mhurhangee/ep-ind-claims huggingface dataset:
A method for determining information about a degree of freedom of rigid body motion of an encoder scale using an input light beam that is either a wavelength-swept light beam or a broadband light beam, the method comprising: directing a first beam and a second beam along different paths, each of the first beam and the second beam derived from the input light beam, wherein the first beam diffracts from an encoder scale; combining a diffracted component of the first beam with the second beam to form an interfering output beam; monitoring the interference in the output beam for different wavelengths of the first and second beams; and determining the information about a degree of freedom of rigid body motion of the encoder scale based on changes in the output beam corresponding to the different wavelengths. directing a first beam and a second beam along different paths, each of the first beam and the second beam derived from the input light beam, wherein the first beam diffracts from an encoder scale; combining a diffracted component of the first beam with the second beam to form an interfering output beam; monitoring the interference in the output beam for different wavelengths of the first and second beams; and determining the information about a degree of freedom of rigid body motion of the encoder scale based on changes in the output beam corresponding to the different wavelengths.
A processing method for obtaining synchronization, comprising: receiving, by a user equipment, a physical random access channel resource subset of a first secondary cell from a base station; receiving, by the user equipment, configuration information corresponding to the first secondary cell from the base station; selecting, by the user equipment, a preamble and a physical random access channel resource on the first secondary cell; sending, by the user equipment, the preamble to the base station by using the physical random access channel resource of the first secondary cell; generating, by the user equipment, a random access-radio network temporary identity according to information of the physical random access channel resource and the configuration information; and characterized by receiving, by the user equipment, scheduling information of a random access response message from a physical downlink control channel of a second secondary cell of the user equipment by using the generated random access-radio network temporary identity, and receiving, from the physical downlink shared channel of the second secondary cell according to the scheduling information, the random access response message from the base station. receiving, by a user equipment, a physical random access channel resource subset of a first secondary cell from a base station; receiving, by the user equipment, configuration information corresponding to the first secondary cell from the base station; selecting, by the user equipment, a preamble and a physical random access channel resource on the first secondary cell; sending, by the user equipment, the preamble to the base station by using the physical random access channel resource of the first secondary cell; generating, by the user equipment, a random access-radio network temporary identity according to information of the physical random access channel resource and the configuration information; and characterized by receiving, by the user equipment, scheduling information of a random access response message from a physical downlink control channel of a second secondary cell of the user equipment by using the generated random access-radio network temporary identity, and receiving, from the physical downlink shared channel of the second secondary cell according to the scheduling information, the random access response message from the base station.
A system including one or more light emitting devices, comprising: a current controlled voltage regulator including a current feedback input, the current controlled voltage regulator in electrical communication with the one or more light emitting devices; and a current sensing device positioned in a current path through which a current passes through the one or more light emitting devices, the current sensing device in direct electrical communication with the current feedback input, wherein the current sensing device is a resistor, characterized in that the system further comprises a controller and that the current controlled voltage regulator includes a lighting device array current error amplifier, a pulse width modulated generator, and a buck stage that receives a supply voltage from a DC voltage source, wherein the lighting device array current error amplifier receives a voltage that is indicative of current passing through the one or more light emitting devices and a signal indicative of a desired current flow through the one or more light emitting devices from the controller, the lighting device array current error amplifier outputs a voltage that represents a desired change in current, wherein the lighting device array current error amplifier is electrically coupled to the pulse width modulation generator, and wherein an output of the pulse width modulation generator is input to the buck stage, and that the controller includes instructions for adjusting a light intensity of the one or more light emitting devices. a current controlled voltage regulator including a current feedback input, the current controlled voltage regulator in electrical communication with the one or more light emitting devices; and a current sensing device positioned in a current path through which a current passes through the one or more light emitting devices, the current sensing device in direct electrical communication with the current feedback input, wherein the current sensing device is a resistor, characterized in that the system further comprises a controller and that the current controlled voltage regulator includes a lighting device array current error amplifier, a pulse width modulated generator, and a buck stage that receives a supply voltage from a DC voltage source, wherein the lighting device array current error amplifier receives a voltage that is indicative of current passing through the one or more light emitting devices and a signal indicative of a desired current flow through the one or more light emitting devices from the controller, the lighting device array current error amplifier outputs a voltage that represents a desired change in current, wherein the lighting device array current error amplifier is electrically coupled to the pulse width modulation generator, and wherein an output of the pulse width modulation generator is input to the buck stage, and that the controller includes instructions for adjusting a light intensity of the one or more light emitting devices.
A joined body comprising: a first member which is a ceramic containing Si; a second member; and a joining portion which includes an electrically conductive oxide containing a Fe 3 O 4 phase and which joins the first member and the second member; wherein the joining portion is formed to have a multilayer structure in which from the first member to the second member, a first layer containing a Fe 2 O 3 phase as a first oxide, a second layer containing a Fe 3 O 4 phase as a second oxide having a lower Fe valence than that of the first oxide, and a mixed layer containing a Fe metal and the second oxide are formed. a first member which is a ceramic containing Si; a second member; and a joining portion which includes an electrically conductive oxide containing a Fe 3 O 4 phase and which joins the first member and the second member; wherein the joining portion is formed to have a multilayer structure in which from the first member to the second member, a first layer containing a Fe 2 O 3 phase as a first oxide, a second layer containing a Fe 3 O 4 phase as a second oxide having a lower Fe valence than that of the first oxide, and a mixed layer containing a Fe metal and the second oxide are formed.
A strapping device comprising: - a frame defining a supporting area on which a strap being processed can be placed, - a tensioning assembly suitable to lock and tension, on command, at least part of said strap and comprising at least one rocker, - a welding assembly suitable for joining, on command, at least two edges of said strap, and - at least a second drive member suitable to actuate at least part of said tensioning assembly, - said rocker defining a main axis and comprising at least one tensioning wheel defining its own tensioning axis, which can be rotated around said tensioning axis and integrally with said rocker around said main axis with respect to said frame, - said strapping device further comprising at least a first drive mechanism operatively connected to at least said second drive member and including at least a first drive assembly, the strapping device being characterised in that - said first drive assembly is configured for moving said tensioning wheel around said tensioning axis even when said tensioning wheel is moved around said main axis. - a frame defining a supporting area on which a strap being processed can be placed, - a tensioning assembly suitable to lock and tension, on command, at least part of said strap and comprising at least one rocker, - a welding assembly suitable for joining, on command, at least two edges of said strap, and - at least a second drive member suitable to actuate at least part of said tensioning assembly, - said rocker defining a main axis and comprising at least one tensioning wheel defining its own tensioning axis, which can be rotated around said tensioning axis and integrally with said rocker around said main axis with respect to said frame, - said strapping device further comprising at least a first drive mechanism operatively connected to at least said second drive member and including at least a first drive assembly, the strapping device being characterised in that - said first drive assembly is configured for moving said tensioning wheel around said tensioning axis even when said tensioning wheel is moved around said main axis.
A composition comprising: treated alkaline earth metal oxide particles treated by heating precursor alkaline earth metal oxide particles comprising 40-100 percent by total dry weight of calcium oxide, or a mixture of calcium oxide and magnesium oxide, at an average temperature within 200°C - 700°C, for a period of 20 - 300 minutes, in the presence of an organic material comprising a carbohydrate, amino-carboxylic acid, ora mixture thereof.
A powder core comprising: a plurality of composite magnetic particles bonded to each other; wherein: each of said plurality of composite magnetic particles includes: a metal magnetic particle; an insulative lower layer coating surrounding the surface of said metal magnetic particle; an upper layer coating surrounding said lower layer coating and containing silicon; and dispersed particles containing a metal oxide compound and disposed in said upper layer coating and/or said lower layer coating; wherein a mean particle diameter R of said dispersed particles meets the condition 10 nm < R ≤ 2T, where T is the average thickness of the coating formed by said lower layer coating and said upper layer coating; and wherein the mean particle diameter R of said dispersed particles is at least 30 nm and not more than 50 nm, wherein the mean particle diameter R is the diameter for which the sum of the mass of the dispersed particles starting from the lower end of a particle diameter histogram to the mass of the dispersed particles with diameter R is 50% of the total mass of the disperded particles, said particle diameter histogram being derived using the laser scattering diffraction method; wherein said lower layer coating includes at least one compound selected from a group consisting of a phosphorous compound, a silicon compound, a zirconium compound, and an aluminum compound.
A method of transmitting data by a transmitter in a device to device communication system, the method comprising: determining whether a security feature is applied to a packet data convergence protocol, PDCP, service data unit, SDU; configuring a PDCP protocol data unit, PDU, based on the determined result; and transmitting the PDCP PDU to a receiving user equipment, UE, wherein a PDCP header of the PDCP PDU includes a SDU type, a PDCP sequence number, SN, least significant bits of a pro-se group key, PGK, identification, ID, and a pro-se traffic key, PTK, ID, and wherein the SDU type included in the PDCP header is set to a value indicating whether a protocol type of the PDCP SDU is an address resolution protocol, ARP, or an internet protocol, IP, and wherein the PDCP SN, the least significant bits of the PGK ID and the PTK ID included in the PDCP header are set to information indicating whether the security feature is applied to the PDCP SDU based on the determined result. determining whether a security feature is applied to a packet data convergence protocol, PDCP, service data unit, SDU; configuring a PDCP protocol data unit, PDU, based on the determined result; and transmitting the PDCP PDU to a receiving user equipment, UE, wherein a PDCP header of the PDCP PDU includes a SDU type, a PDCP sequence number, SN, least significant bits of a pro-se group key, PGK, identification, ID, and a pro-se traffic key, PTK, ID, and wherein the SDU type included in the PDCP header is set to a value indicating whether a protocol type of the PDCP SDU is an address resolution protocol, ARP, or an internet protocol, IP, and wherein the PDCP SN, the least significant bits of the PGK ID and the PTK ID included in the PDCP header are set to information indicating whether the security feature is applied to the PDCP SDU based on the determined result.
A method for retrofitting an elevator machine with a thrust bearing, comprising: removing, from a bearing stand, a first cover plate, providing access to an end portion of a motor shaft; securing an extension shaft against the end portion of the motor shaft; securing a thrust bearing housing against, or axially offset from, the bearing stand; positioning the thrust bearing in the bearing housing, wherein: an inner race of the thrust bearing is securely positioned against, and axially fixed to, the extension shaft; and an outer race of the thrust bearing is securely positioned against the bearing housing; and securing a second cover plate to the bearing housing. removing, from a bearing stand, a first cover plate, providing access to an end portion of a motor shaft; securing an extension shaft against the end portion of the motor shaft; securing a thrust bearing housing against, or axially offset from, the bearing stand; positioning the thrust bearing in the bearing housing, wherein: an inner race of the thrust bearing is securely positioned against, and axially fixed to, the extension shaft; and an outer race of the thrust bearing is securely positioned against the bearing housing; and securing a second cover plate to the bearing housing. an inner race of the thrust bearing is securely positioned against, and axially fixed to, the extension shaft; and an outer race of the thrust bearing is securely positioned against the bearing housing; and securing a second cover plate to the bearing housing.
A porous ceramic body comprising: a predominant crystalline phase of non-stoichiometric cordierite and a composition on a relative oxide weight percent basis in terms of MgO, Al 2 O 3, and SiO 2 that is within a field defined by (15.4, 34.1, and 50.5), (12.2, 34.1, and 53.7), (13.3, 31.2, and 55.5), and (16.6, 31.1, and 52.3); % P ≥ 50 %; and d f ≤ 0.50, wherein %P is average bulk porosity by volume, and d f = (d 50 -d 10)/d 50, wherein d 50 is a median pore size of the porous ceramic body. a predominant crystalline phase of non-stoichiometric cordierite and a composition on a relative oxide weight percent basis in terms of MgO, Al 2 O 3, and SiO 2 that is within a field defined by (15.4, 34.1, and 50.5), (12.2, 34.1, and 53.7), (13.3, 31.2, and 55.5), and (16.6, 31.1, and 52.3); % P ≥ 50 %; and d f ≤ 0.50, wherein %P is average bulk porosity by volume, and d f = (d 50 -d 10)/d 50, wherein d 50 is a median pore size of the porous ceramic body.
Panel for a household appliance, in particular a dishwasher or a washing machine, wherein the panel is embodied to cover at least one part of an electronics unit of the household appliance, and has an opening for an operating element for actuating the household appliance and/or the electronics unit, characterised in that at least one element acting in a capillary-like manner for channelling away liquid which has reached the interior of the panel is provided on the interior of the panel, wherein the element acting in a capillary-like manner causes a capillary effect, by way of which the liquid is channelled away along the course of the element acting in a capillary-like manner, wherein furthermore the element acting in a capillary-like manner is formed by a rib protruding on the interior of the panel and a reinforcement or wall element (3, 4) of the panel, or by two ribs protruding on the interior of the panel, and the element acting in a capillary-like manner has a height of 0.5 mm to 1.2 mm, preferably 0.95 mm, and a width of 1 mm to 4 mm, preferably 3.5 mm.
System for controlling the loading or unloading a cable or the like onto a drum, wherein the drum has a known first rotation axis loading or unloading the cable, the system also comprises an imaging means aimed at the cable from a position at a distance from the drum rotation axis, the imaging means being adapted to measure the direction of the cable relative to the rotational axis of the drum, characterised i n that said imaging means is adapted to provide a 3D image, thus being able to provide the direction of the cable in three dimensions.
A hydrophilic coating method for contact lens surface, comprising following steps of: performing a hydration procedure S1 to form a hydrated polymer from a non-hydrated polymer; performing a first hydration process S2 for contacting the hydrated polymer with a first solution at a first temperature for a first treatment time, the first solution comprising at least one composition selected from a group consisting of polyvinyl alcohol, polyvinylpyrrolidone, polyethylene glycol and the combination thereof; and performing a second hydration process S3 for contacting the hydrated polymer with a second solution at a second temperature for a second treatment time, the second solution comprising at least one composition selected from a group consisting of polyvinyl alcohol, polyvinylpyrrolidone, polyethylene glycols and the combination thereof; wherein the first temperature and the second temperature are between 50 °C and 70 °C independently. performing a hydration procedure S1 to form a hydrated polymer from a non-hydrated polymer; performing a first hydration process S2 for contacting the hydrated polymer with a first solution at a first temperature for a first treatment time, the first solution comprising at least one composition selected from a group consisting of polyvinyl alcohol, polyvinylpyrrolidone, polyethylene glycol and the combination thereof; and performing a second hydration process S3 for contacting the hydrated polymer with a second solution at a second temperature for a second treatment time, the second solution comprising at least one composition selected from a group consisting of polyvinyl alcohol, polyvinylpyrrolidone, polyethylene glycols and the combination thereof; wherein the first temperature and the second temperature are between 50 °C and 70 °C independently.
A method of operating a zinc-bromine battery, comprising adding 1-n-butyl-2-methyl-pyridinium bromide to the electrolyte of said battery, and charging or discharging said cell.
Motor vehicle door latch with a locking mechanism (1, 2) principally comprising a catch and a pawl, where - the pawl is equipped with an adjacency surface for the catch, which is lying adjacent thereon in the closed state of the locking mechanism (1, 2), - to the pawl is assigned a supporting element delaying opening of the locking mechanism (1, 2), so that the catch glides along the adjacency surface onto a specified degree of opening (angle a) until it is released by the pawl; characterized in that - the supporting element is arranged on a worm gear; - the worm gear additionally has or acts on a latch lever; - the latch lever and the supporting element in direct temporal sequence with the pawl. - the pawl is equipped with an adjacency surface for the catch, which is lying adjacent thereon in the closed state of the locking mechanism (1, 2), - to the pawl is assigned a supporting element delaying opening of the locking mechanism (1, 2), so that the catch glides along the adjacency surface onto a specified degree of opening (angle a) until it is released by the pawl; - the supporting element is arranged on a worm gear; - the worm gear additionally has or acts on a latch lever; - the latch lever and the supporting element in direct temporal sequence with the pawl.
A pressure sensitive adhesive composition comprising: a. 2 to 45 % by weight of a homopolymer or copolymer selected from the group consisting of polyisobutylene, ethylene vinyl acetate, ethylene vinyl acetate carbon monoxide, ethylene butyl acetate, ethylene vinyl alcohol, ethylene butyl acrylate, ethylene butyl acrylate carbon monoxide, polystyrene copolymers and mixtures thereof; b. 1 to 10 % by weight of shea butter; c. 15- 45 % by weight of a tackifier selected from the group consisting of natural rosin, modified rosin, glycerol ester of natural rosin, glycerol-ester of modified rosin, pentaerythritol ester of natural rosin, pentaerythritol ester of modified rosin, phenolic modified terpene resin, aliphatic petroleum hydrocarbon resin, cycloaliphatic resin and mixtures thereof. a. 2 to 45 % by weight of a homopolymer or copolymer selected from the group consisting of polyisobutylene, ethylene vinyl acetate, ethylene vinyl acetate carbon monoxide, ethylene butyl acetate, ethylene vinyl alcohol, ethylene butyl acrylate, ethylene butyl acrylate carbon monoxide, polystyrene copolymers and mixtures thereof; b. 1 to 10 % by weight of shea butter; c. 15- 45 % by weight of a tackifier selected from the group consisting of natural rosin, modified rosin, glycerol ester of natural rosin, glycerol-ester of modified rosin, pentaerythritol ester of natural rosin, pentaerythritol ester of modified rosin, phenolic modified terpene resin, aliphatic petroleum hydrocarbon resin, cycloaliphatic resin and mixtures thereof.
A method for continuously controlling the aerobic biological treatment of waste waters in a purifying plant, wherein said waste waters flowing continuously in an oxidation tank are subjected to aeration through the blowing of pressurized air, wherein the flow rate of air blown into the waste water is substantially continuously regulated by at least one first control level which substantially continuously modifies the set point of the concentration of dissolved oxygen (DOSP) in the waste waters, characterized in that said first control level uses fuzzy logic rules in order to determine each new set point of the concentration of dissolved oxygen (DOSP) as a function of at least the value of concentration of ammonia nitrogen detected in the waste waters and of at least a desired value for the concentration of ammonia nitrogen.