mhurhangee/ep-ind-claims huggingface dataset:
A glass composition comprising a base glass composition comprising: SiO 2 65 to 75 weight percent, Na 2 O 10 to 20 weight percent, CaO 5 to 15 weight percent, MgO 0 to 5 weight percent, Al 2 O 3 0 to 5 weight percent, K 2 O 0 to 5 weight percent, and BaO 0 to 1 weight percent, and a colorant and property modifying portion comprising: total iron up to 0.02 weight percent, CeO 2 0.05 to 1.5 weight percent, CoO 0 to 50 PPM, Se 0 to 15 PPM, Cr 2 O 3 0 to 500 PPM, CuO 0 to 0.5 weight percent, V 2 O 5 0 to 0.3 weight percent, TiO 2 0 to 1 weight percent, NiO 0 to 200 PPM, Er 2 O 3 0 to 3 weight percent, MnO 2 0 to 0.6 weight percent, and Nd 2 O 3 0 to 2 weight percent, wherein the glass composition has a redox ratio up to 0.55, characterized in that at least one of the following materials is present in the recited amount: Er 2 O 3 from 0.25 to 2 weight percent and Nd 2 O 3 from 0.25 to 1.5 weight percent.
Method of processing a request for connection of a wireless terminal to a first network by a gateway offering access to said first network according to at least a first and a second type of access, the first type of access being associated with an identifier common to several gateways, termed public identifier, the method being performed by the gateway and characterized in that the second type of access is specific to the gateway and the method comprises the following steps: • a step of receiving a connection request comprising the public identifier and an identifier of the wireless terminal, and not comprising a private identifier unique to the gateway, originating from the wireless terminal, • a step (E2a) of determining the existence of at least one right to the first type of access of the wireless terminal to said first network, on the basis of an information item obtained by consulting an authentication server, the method further comprising the following steps: • a step (E2b) of determining the existence of a right to the second type of access of the wireless terminal to said first network, on the basis of an information item relating to a privileged right of access to the gateway allocatable to the terminal, • a step of selecting a type of access from among the at least first and second types of access as a function of said at least one right determined, • a step (E4, E5) of triggering the connection of the wireless terminal to said first network according to the type of access selected. • a step of receiving a connection request comprising the public identifier and an identifier of the wireless terminal, and not comprising a private identifier unique to the gateway, originating from the wireless terminal, • a step (E2a) of determining the existence of at least one right to the first type of access of the wireless terminal to said first network, on the basis of an information item obtained by consulting an authentication server, • a step (E2b) of determining the existence of a right to the second type of access of the wireless terminal to said first network, on the basis of an information item relating to a privileged right of access to the gateway allocatable to the terminal, • a step of selecting a type of access from among the at least first and second types of access as a function of said at least one right determined, • a step (E4, E5) of triggering the connection of the wireless terminal to said first network according to the type of access selected.
Carbon-containing photocatalyst based on titanium dioxide, displaying light absorption in the range of λ > 400 nm, containing titanium dioxide particles with a specific surface area according to BET of 100 to 250 m 2 /g and having a carbon content in the range from 0.05 to 4% by weight, referred to TiO 2, where the carbon content is located only in a surface layer of the titanium dioxide particles.
A backup flow control system applicable to an anesthesia machine, wherein the backup flow control system is connected with an electronic flow control system of the anesthesia machine and configured to turn on a backup ventilation mode when the electronic flow control system of the anesthesia machine has failed, and the backup flow control system comprises: a first controller, a flow regulation valve, an accommodation cavity and a cover, wherein the accommodation cavity is a hollow structure having an opening, the cover is connected to the opening of the accommodation cavity to close the opening, and the flow regulation valve is disposed inside the accommodation cavity; and the first controller controls to turn on the backup ventilation mode and to open the cover, such that the opening opens to expose the flow regulation valve when the electronic flow control system is in a failure state; or controls to turn off the backup ventilation mode when the electronic flow control system is in a working state. wherein the backup flow control system is connected with an electronic flow control system of the anesthesia machine and configured to turn on a backup ventilation mode when the electronic flow control system of the anesthesia machine has failed, and the backup flow control system comprises: a first controller, a flow regulation valve, an accommodation cavity and a cover, wherein the accommodation cavity is a hollow structure having an opening, the cover is connected to the opening of the accommodation cavity to close the opening, and the flow regulation valve is disposed inside the accommodation cavity; and the first controller controls to turn on the backup ventilation mode and to open the cover, such that the opening opens to expose the flow regulation valve when the electronic flow control system is in a failure state; or controls to turn off the backup ventilation mode when the electronic flow control system is in a working state.
A field wireless relay device configured to be driven by a battery, the field wireless relay device comprising: an antenna changeover unit, a changeover control unit, a communication relay unit; the antenna changeover unit being arranged for connecting a first antenna via the communication relay unit to a second antenna in a router mode and for connecting the first antenna to the second antenna directly in a passive mode; the changeover control unit being configured to decide whether the router mode or the passive mode shall be performed by the antenna changeover unit on the basis of the signal intensity of a received signal to be relayed, and the communication relay unit comprising means for receiving, amplifying and transmitting a received signal of wireless communication performed between a transmitting station and a receiving station through the first and second antennas (4, 5) and a routing function of designating a communication path of the wireless communication. an antenna changeover unit, a changeover control unit, a communication relay unit; the antenna changeover unit being arranged for connecting a first antenna via the communication relay unit to a second antenna in a router mode and for connecting the first antenna to the second antenna directly in a passive mode; the changeover control unit being configured to decide whether the router mode or the passive mode shall be performed by the antenna changeover unit on the basis of the signal intensity of a received signal to be relayed, and the communication relay unit comprising means for receiving, amplifying and transmitting a received signal of wireless communication performed between a transmitting station and a receiving station through the first and second antennas (4, 5) and a routing function of designating a communication path of the wireless communication.
A valve actuator, comprising: at least one rotatable member; and a magnetic angle sensor in communication with the at least one rotatable member, wherein the magnetic angle sensor comprises: a single magnet having an axis of rotation substantially about a midpoint of the single magnet and in axial alignment with an axis of rotation of the at least one rotatable member; and a sensor circuit holding two distinct arrays of Hall sensors; wherein the Hall sensors are radially arrayed, the sensor circuit is in a plane substantially perpendicular to the axis of rotation of the single magnet, the sensor circuit is in alignment with the axis of rotation of the single magnet, and the sensor circuit is configured to be mounted on a printed circuit board. at least one rotatable member; and a magnetic angle sensor in communication with the at least one rotatable member, wherein the magnetic angle sensor comprises: a single magnet having an axis of rotation substantially about a midpoint of the single magnet and in axial alignment with an axis of rotation of the at least one rotatable member; and a sensor circuit holding two distinct arrays of Hall sensors; wherein the Hall sensors are radially arrayed, the sensor circuit is in a plane substantially perpendicular to the axis of rotation of the single magnet, the sensor circuit is in alignment with the axis of rotation of the single magnet, and the sensor circuit is configured to be mounted on a printed circuit board. wherein the magnetic angle sensor comprises: a single magnet having an axis of rotation substantially about a midpoint of the single magnet and in axial alignment with an axis of rotation of the at least one rotatable member; and a sensor circuit holding two distinct arrays of Hall sensors; wherein the Hall sensors are radially arrayed, the sensor circuit is in a plane substantially perpendicular to the axis of rotation of the single magnet, the sensor circuit is in alignment with the axis of rotation of the single magnet, and the sensor circuit is configured to be mounted on a printed circuit board. a single magnet having an axis of rotation substantially about a midpoint of the single magnet and in axial alignment with an axis of rotation of the at least one rotatable member; and a sensor circuit holding two distinct arrays of Hall sensors; wherein the Hall sensors are radially arrayed, the sensor circuit is in a plane substantially perpendicular to the axis of rotation of the single magnet, the sensor circuit is in alignment with the axis of rotation of the single magnet, and the sensor circuit is configured to be mounted on a printed circuit board.
A method of operating a wireless communication device (101,400) comprising a device application (130, 434), a device operating system (120, 432), and a transceiver system (140, 410) to facilitate dedicated-transceiver communications characterized by: in the device application (130, 434), transferring a dedicated-transceiver request for delivery to the device operating system (120, 432); in the device operating system (120, 432), receiving the dedicated-transceiver request, and in response, transferring a dedicated-transceiver instruction to the transceiver system (140, 410); in the transceiver system (140, 410), receiving the dedicated-transceiver instruction, and in response, transferring dedicated-transceiver information for delivery to the device operating system (120, 432); in the device operating system, receiving the dedicated-transceiver information, and in response, transferring a dedicated-transceiver response for delivery to the device application (130, 434); in the device application (130, 434), receiving the dedicated-transceiver response, and in response, transferring a dedicated-transceiver initiation to the transceiver system (140, 410); in the transceiver system (140, 410), receiving the dedicated-transceiver initiation, and in response, transferring a dedicated-transceiver acceptance for delivery to the device application (130,434); and in the device application, receiving the dedicated-transceiver acceptance, and in response, transferring application communications to the transceiver system (140, 410) without utilizing the device operating system (120, 432). in the device application (130, 434), transferring a dedicated-transceiver request for delivery to the device operating system (120, 432); in the device operating system (120, 432), receiving the dedicated-transceiver request, and in response, transferring a dedicated-transceiver instruction to the transceiver system (140, 410); in the transceiver system (140, 410), receiving the dedicated-transceiver instruction, and in response, transferring dedicated-transceiver information for delivery to the device operating system (120, 432); in the device operating system, receiving the dedicated-transceiver information, and in response, transferring a dedicated-transceiver response for delivery to the device application (130, 434); in the device application (130, 434), receiving the dedicated-transceiver response, and in response, transferring a dedicated-transceiver initiation to the transceiver system (140, 410); in the transceiver system (140, 410), receiving the dedicated-transceiver initiation, and in response, transferring a dedicated-transceiver acceptance for delivery to the device application (130,434); and in the device application, receiving the dedicated-transceiver acceptance, and in response, transferring application communications to the transceiver system (140, 410) without utilizing the device operating system (120, 432).
A method of cell culture comprising (i) providing mammalian cells in a cell culture medium to start a cell culture process, wherein the mammalian cells express a recombinant protein, and, (ii) maintaining at least one metabolite selected from 3-(4-hydroxyphenyl)lactate, 4-hydroxyphenylpyruvate, phenyllactate, indolelactate, indolecarboxylic acid, homocysteine, 2-hydroxybutyric acid, isovalerate and formate below a concentration C1 in the cell culture medium, wherein C1 is 3mM, wherein maintaining at least one metabolite below a concentration C1 in the cell culture medium comprises the step of measuring the concentration of said at least one metabolite, and, when the measured concentration is above a predefined value, wherein the predefined value is equal to C1 or is 50, 55, 60, 65, 70, 75, 80, 85, 90 or 95% of C1, the concentration of precursor of said at least one metabolite in the cell culture medium is decreased by reducing the amount of precursor provided to the mammalian cells, wherein the cell culture is a fed batch culture. (i) providing mammalian cells in a cell culture medium to start a cell culture process, wherein the mammalian cells express a recombinant protein, and, (ii) maintaining at least one metabolite selected from 3-(4-hydroxyphenyl)lactate, 4-hydroxyphenylpyruvate, phenyllactate, indolelactate, indolecarboxylic acid, homocysteine, 2-hydroxybutyric acid, isovalerate and formate below a concentration C1 in the cell culture medium, wherein C1 is 3mM, wherein maintaining at least one metabolite below a concentration C1 in the cell culture medium comprises the step of measuring the concentration of said at least one metabolite, and, when the measured concentration is above a predefined value, wherein the predefined value is equal to C1 or is 50, 55, 60, 65, 70, 75, 80, 85, 90 or 95% of C1, the concentration of precursor of said at least one metabolite in the cell culture medium is decreased by reducing the amount of precursor provided to the mammalian cells,
A composition comprising a mussel adhesive protein as an active ingredient for use in the treatment of inflammation of the mucosa selected from oral mucositis, rhinitis, pharyngitis, laryngitis, tracheitis, gastritis and enterocolitis, wherein the MAP is selected from mefp-1, mefp-2, mefp-3, mefp-4, mefp-5, mefp-6.
Method for reducing the phorbol ester content of a jatropha seed meal comprising the following method steps: 400) addition of oil that is free of phorbol esters or at least has a reduced phorbol ester content, in particular vegetable oil, to the meal; and 500) separation of extraction oil from the meal fraction from step 400), in particular in a centrifugal field, in order to obtain the meal fraction having a reduced phorbol ester content. 400) addition of oil that is free of phorbol esters or at least has a reduced phorbol ester content, in particular vegetable oil, to the meal; and 500) separation of extraction oil from the meal fraction from step 400), in particular in a centrifugal field, in order to obtain the meal fraction having a reduced phorbol ester content.
A one-piece ceramic acetabular cup (10; 110; 210; 310; 410) devoid of a separate liner and comprising: a part-spherical inner articulating surface (12; 112; 212; 312; 412) for non-captively receiving a femoral head; an outer surface (14; 114; 214; 314; 414) for enabling direct to bone fixation; an inner radius at or adjacent to a rim (22; 122; 222; 322; 422) of the cup (10; 110; 210; 310; 410) and extending to or adjacent to a surface edge of the inner articulating surface (12; 112; 212; 312; 412) to prevent or reduce undesirable effects of impingement of an associated femoral head and/or neck; an inner radius of the inner articulating surface (12; 112; 212; 312; 412) defining an active arc over which an in use femoral head can articulate; an uppermost portion of the rim (22; 122; 222; 322; 422) defining an offset datum plane; an offset between an equatorial centre of the inner articulating surface (12; 112; 212; 312; 412) and the offset datum plane being in a range of around 1 mm towards a pole of the inner articulating surface (12; 112; 212; 312; 412) and around 3.5 mm away from the said pole; the active arc extending in a range from around 150 degrees to less than 180 degrees; and a distance between the inner articulating surface (12; 112; 212; 312; 412) and outer surface (14; 114; 214; 314; 414) on a straight line from the said equatorial centre and passing through the surface edge being equal to or less than 4 mm. a part-spherical inner articulating surface (12; 112; 212; 312; 412) for non-captively receiving a femoral head; an outer surface (14; 114; 214; 314; 414) for enabling direct to bone fixation; an inner radius at or adjacent to a rim (22; 122; 222; 322; 422) of the cup (10; 110; 210; 310; 410) and extending to or adjacent to a surface edge of the inner articulating surface (12; 112; 212; 312; 412) to prevent or reduce undesirable effects of impingement of an associated femoral head and/or neck; an inner radius of the inner articulating surface (12; 112; 212; 312; 412) defining an active arc over which an in use femoral head can articulate; an uppermost portion of the rim (22; 122; 222; 322; 422) defining an offset datum plane; an offset between an equatorial centre of the inner articulating surface (12; 112; 212; 312; 412) and the offset datum plane being in a range of around 1 mm towards a pole of the inner articulating surface (12; 112; 212; 312; 412) and around 3.5 mm away from the said pole; the active arc extending in a range from around 150 degrees to less than 180 degrees; and a distance between the inner articulating surface (12; 112; 212; 312; 412) and outer surface (14; 114; 214; 314; 414) on a straight line from the said equatorial centre and passing through the surface edge being equal to or less than 4 mm.
A luminaire comprising: - a plurality of light sources and a plurality of optical elements arranged in optical relationship to each other, - the light sources being arranged in a first array and a second array, - the optical elements being arranged in a first section and a second section, - the first array and the first section forming a first group, and - the second array and the second section forming a second group, - the optical elements of each group are arranged to have different beam shaping characteristics, - the first light source array and second light source array are arranged to be individually addressable, and characterized in a light guide with indentations allowing for positioning the light sources and the optical elements, the indentations having a first facet arranged to couple light emitted by the light sources into the light guide, a second facet arranged to couple light out of the light guide and side facets arranged to reflect incident light rays - a plurality of light sources and a plurality of optical elements arranged in optical relationship to each other, - the light sources being arranged in a first array and a second array, - the optical elements being arranged in a first section and a second section, - the first array and the first section forming a first group, and - the second array and the second section forming a second group, - the optical elements of each group are arranged to have different beam shaping characteristics, - the first light source array and second light source array are arranged to be individually addressable, and a light guide with indentations allowing for positioning the light sources and the optical elements, the indentations having a first facet arranged to couple light emitted by the light sources into the light guide, a second facet arranged to couple light out of the light guide and side facets arranged to reflect incident light rays
An electromechanical transducer comprising a cell structure (1; 21) including: a substrate (11; 31); an insulating film (12; 32); a first electrode (13; 33); a silicon oxide film (14; 34); a vibration film including a first silicon nitride film (15; 36) and a second electrode (4; 24); and a voltage-applying unit (17; 40) for applying a voltage between the first electrode (13; 33) and the second electrode (4; 24), wherein the insulating film (12; 32), the first electrode (13; 33), the silicon oxide film (14; 34), the first silicon nitride film (15; 36) and the second electrode (4; 24) are arranged in this order from the substrate (11; 31), a space (3; 23) is formed between the silicon oxide film (14; 34) and the first silicon nitride film (15; 36), the silicon oxide film (14; 34) is contacted with the first electrode (13; 33), the first silicon nitride film (15; 36) is contacted with the second electrode (4; 24), and the voltage-applying unit (17; 40) applies a voltage so that the potential of the first electrode (13; 33) is lower than the potential of the second electrode (4; 24). a substrate (11; 31); an insulating film (12; 32); a first electrode (13; 33); a silicon oxide film (14; 34); a vibration film including a first silicon nitride film (15; 36) and a second electrode (4; 24); and a voltage-applying unit (17; 40) for applying a voltage between the first electrode (13; 33) and the second electrode (4; 24), wherein the insulating film (12; 32), the first electrode (13; 33), the silicon oxide film (14; 34), the first silicon nitride film (15; 36) and the second electrode (4; 24) are arranged in this order from the substrate (11; 31), a space (3; 23) is formed between the silicon oxide film (14; 34) and the first silicon nitride film (15; 36), the silicon oxide film (14; 34) is contacted with the first electrode (13; 33), the first silicon nitride film (15; 36) is contacted with the second electrode (4; 24), and the voltage-applying unit (17; 40) applies a voltage so that the potential of the first electrode (13; 33) is lower than the potential of the second electrode (4; 24).
Heat pad having two or more heat cells, wherein the heat cells have a spiral shape and wherein the heat cells include a heat-generating substance mixture, characterized in that the heat-generating material mixture comprises, as well as other components, at least iron powder and carbon powder, wherein the heat pad takes the form of a triangle having concave recesses in the sides and which is rounded off at the corners and wherein the heat pad has at least four heat cells in spiral form, or in that the heat pad has a rectangular elongated form and wherein the heat pad has at least two cells in spiral form arranged successively in longitudinal direction and wherein the heat cells in spiral form are configured as Fermat spirals bonded to one another.