mhurhangee/ep-ind-claims huggingface dataset:
A method of filtering a liquid raw material in a process stream to yield product, comprising providing a filtration system comprising: a network defining a fluid process stream, said network having one or more inputs for introducing fluid into said fluid process stream, and one or more outlets for discharging fluid from said fluid process stream; a first sterilizing-grade process filter (F-1) within said fluid process stream; a second sterilizing-grade process filter (F-2) within said fluid process stream, said second sterilizing-grade process filter (F-2) being positioned in series with said first sterilizing-grade process filter (F-1) and downstream thereof; wherein at least one of said first sterilizing-grade process filter (F-1) and said second sterilizing-grade process filter (F-2) is a barrier filter comprising, within a common enclosure, a plurality of hydrophilic filter membranes and a plurality of hydrophobic filter membranes, and wherein said hydrophilic filter membranes are interspersed between said hydrophobic filter membranes, the common enclosure having a fluid inlet, a fluid outlet, and a fluid path therebetween, all filter membranes of the barrier filter being located within the fluid path; and filtering the said liquid raw material with said first sterilizing-grade process filter (F-1) and said second sterilizing-grade process filter (F-2) to yield said product. a network defining a fluid process stream, said network having one or more inputs for introducing fluid into said fluid process stream, and one or more outlets for discharging fluid from said fluid process stream; a first sterilizing-grade process filter (F-1) within said fluid process stream; a second sterilizing-grade process filter (F-2) within said fluid process stream, said second sterilizing-grade process filter (F-2) being positioned in series with said first sterilizing-grade process filter (F-1) and downstream thereof; wherein at least one of said first sterilizing-grade process filter (F-1) and said second sterilizing-grade process filter (F-2) is a barrier filter comprising, within a common enclosure, a plurality of hydrophilic filter membranes and a plurality of hydrophobic filter membranes, and wherein said hydrophilic filter membranes are interspersed between said hydrophobic filter membranes, the common enclosure having a fluid inlet, a fluid outlet, and a fluid path therebetween, all filter membranes of the barrier filter being located within the fluid path; and filtering the said liquid raw material with said first sterilizing-grade process filter (F-1) and said second sterilizing-grade process filter (F-2) to yield said product.
An antibody or antibody fragment that specifically binds to a zB7R1 polypeptide, wherein said zB7R1 polypeptide consists of: (i) a sequence of amino acid residues having at least 95% sequence identity with amino acid residues 16-140 of SEQ ID NO:2; (ii) a sequence of amino acid residues having at least 95% sequence identity with amino acid residues 27-208 of SEQ ID NO:6; or (ii) an amino acid sequence selected from the group consisting of: SEQ ID NO:3 and SEQ ID NO:7; wherein said antibody stimulates zB7R1-mediated signaling. (i) a sequence of amino acid residues having at least 95% sequence identity with amino acid residues 16-140 of SEQ ID NO:2; (ii) a sequence of amino acid residues having at least 95% sequence identity with amino acid residues 27-208 of SEQ ID NO:6; or (ii) an amino acid sequence selected from the group consisting of: SEQ ID NO:3 and SEQ ID NO:7;
A wind turbine system, comprising: a wind driven doubly fed induction generator having a rotor and a stator, the stator providing AC power to a stator bus, a power converter coupled to the rotor of said doubly fed induction generator, said power converter providing an output to a line bus; a transformer coupled to the stator bus; an auxiliary power feed coupled to the at least one power converter; at least one reactive element coupled between the auxiliary power feed and the stator bus; and a control system (140,142) configured to control said power converter, said control system (140,142) being configured to regulate the voltage of said auxiliary power feed by outputting reactive power from the power converter to the-at least one reactive element characterized in that the voltage of the auxiliary power feed is regulated to operate within a narrower operating range when compared to the operating range of the wind turbine system. a wind driven doubly fed induction generator having a rotor and a stator, the stator providing AC power to a stator bus, a power converter coupled to the rotor of said doubly fed induction generator, said power converter providing an output to a line bus; a transformer coupled to the stator bus; an auxiliary power feed coupled to the at least one power converter; at least one reactive element coupled between the auxiliary power feed and the stator bus; and a control system (140,142) configured to control said power converter, said control system (140,142) being configured to regulate the voltage of said auxiliary power feed by outputting reactive power from the power converter to the-at least one reactive element characterized in that the voltage of the auxiliary power feed is regulated to operate within a narrower operating range when compared to the operating range of the wind turbine system.
A wireless charging method comprising: providing a first group of mobile devices (210, 220) from a plurality of mobile devices (210, 220, 230, 240) located in a charging region, wherein resonance frequencies (f1, f2) of the mobile devices in the first group are in a first frequency band; providing a second group of mobile devices (230, 240) from the plurality of mobile devices (210, 220, 230, 240) located in the charging region, wherein resonance frequencies (f3, f4) of the mobile devices in the second group are in a second frequency band; and providing energy in the first frequency band to the first group and providing energy in the second frequency band to the second group for wirelessly charging the first and second groups using time division, wherein the resonance frequencies (f1, f2, f3, f4) are frequencies at which the respective ones of the plurality of mobile devices receive energy via a magnetic resonance inducement method, characterised in that the second frequency band does not cover the resonance frequencies (f1, f2) of the mobile devices in the first group and in that the first group of mobile devices (210, 220) is charged during a plurality of first time periods (t1, t3, t5) and the second group of mobile devices (230, 240) is charged during a plurality of second time periods (t2, t4, t6). providing a first group of mobile devices (210, 220) from a plurality of mobile devices (210, 220, 230, 240) located in a charging region, wherein resonance frequencies (f1, f2) of the mobile devices in the first group are in a first frequency band; providing a second group of mobile devices (230, 240) from the plurality of mobile devices (210, 220, 230, 240) located in the charging region, wherein resonance frequencies (f3, f4) of the mobile devices in the second group are in a second frequency band; and providing energy in the first frequency band to the first group and providing energy in the second frequency band to the second group for wirelessly charging the first and second groups using time division, wherein the resonance frequencies (f1, f2, f3, f4) are frequencies at which the respective ones of the plurality of mobile devices receive energy via a magnetic resonance inducement method, characterised in that the second frequency band does not cover the resonance frequencies (f1, f2) of the mobile devices in the first group and in that the first group of mobile devices (210, 220) is charged during a plurality of first time periods (t1, t3, t5) and the second group of mobile devices (230, 240) is charged during a plurality of second time periods (t2, t4, t6).
A sachet of aerosol-forming substrate for use in an electrically heated aerosol-generating device, the sachet comprising: a porous container; and an aerosol-forming substrate, the aerosol-forming substrate within the container having a porosity of between about 0.2 and about 0.35, the porosity being the volume fraction of void space within the container. a porous container; and an aerosol-forming substrate, the aerosol-forming substrate within the container having a porosity of between about 0.2 and about 0.35, the porosity being the volume fraction of void space within the container.
Ammoximation reactor for cyclohexanone oxime production, comprising: (a) a reactor vessel provided with a stirrer; (b) an internal filtering system; (c) an internal liquid ammonia evaporation coil installed at the bottom of the reactor vessel; (d) an internal gaseous ammonia toroidal distributor connected to the outlet end of the evaporation coil; (e) an external cyclohexanone toroidal distributor; (f) an internal hydrogen peroxide toroidal distributor; (g) an internal cylindrical draft tube; (h) an external cooling jacket; said internal filtering system being arranged between the internal cylindrical draft tube and the reactor vessel and comprising a set of tubular candles filters arranged in two concentric circular crowns, the bottom of each tubular candle filter being connected together to form two continuous toroidal connecting tubes; said external cyclohexanone toroidal distributor being endowed with circularly arranged oriented feeding nozzles configured to feed cyclohexanone tangentially into said vessel; said filtering system has a filtering area (square meter of the filtering surface of the tubular filters per each cubic meter per hour of the obtained liquid filtered reaction mixture) which ranges from 0.7 (m 2 x hour)/m 3 to 3 (m 2 x hour)/m 3; said internal cylindrical draft tube being suspended, through supports, in the centre of the reactor vessel; the ratio between the internal diameter of the cylindrical draft tube (D C) and the internal diameter of said reactor vessel (D R) ranges from 0.25 to 0.8; the tubular candles filters are respectively connected to the reactor vessel and to the cylindrical draft tube through supports. (a) a reactor vessel provided with a stirrer; (b) an internal filtering system; (c) an internal liquid ammonia evaporation coil installed at the bottom of the reactor vessel; (d) an internal gaseous ammonia toroidal distributor connected to the outlet end of the evaporation coil; (e) an external cyclohexanone toroidal distributor; (f) an internal hydrogen peroxide toroidal distributor; (g) an internal cylindrical draft tube; (h) an external cooling jacket;
A method for displaying a message on a mobile terminal device, comprising: A. receiving a message, querying whether a user message storage database corresponding to a sender user number carried in the received message is set in the mobile terminal, and acquiring the user message storage database corresponding to the sender user number when the user message storage database corresponding to the sender user number is set in the mobile terminal; B. sequentially storing messages that have been received in accordance with block A in the user message storage database corresponding to the sender user number and combining two or more of the received messages, which are stored in the user message storage database, according to a preset time threshold for time difference between sending times or receiving times of two sequentially stored messages that are received in accordance with block A wherein the two or more sequentially stored messages are combined into one new message, thereby obtaining at least one message through combination of the two or more of the received messages; and C. displaying the at least one obtained message. A. receiving a message, querying whether a user message storage database corresponding to a sender user number carried in the received message is set in the mobile terminal, and acquiring the user message storage database corresponding to the sender user number when the user message storage database corresponding to the sender user number is set in the mobile terminal; B. sequentially storing messages that have been received in accordance with block A in the user message storage database corresponding to the sender user number and combining two or more of the received messages, which are stored in the user message storage database, according to a preset time threshold for time difference between sending times or receiving times of two sequentially stored messages that are received in accordance with block A wherein the two or more sequentially stored messages are combined into one new message, thereby obtaining at least one message through combination of the two or more of the received messages; and C. displaying the at least one obtained message.
A turbomachine module, in particular for aircraft, comprising an annular turbine nozzle sectorized and interposed axially between two structural elements, said turbine nozzle comprising several sectors having guide vanes which extend between inner and outer platform elements, at least one of said platform elements of each sector carrying, on the one hand, at least one sealing blade configured to ensure fluid sealing between said platform element (19, 20) and the adjacent structural element, and on the other hand, a device for holding said blade in sealing position, the holding device comprising at least one leaf spring extending circumferentially at the periphery of said platform element (19, 20) and supported on said blade; characterized in that each leaf spring comprises a middle portion fixed to a platform element of a sector, and opposite end portions (33, 35) which are supported on said blade carried by this platform element (19, 20).
A particle composition comprising particles selected from silica, alumina, ceria and titania, surface-treated with at least one alkoxysilane compound, which particles are hydrophobic, non-aggregated, and have a tap density of 110 g/l to 420 g/l, and a BET surface area of 200 m 2 /g or less.
A method of determining location addresses of node devices (21, 22,..., 26) in a network of operatively interconnected node devices, said node devices (21, 22,..., 26) arranged at different locations along an elongated track and geographically distanced from each other by an inter-node distance, each node device having a unique identifier and comprising a short range communication interface arranged for inter-node communication, said method comprising the steps of: - receiving, by a node device, a message from an immediate neighbouring node device having a known location address along said track, using said short range communication interface, said message comprising said location address of said immediate neighbouring node device; - determining, by said node device, its location address along said track, based on said location address in said received message; - transmitting, by said node device, a further message using said short range communication interface, said further message comprising said determined location address of said node device; the method being characterised by the following steps: - receiving, by a further immediate neighbouring node device of said node device, said further message, using said short range communication interface; - determining, by said further immediate neighbouring node device, its location address along said track, based on said location address in said received further message, and - transmitting, by said further immediate neighbouring node device, a message comprising said determined location address of said further immediate neighbouring node device using said short range communication interface. - receiving, by a node device, a message from an immediate neighbouring node device having a known location address along said track, using said short range communication interface, said message comprising said location address of said immediate neighbouring node device; - determining, by said node device, its location address along said track, based on said location address in said received message; - transmitting, by said node device, a further message using said short range communication interface, said further message comprising said determined location address of said node device; the method being characterised by the following steps: - receiving, by a further immediate neighbouring node device of said node device, said further message, using said short range communication interface; - determining, by said further immediate neighbouring node device, its location address along said track, based on said location address in said received further message, and - transmitting, by said further immediate neighbouring node device, a message comprising said determined location address of said further immediate neighbouring node device using said short range communication interface.
A rehabilitation training apparatus, comprising: a pair of first tracks (11a, 11b) that are arranged in parallel at an interval; a second track that is perpendicular to the pair of first tracks (11a, 11b) and is movably connected to the pair of first tracks (11a, 11b); a hand holder that is movably provided in the second track and on which a hand of a user is adapted to be held; a holder driving unit that reciprocally moves the hand holder along the second track; and a track driving unit that reciprocally moves the second track along the pair of first tracks (11a, 11b) and comprises a track motor, characterized in that the holder driving unit comprises: a holder rack that is arranged along a lengthwise direction of the second track; a holder pinion that is engaged with the holder rack, and configured to be rotated; and a holder motor configured to move the hand of the user along a predetermined path, by generating a rotational force and transmitting the generated force to the holder pinion, wherein the holder driving unit includes a control unit that controls both of the track motor and the holder motor, and wherein the control unit of the holder driving unit controls the hand holder to move in a curved manner, by controlling the track motor and the holder motor to have different rotation speeds from each other. a pair of first tracks (11a, 11b) that are arranged in parallel at an interval; a second track that is perpendicular to the pair of first tracks (11a, 11b) and is movably connected to the pair of first tracks (11a, 11b); a hand holder that is movably provided in the second track and on which a hand of a user is adapted to be held; a holder driving unit that reciprocally moves the hand holder along the second track; and a track driving unit that reciprocally moves the second track along the pair of first tracks (11a, 11b) and comprises a track motor, characterized in that the holder driving unit comprises: a holder rack that is arranged along a lengthwise direction of the second track; a holder pinion that is engaged with the holder rack, and configured to be rotated; and a holder motor configured to move the hand of the user along a predetermined path, by generating a rotational force and transmitting the generated force to the holder pinion, a holder rack that is arranged along a lengthwise direction of the second track; a holder pinion that is engaged with the holder rack, and configured to be rotated; and a holder motor configured to move the hand of the user along a predetermined path, by generating a rotational force and transmitting the generated force to the holder pinion, wherein the holder driving unit includes a control unit that controls both of the track motor and the holder motor, and wherein the control unit of the holder driving unit controls the hand holder to move in a curved manner, by controlling the track motor and the holder motor to have different rotation speeds from each other.
A fluid pressure reversing valve comprising a housing having a coil wound on the coil carrier, an armature configured to be axially displaceable in bearing bush, a core and a flux guiding device, and which has a first connection bore and a connection sleeve configured to communicate with a fluid to be controlled, the connection sleeve comprising a second connection bore and at least one valve seat (28, 29) for a valve element of the armature, wherein a third connection bore is provided for communication with a control chamber, the valve element being configured to abut against the first valve seat in a first position and forms a connection between the first and the third connection bore, and to abut against the second valve seat in a second position and forms a connection between the third and the second connection bore, the housing comprising a lower part and an upper part, the lower part comprising the connection sleeve and the connection bores (18, 19, 20), the lower part being arranged in an interlocking manner or in a force-fitting manner in the upper part, characterized in that the bearing bush for the armature is provided in a part of the lower part facing the core, and the valve seats (28, 29) for the valve element are each arranged in an opposite part of the lower part, wherein the armature is hollow and is connected with the valve element via a tube element so that a valve interior has a pressure prevailing at the second connection bore, wherein the armature, the tube element and the valve element are provided as multiple parts, and the tube element is pressed into the armature.
A power control apparatus for acquiring three-phase current values from a first current sensor, a second current sensor, and a third current sensor provided to a three-phase AC power source having a first phase, a second phase and a third phase, the power control apparatus comprising: a current measurement unit configured to acquire the three-phase current values of the three-phase AC power source from the first current sensor, the second current sensor, and the third current sensor; and a controller configured to compare phase differences between the three-phase current values, characterized in that the controller is further configured to detect an installment error when a current value of one of the three phase current values has a phase difference, from each of the other two phases, equal to or smaller than a predetermined phase difference, and to perform a current value sign correction operation to invert a sign of the current value in response to detecting the installment error. a current measurement unit configured to acquire the three-phase current values of the three-phase AC power source from the first current sensor, the second current sensor, and the third current sensor; and a controller configured to compare phase differences between the three-phase current values, characterized in that the controller is further configured to detect an installment error when a current value of one of the three phase current values has a phase difference, from each of the other two phases, equal to or smaller than a predetermined phase difference, and to perform a current value sign correction operation to invert a sign of the current value in response to detecting the installment error.