pass therethrough.
A composition for forming a zinc oxide-based film, comprising, as an essential component, a zinc compound represented by the following formula: wherein R 1 and R 2 mutually independently represent an alkyl group having 1 to 4 carbon atoms, N,N,N',N'-tetramethylethylenediamine, and an ester solvent and/or alcohol solvent having a boiling point of 150°C or lower.
- Method for manufacturing by stereolithography a green part made of a ceramic or metallic material, method according to which layers based on a curable composition comprising: - said ceramic or metallic material formed by at least a ceramic or metallic powder respectively; and - an organic part comprising at least one monomer and/or one oligomer and at least one initiator for the polymerization of said monomer(s) and/or oligomer(s), are successively cured by said polymerization according to a pattern defined for each layer, the first layer being formed on a construction platform, and each other layer being formed then cured on the preceding layer, characterized in that as initiator(s), at least one thermal initiator is used, the at least one thermal initiator being capable of generating the initiation of a thermal polymerization under the action of the thermal energy released by said ceramic or metallic material respectively, during exposure of the latter to at least one irradiation source chosen from an UV irradiation source, a visible irradiation source and an IR irradiation source; the ceramic powder(s) being chosen among lanthanum strontium manganite ceramic, lanthanum strontium manganite ceramic in mixture with yttrium-stabilized zirconia, ferrite, silicon carbide, and silicon nitride, and the metallic powder(s) being chosen among silver, copper, iron, tungsten and their alloys. - said ceramic or metallic material formed by at least a ceramic or metallic powder respectively; and - an organic part comprising at least one monomer and/or one oligomer and at least one initiator for the polymerization of said monomer(s) and/or oligomer(s), characterized in that as initiator(s), at least one thermal initiator is used, the at least one thermal initiator being capable of generating the initiation of a thermal polymerization under the action of the thermal energy released by said ceramic or metallic material respectively, during exposure of the latter to at least one irradiation source chosen from an UV irradiation source, a visible irradiation source and an IR irradiation source; the ceramic powder(s) being chosen among lanthanum strontium manganite ceramic, lanthanum strontium manganite ceramic in mixture with yttrium-stabilized zirconia, ferrite, silicon carbide, and silicon nitride, and the metallic powder(s) being chosen among silver, copper, iron, tungsten and their alloys.
A polymer composition comprising: i. a thermoplastic polymer; ii. a nanocrystalline cellulose; and, iii. a compatibilizer. wherein the nanocrystalline cellulose has an aspect ratio from 1:1 to 1:4 where the aspect ratio denotes the ratio between the diameter to the length of the nanocrystalline cellulose. i. a thermoplastic polymer; ii. a nanocrystalline cellulose; and, iii. a compatibilizer.
A coating, comprising: a UV blocking layer; and a hard coating layer disposed above the UV blocking layer; and a hydrophobic coating disposed above the hard coating layer; wherein the hard coating layer has the general formula SiO x C y. a UV blocking layer; and a hard coating layer disposed above the UV blocking layer; and a hydrophobic coating disposed above the hard coating layer; wherein the hard coating layer has the general formula SiO x C y.
The manufacturing machine for the production of disposable cartridges for electronic cigarettes; each disposable cartridge comprising a tubular casing and a sealing ring fitted around an upper end of the tubular casing; the manufacturing machine comprising: a manufacturing drum, which is mounted in a rotatable stepwise manner around a vertical rotation axis and supports at least one group of first seats, each of which being adapted to house a corresponding tubular casing; and a feeding unit, which couples corresponding sealing rings to the tubular casings carried by the first seats that are standing still at the feeding unit; wherein the feeding unit comprises a plurality of second seats, each adapted to house a corresponding sealing ring; and wherein the feeding unit comprises a plurality of first pushers arranged in a feeding station, each of which is adapted to lift a corresponding tubular casing, which is in a first seat to move the tubular casing towards a sealing ring carried by a second seat; the manufacturing machine being characterized in that: each second seat comprises a support element, which engages a sealing ring only and exclusively from the inside; and each first pusher is adapted to lift a corresponding tubular casing until the tubular casing is coupled to a sealing ring while the sealing ring is internally engaged by a support element of a second seat. a manufacturing drum, which is mounted in a rotatable stepwise manner around a vertical rotation axis and supports at least one group of first seats, each of which being adapted to house a corresponding tubular casing; and a feeding unit, which couples corresponding sealing rings to the tubular casings carried by the first seats that are standing still at the feeding unit; wherein the feeding unit comprises a plurality of second seats, each adapted to house a corresponding sealing ring; and wherein the feeding unit comprises a plurality of first pushers arranged in a feeding station, each of which is adapted to lift a corresponding tubular casing, which is in a first seat to move the tubular casing towards a sealing ring carried by a second seat; the manufacturing machine being each second seat comprises a support element, which engages a sealing ring only and exclusively from the inside; and each first pusher is adapted to lift a corresponding tubular casing until the tubular casing is coupled to a sealing ring while the sealing ring is internally engaged by a support element of a second seat.
A glass encapsulation structure, comprising: a guide piece; and an encapsulation component, wherein the guide piece is fixed to a side surface of a glass through the encapsulation component, wherein the guide piece comprises a strip part, a plurality of bumps and at least one positioning hole, and wherein the strip part has a first surface, and a second surface which is opposite to the first surface and is intended to face an interior of a vehicle body when the guide piece is mounted onto the vehicle body, the plurality of bumps are located on the first surface and perpendicular to the first surface, the at least one positioning hole is formed in at least one of the bumps, an axis (AA') of the at least one positioning hole is perpendicular to the side surface of the glass, and the at least one positioning hole is adapted for matching at least one positioning pin in an injection molding device in an injection molding process, such that a position relationship between the guide piece and the glass remains unchanged in the injection molding process. a guide piece; and an encapsulation component, wherein the guide piece is fixed to a side surface of a glass through the encapsulation component, wherein the guide piece comprises a strip part, a plurality of bumps and at least one positioning hole, and wherein the strip part has a first surface, and a second surface which is opposite to the first surface and is intended to face an interior of a vehicle body when the guide piece is mounted onto the vehicle body, the plurality of bumps are located on the first surface and perpendicular to the first surface, the at least one positioning hole is formed in at least one of the bumps, an axis (AA') of the at least one positioning hole is perpendicular to the side surface of the glass, and the at least one positioning hole is adapted for matching at least one positioning pin in an injection molding device in an injection molding process, such that a position relationship between the guide piece and the glass remains unchanged in the injection molding process.
A method performed by a wireless transmit/receive unit, WTRU, (102a-d) configured to perform device-to-device, D2D, discovery, the method comprising: sending, to a network, a discovery request to start a discovery process used to perform radio frequency, RF, proximity detection for a service, wherein the discovery request includes a discovery identity, wherein the discovery identity includes a dedicated part having an application identification and a common part having a public land mobile network, PLMN, identity, and wherein the discovery identity is associated, at the WTRU, with a time of expiration and the discovery identity is valid until the time of expiration; and monitoring a channel for a discovery response associated with the discovery request. sending, to a network, a discovery request to start a discovery process used to perform radio frequency, RF, proximity detection for a service, wherein the discovery request includes a discovery identity, wherein the discovery identity includes a dedicated part having an application identification and a common part having a public land mobile network, PLMN, identity, and wherein the discovery identity is associated, at the WTRU, with a time of expiration and the discovery identity is valid until the time of expiration; and monitoring a channel for a discovery response associated with the discovery request.
A method of wireless communications, comprising: splitting a downlink control information, DCI, into a first stage and a second stage, the first stage and the second stage being configured to schedule uplink resources for an uplink data channel or downlink resources for a downlink data channel; generating multiple control resource blocks, CRBs, for a control channel, each CRB of the multiple CRBs having a reference signal, RS, and data resource elements, REs, each CRB of the multiple CRBs having a first orthogonal frequency-division multiple, OFDM, symbol and a second OFDM symbol, and the multiple CRBs being configured to support a dual-stage delivery of the DCI by having the first stage of the DCI in the first OFDM symbol and the second stage of the DCI in the second OFDM symbol; and precoding the multiple CRBs such that the RS and the data REs within each CRB are precoded in a same fashion. splitting a downlink control information, DCI, into a first stage and a second stage, the first stage and the second stage being configured to schedule uplink resources for an uplink data channel or downlink resources for a downlink data channel; generating multiple control resource blocks, CRBs, for a control channel, each CRB of the multiple CRBs having a reference signal, RS, and data resource elements, REs, each CRB of the multiple CRBs having a first orthogonal frequency-division multiple, OFDM, symbol and a second OFDM symbol, and the multiple CRBs being configured to support a dual-stage delivery of the DCI by having the first stage of the DCI in the first OFDM symbol and the second stage of the DCI in the second OFDM symbol; and precoding the multiple CRBs such that the RS and the data REs within each CRB are precoded in a same fashion.
A communication control device comprising: a controller configured to set an acceptable interference amount of a primary system that is an amount of interference acceptable by the primary system caused by a secondary system that secondarily uses a radio wave in a predetermined frequency band allocated to the primary system, wherein the controller is further configured to set, in the setting of the acceptable interference amount, a first margin to be allocated to the secondary system that is operating, a second margin that absorbs a change in the first margin that has been caused by a change in the total number of secondary systems, and a third margin to be commonly set between the communication control device and another communication control device, wherein each of the first margin, the second margin and the third margin are part of the acceptable interference amount. a controller configured to set an acceptable interference amount of a primary system that is an amount of interference acceptable by the primary system caused by a secondary system that secondarily uses a radio wave in a predetermined frequency band allocated to the primary system, wherein the controller is further configured to set, in the setting of the acceptable interference amount, a first margin to be allocated to the secondary system that is operating, a second margin that absorbs a change in the first margin that has been caused by a change in the total number of secondary systems, and a third margin to be commonly set between the communication control device and another communication control device, wherein each of the first margin, the second margin and the third margin are part of the acceptable interference amount.
A device for fluorescence lifetime imaging nanoscopy, comprising two synchronized short-pulse lasers, which are coupled by means of first optical elements with a microscopy unit holding a sample, characterized in that the microscopy unit is connected by means of second optical elements to a time- and location-sensitive detector unit which comprises an imaging wide field time- and space-correlated single photon counting detector and, for the simultaneous acquisition of multiple images, a quattro image module, wherein the emission light coming from the sample and the microscopy unit is first split by a dichroic beam splitter into a long-wave and a short-wave component, which are then each further split by two polarization-separating beam splitters into the parallel and perpendicular polarization components, and the device comprises a control unit for controlling and point-spread modeling of two point sources, which emit at different colors, and the different-colored points of light of which are projected onto the imaging detector, wherein the lasers, the microscopy unit and the detector unit are synchronized via the control unit.
A method of wireless communication by a user equipment, UE, comprising: receiving a random access response, RAR, message for a random access channel, RACH, procedure with a base station, wherein the RAR message is received on a first beam with a first beam index; receiving, from the base station, a contention resolution message, the contention resolution message indicating at least a second beam index corresponding to a second beam that is different from the first beam; determining whether the second beam index is applicable to the UE; and communicating with the base station through the second beam corresponding to the second beam index when the second beam index is applicable to the UE. receiving a random access response, RAR, message for a random access channel, RACH, procedure with a base station, wherein the RAR message is received on a first beam with a first beam index; receiving, from the base station, a contention resolution message, the contention resolution message indicating at least a second beam index corresponding to a second beam that is different from the first beam; determining whether the second beam index is applicable to the UE; and communicating with the base station through the second beam corresponding to the second beam index when the second beam index is applicable to the UE.
Optical sensor arrangement comprising a plurality of sensors (D1, D2) for the detection of electromagnetic waves and a common aperture associated with the sensors (D1, D2), wherein at least two sensors (D1, D2) disposed in series are provided for the detection of the electromagnetic waves entering through the aperture, wherein the sensors disposed in series (D1,D2) coincide in their operational spectral regions, wherein the respectively preceding sensor - looking in the direction of the incident radiation - for increasing the dynamic range of the sensor arrangement in the coincident spectral regions of the sensors forms an attenuation filter for the downstream sensor.