mhurhangee/ep-ind-claims huggingface dataset:
A production method for a retardation film, comprising: a holding step in which left and right end portions of a film are held with left and right variable pitch-type clips configured to have clip pitches changing in a longitudinal direction, respectively; a preheating step in which the film is preheated; a first oblique stretching step in which the clip pitch of the clips is increased on one side and the clip pitch of the clips is reduced on another side, while extending a distance between the left and right clips, to obliquely stretch the film; a second oblique stretching step in which the clip pitch of the clips is maintained or reduced on the one side and the clip pitch of the clips is increased on the another side so that the clip pitches of the left and right clips are equal to each other, while extending the distance between the left and right clips, to obliquely stretch the film; and a releasing step in which the film is released from being held with the clips. a holding step in which left and right end portions of a film are held with left and right variable pitch-type clips configured to have clip pitches changing in a longitudinal direction, respectively; a preheating step in which the film is preheated; a first oblique stretching step in which the clip pitch of the clips is increased on one side and the clip pitch of the clips is reduced on another side, while extending a distance between the left and right clips, to obliquely stretch the film; a second oblique stretching step in which the clip pitch of the clips is maintained or reduced on the one side and the clip pitch of the clips is increased on the another side so that the clip pitches of the left and right clips are equal to each other, while extending the distance between the left and right clips, to obliquely stretch the film; and a releasing step in which the film is released from being held with the clips.
A cooling arrangement (11, 12R, 12S) adapted for use with a direct-drive wind turbine with an outside rotor carrying a plurality of magnets, which cooling arrangement comprises a number of exterior cooling elements (11, 12R, 12S) arranged about an exterior of the outside rotor, wherein a cooling element (11, 12R, 12S) is adapted to guide a cooling airflow over the outside rotor and to transfer heat from the magnets to the cooling airflow, characterized in that a first exterior cooling element (11, 12R, 12S) comprises a fin mounted directly to an outer surface of the rotor and a second exterior cooling element (11, 12R, 12S) comprises a shroud (12R, 12S) arranged to direct the cooling airflow over the outer surface of the rotor, wherein the shroud (12R, 12S) comprises a rotating shroud portion mounted to the outside rotor.
Antenna, the antenna being an array antenna,the antenna including an antenna top surface and an antenna bottom surface, wherein the antenna includes a waveguide channel structure with a plurality of waveguide end branches, wherein the waveguide openings are arranged in a pattern of rows and columns, and each waveguide end branch opens into an associatec waveguide opening in the antenna top surface in a one-to-one relation, wherein a plurality of recesses (101, 101b) extends from the antenna top surface towards the antenna bottom surface, the plurality of recesses (101, 101b) being arranged such that a recess (101, 101b) is present between pairs of neighbouring waveguide openings of the same row and/or column, wherein the waveguide channel structure opens into a plurality of waveguide terminal openings in the antenna bottom surface and the waveguide channel structure extends between the antenna top surface and the antenna bottom surface, the waveguide channel structure coupling the waveguide openings and the waveguide terminal openings, wherein the number of waveguide terminal openings corresponds to the number of rows and wherein the waveguide channel structure couples each waveguide terminal opening with all waveguide openings of a corresponding row and independent from the other rows. each waveguide end branch opens into an associatec waveguide opening in the antenna top surface in a one-to-one relation, wherein a plurality of recesses (101, 101b) extends from the antenna top surface towards the antenna bottom surface, the plurality of recesses (101, 101b) being arranged such that a recess (101, 101b) is present between pairs of neighbouring waveguide openings of the same row and/or column, wherein the waveguide channel structure opens into a plurality of waveguide terminal openings in the antenna bottom surface and the waveguide channel structure extends between the antenna top surface and the antenna bottom surface, the waveguide channel structure coupling the waveguide openings and the waveguide terminal openings, wherein the number of waveguide terminal openings corresponds to the number of rows and wherein the waveguide channel structure couples each waveguide terminal opening with all waveguide openings of a corresponding row and independent from the other rows.
A process of liquid phase nitration of aromatic compounds using a solid acid catalyst, said process comprising the steps of: (i) refluxing a solution of an aromatic compound and the solid acid catalyst in an organic solvent under nitrogen atmosphere at a temperature in the range of 80-110°C for period of 1 to 10 hours followed by; (ii) drop wise addition of 30-98% HNO 3 with removal of water formed during the reaction azeotropically; wherein said solid acid catalyst is tungsten oxide (WO 3) supported on mesoporous silica having BET surface area in the range of 367 to 397 m 2 /g and the boiling point of said organic solvent is in the range of 80-110°C and the organic solvent is selected from acetonitrile, 1,2 dichloroethane or dioxane. (i) refluxing a solution of an aromatic compound and the solid acid catalyst in an organic solvent under nitrogen atmosphere at a temperature in the range of 80-110°C for period of 1 to 10 hours followed by; (ii) drop wise addition of 30-98% HNO 3 with removal of water formed during the reaction azeotropically;
A method for controlling video output, comprising: receiving, by a security controller, a configuration request sent by a decryption module located at a software layer in a trusted execution environment, TEE, wherein the configuration request comprises a high-bandwidth digital content protection, HDCP, requirement of a video; detecting in real time, by the security controller, whether an output resolution configured in a video display controller and a HDCP encryption status configured in an HDMI satisfy the HDCP requirement of the video, the method being characterized by, the security controller is located at a hardware layer in the TEE; and when the configured output resolution or the configured HDCP encryption status does not satisfy the HDCP requirement of the video, sending, by the security controller, an instruction to the video display controller, to instruct the video display controller to stop output of the video. receiving, by a security controller, a configuration request sent by a decryption module located at a software layer in a trusted execution environment, TEE, wherein the configuration request comprises a high-bandwidth digital content protection, HDCP, requirement of a video; detecting in real time, by the security controller, whether an output resolution configured in a video display controller and a HDCP encryption status configured in an HDMI satisfy the HDCP requirement of the video, the method being characterized by, the security controller is located at a hardware layer in the TEE; and when the configured output resolution or the configured HDCP encryption status does not satisfy the HDCP requirement of the video, sending, by the security controller, an instruction to the video display controller, to instruct the video display controller to stop output of the video.
A method for wireless communication by a user equipment "UE" comprising at least a first and a second transmit chain, comprising: identifying one or more subframes in which the second transmit chain is not scheduled for uplink "UL" transmissions using a subscription; determining the first transmit chain is scheduled for UL transmissions using the subscription during at least a portion of the identified subframes; and performing envelope tracking "ET" for a scheduled uplink transmission using the subscription using, at least a portion of the first and second transmit chains during the determined at least a portion of the identified subframes, characterized in that the identified one or more subframes occur when the UE is operating in at least one of a connected discontinuous reception "CDRx" mode or a time division duplex "TDD" mode. identifying one or more subframes in which the second transmit chain is not scheduled for uplink "UL" transmissions using a subscription; determining the first transmit chain is scheduled for UL transmissions using the subscription during at least a portion of the identified subframes; and performing envelope tracking "ET" for a scheduled uplink transmission using the subscription using, at least a portion of the first and second transmit chains during the determined at least a portion of the identified subframes, characterized in that the identified one or more subframes occur when the UE is operating in at least one of a connected discontinuous reception "CDRx" mode or a time division duplex "TDD" mode.
A mass spectrometer comprising: a main magnet including spaced-apart polepieces (112, 114) which define a gap, the main magnet producing a main magnetic field in the gap; an ion source to generate ions and to accelerate the ions into the main magnetic field in the gap, the ion source located outside the gap; and an ion detector to detect a selected species of the ions generated by the ion source and deflected by the main magnetic field, the ion detector located in the gap at a natural focus point of the selected species of the ions; wherein the ion source comprises: an extractor electrode that defines an elongated extractor slit, a reference electrode that defines an elongated reference slit, at least one filament (172, 174) positioned adjacent to the extractor slit to generate ionizing electrons, a repeller electrode spaced from the extractor electrode, wherein the ionizing electrons generated by the filament (172, 174) are accelerated from the filament (172, 174) to an ionization region near the extractor slit for ionization of a gas, and ions generated in the ionization region are extracted through the extractor slit and are accelerated through the reference slit into the gap between the polepieces (112, 114) of the main magnet, and a source magnet including spaced-apart polepieces (192, 194) that produce a source magnetic field to constrain trajectories of the ionizing electrons; and wherein the source magnetic field in the region between the polepieces (192, 194) of the source magnet is deformed by the main magnetic field of the main magnet. a main magnet including spaced-apart polepieces (112, 114) which define a gap, the main magnet producing a main magnetic field in the gap; an ion source to generate ions and to accelerate the ions into the main magnetic field in the gap, the ion source located outside the gap; and an ion detector to detect a selected species of the ions generated by the ion source and deflected by the main magnetic field, the ion detector located in the gap at a natural focus point of the selected species of the ions; an extractor electrode that defines an elongated extractor slit, a reference electrode that defines an elongated reference slit, at least one filament (172, 174) positioned adjacent to the extractor slit to generate ionizing electrons, a repeller electrode spaced from the extractor electrode, wherein the ionizing electrons generated by the filament (172, 174) are accelerated from the filament (172, 174) to an ionization region near the extractor slit for ionization of a gas, and ions generated in the ionization region are extracted through the extractor slit and are accelerated through the reference slit into the gap between the polepieces (112, 114) of the main magnet, and a source magnet including spaced-apart polepieces (192, 194) that produce a source magnetic field to constrain trajectories of the ionizing electrons; and
A method for determining the weight of a demountable platform, comprising: - using a hooklift to lift the demountable platform from the ground onto a vehicle, - measuring a physical quantity that varies as a function of the movement of the hooklift, and - determining, at predetermined intervals of the physical quantity, values of a force acting on a main cylinder of the hooklift, characterised in that the method comprises: - calculating the weight of the demountable platform based on a discrete integral of the determined values of the force over the physical quantity. - using a hooklift to lift the demountable platform from the ground onto a vehicle, - measuring a physical quantity that varies as a function of the movement of the hooklift, and - determining, at predetermined intervals of the physical quantity, values of a force acting on a main cylinder of the hooklift, - calculating the weight of the demountable platform based on a discrete integral of the determined values of the force over the physical quantity.
A wireless night light system for turning on a light remote from an individual in a bed, comprising: a light unit having a wireless receiver, a power source, an electrical connection for transferring power from the power source to the light, and an electronically-operable switch; a mat for placement on a floor adjacent a bed, the mat having an LC circuit having an oscillation frequency dependent on the distance between first and second layers, and a thickness which corresponds to an uncompressed oscillation frequency value; a microcomputer electronically connected to and adapted to monitor the oscillation frequency of the LC circuit, said microcomputer programmed to compare the oscillation frequency to the uncompressed oscillation frequency value, and to determine a weight applied to the mat from the oscillation frequency; a first wireless transmitter for transmission of a first signal adapted for reception by the wireless receiver of the light unit, the first wireless transmitter controlled by the microcomputer; a second wireless transmitter for transmission of a second signal adapted for reception by a remote receiver, the second signal including information including the value of the weight, the second wireless transmitter controlled by the microcomputer; wherein the microcomputer instructs the first and second wireless transmitters to transmit the first and second signals on determining that the oscillation frequency differs from the uncompressed oscillation frequency value by a predetermined amount, and wherein on receiving the first signal the switch of the light unit allows power to the light, lighting the light. a light unit having a wireless receiver, a power source, an electrical connection for transferring power from the power source to the light, and an electronically-operable switch; a mat for placement on a floor adjacent a bed, the mat having an LC circuit having an oscillation frequency dependent on the distance between first and second layers, and a thickness which corresponds to an uncompressed oscillation frequency value; a microcomputer electronically connected to and adapted to monitor the oscillation frequency of the LC circuit, said microcomputer programmed to compare the oscillation frequency to the uncompressed oscillation frequency value, and to determine a weight applied to the mat from the oscillation frequency; a first wireless transmitter for transmission of a first signal adapted for reception by the wireless receiver of the light unit, the first wireless transmitter controlled by the microcomputer; a second wireless transmitter for transmission of a second signal adapted for reception by a remote receiver, the second signal including information including the value of the weight, the second wireless transmitter controlled by the microcomputer; wherein the microcomputer instructs the first and second wireless transmitters to transmit the first and second signals on determining that the oscillation frequency differs from the uncompressed oscillation frequency value by a predetermined amount, and wherein on receiving the first signal the switch of the light unit allows power to the light, lighting the light.
Process for the manufacture of 2,3,3,3-tetrafluoro-1-propene comprising at least one stage of gasphase fluorination with HF of at least one compound chosen from halopropanes of formula CX 3 CHClCH 2 X, and halopropenes of formulae CX 3 CCl=CH 2, CClX 2 CCl=CH 2 and CX 2 =CC1CH 2 X, with X independently representing a fluorine or chlorine atom, in the presence of molecular oxygen and of a fluorination catalyst held in suspension in a fluidized bed reactor; the fluorination stage being carried out under a pressure of greater than 1.5 bar absolute, the HF:compounds to be fluorinated molar ratio is between 50:1 and 1:1, the oxygen: compounds to be fluorinated molar ratio is between 0.01 and 1, the contact time between the gas mixture comprising the reactants and the catalyst, defined in the present invention according to the formula below: ct s. g / cm 3 = W / F × 273 / 273 + T × 101325 + P / 101325 in which W represents the amount of catalyst in the fluidized bed in grams, F represents the velocity of the gas flow under standard temperature and pressure conditions, T represents the reaction temperature in °C and P represents the pressure in pascals and is between 1 and 50 s and the linear velocity of the gas flow comprising the reactants which is introduced into the fluidized bed reactor, defined in the present invention by the formula below: Lv cm / sec = F × 273 + T / 273 × 101325 / 101325 + P × S in which F, T and P are defined as above and S is the area of the internal cross section of the reactor (cm 2), is between 0.5 and 200 cm/s.
Arrangement comprising an electric machine, a gearbox, a shaft attached to a rotor of the electric machine and to a gear of the gearbox, a first bearing supporting the shaft between the rotor and the gear of the gearbox and a second bearing supporting an end portion of the shaft, wherein the first bearing is a floating bearing and the second bearing is a fixed bearing, characterized in that the arrangement comprises a third bearing being arranged at an opposite end portion of the shaft, wherein the second bearing and the third bearing are arranged in an X-arrangement or in an O-arrangement.
An apparatus for providing service information, the apparatus comprising: a receiver configured to receive a service information query from a user equipment for a service; a service information processor (604, 606, 608) configured to: transmit a service discovery request for the service; receive a service discovery response from a serving device providing the service, the service discovery response including a publication rule identifying an authentication status and service information describing the service to transmit to a requesting user equipment having the authentication status; and generate the service information based at least in part on the service discovery response and an authentication status of the user equipment; and a transmitter configured to transmit a service information response including the generated service information. a receiver configured to receive a service information query from a user equipment for a service; a service information processor (604, 606, 608) configured to: transmit a service discovery request for the service; receive a service discovery response from a serving device providing the service, the service discovery response including a publication rule identifying an authentication status and service information describing the service to transmit to a requesting user equipment having the authentication status; and generate the service information based at least in part on the service discovery response and an authentication status of the user equipment; and a transmitter configured to transmit a service information response including the generated service information. transmit a service discovery request for the service; receive a service discovery response from a serving device providing the service, the service discovery response including a publication rule identifying an authentication status and service information describing the service to transmit to a requesting user equipment having the authentication status; and generate the service information based at least in part on the service discovery response and an authentication status of the user equipment; and a transmitter configured to transmit a service information response including the generated service information.
A tire forming-mold, comprising: a mold that includes a surface-forming section that contacts a surface of a green tire and embosses a tire outer face; a recess shaped protrusion-forming recess for forming a protrusion on the tire outer face, the protrusion-forming recess being provided at the mold; a non-through-hole vent that has one end portion in communication with the protrusion-forming recess and another end portion terminating inside the mold; and a through-hole vent that is provided at the mold, that is set with a larger capacity than of the non-through-hole vent, and has one end in communication with the protrusion-forming recess and another end in communication with a mold outer portion. a mold that includes a surface-forming section that contacts a surface of a green tire and embosses a tire outer face; a recess shaped protrusion-forming recess for forming a protrusion on the tire outer face, the protrusion-forming recess being provided at the mold; a non-through-hole vent that has one end portion in communication with the protrusion-forming recess and another end portion terminating inside the mold; and a through-hole vent that is provided at the mold, that is set with a larger capacity than of the non-through-hole vent, and has one end in communication with the protrusion-forming recess and another end in communication with a mold outer portion.
A polyether ionophore, or a therapeutically acceptable salt thereof and a chelating agent, for use in the treatment or prevention of a topical bacterial microbial infection in a subject, wherein the ionophore and chelating agent are applied topically, the ionophore is selected from the group consisting of narasin, salinomycin, lasalocid, monensin, semduramicin, maduramicin and laidlomycin, and the chelating agent is selected from the group consisting of citric acid, EDTA or maltol.