mhurhangee/ep-ind-claims huggingface dataset:
A rotating module, wherein the rotating module comprises: a support; a rotating member, comprising a first rotating member and a second rotating member, the first rotating member and the second rotating member being connected to the support respectively; and a damping member, a first end of the damping member being fixed to the support, a second end of the damping member being in contact with the rotating member to provide the first rotating member and the second rotating member with a damping force for relative rotation of the first rotating member and the second rotating member, the second end being an opposite end of the first end; characterised in that the support is disposed between the rotating member and the damping member; and in that the second end of the damping member comprises: at least one elastic arm, protruding towards the rotating member, the at least one elastic arm being in contact with at least one of the first rotating member or the second rotating member. a support; a rotating member, comprising a first rotating member and a second rotating member, the first rotating member and the second rotating member being connected to the support respectively; and a damping member, a first end of the damping member being fixed to the support, a second end of the damping member being in contact with the rotating member to provide the first rotating member and the second rotating member with a damping force for relative rotation of the first rotating member and the second rotating member, the second end being an opposite end of the first end; characterised in that the support is disposed between the rotating member and the damping member; and in that the second end of the damping member comprises: at least one elastic arm, protruding towards the rotating member, the at least one elastic arm being in contact with at least one of the first rotating member or the second rotating member.
A method for synthesizing a nano-sized mesoporous beta zeolite, the method comprising: mixing silica, a source of aluminum, and tetraethylammonium hydroxide to form an aluminosilicate fluid gel; drying the aluminosilicate fluid gel to form a dried gel mixture; subjecting the dried gel mixture to hydrothermal treatment to produce a zeolite precursor; adding cetyltrimethylammonium bromide (CTAB) to the zeolite precursor under alkaline conditions to form a templated mixture; subjecting the templated mixture to hydrothermal treatment to prepare a CTAB-templated zeolite; washing the CTAB-templated zeolite with distilled water; separating the CTAB-templated zeolite by centrifugation; and drying and calcining the CTAB-templated zeolites to produce the nano-sized mesoporous beta zeolite in a proton form. mixing silica, a source of aluminum, and tetraethylammonium hydroxide to form an aluminosilicate fluid gel; drying the aluminosilicate fluid gel to form a dried gel mixture; subjecting the dried gel mixture to hydrothermal treatment to produce a zeolite precursor; adding cetyltrimethylammonium bromide (CTAB) to the zeolite precursor under alkaline conditions to form a templated mixture; subjecting the templated mixture to hydrothermal treatment to prepare a CTAB-templated zeolite; washing the CTAB-templated zeolite with distilled water; separating the CTAB-templated zeolite by centrifugation; and drying and calcining the CTAB-templated zeolites to produce the nano-sized mesoporous beta zeolite in a proton form.
Apparatus comprising a localization module for tracking a location of a mobile device based on measurements of beacon signals transmitted between the mobile device and wireless reference nodes of a localization network (4, 14), wherein the localization module is configured to perform operations of: detecting motion of the mobile device; repeatedly applying a tracking algorithm to track the location of the mobile device, wherein the tracking algorithm is configured to estimate a current location of the mobile device by taking into account both a current set of measurements of the beacon signals transmitted between the mobile device and at least some of said reference nodes and one or more past sets of said measurements transmitted between the mobile device and at least some of said reference nodes; and adapting the tracking algorithm by, in dependence on said detected motion, adapting a relative significance attributed to the one or more sets of past measurements relative to the current set of measurements; characterized in that the localization module is further configured to adapt a time-density of one, some or all of said beacon signals in dependence on the detected motion of the mobile device, such that the time-density is increased when the mobile device is detected to exhibit a greater degree of motion. detecting motion of the mobile device; repeatedly applying a tracking algorithm to track the location of the mobile device, wherein the tracking algorithm is configured to estimate a current location of the mobile device by taking into account both a current set of measurements of the beacon signals transmitted between the mobile device and at least some of said reference nodes and one or more past sets of said measurements transmitted between the mobile device and at least some of said reference nodes; and adapting the tracking algorithm by, in dependence on said detected motion, adapting a relative significance attributed to the one or more sets of past measurements relative to the current set of measurements; characterized in that the localization module is further configured to adapt a time-density of one, some or all of said beacon signals in dependence on the detected motion of the mobile device, such that the time-density is increased when the mobile device is detected to exhibit a greater degree of motion.
A hairdryer comprising an ionising system and a heater wherein the ionising system comprises an ion producing electrode and the ion producing electrode has a first part which extends along a first axis and a second part substantially orthogonal to the first axis wherein the first part extends along an external periphery of the heater and the second part extends radially inwards from the external periphery of the heater further comprising an inner wall adapted to retain a downstream end of the heater in position within the hairdryer wherein the inner wall comprises a recess for accommodating the ion producing electrode.
A cell viability-based method for in-process monitoring the titration of a cytopathogenic virus of cultured infected virus host cells, encompassing the steps of: a) obtaining, from a host cell culture infected with a cytopathogenic virus, a plurality of samples for different initial concentrations of the virus containing sample used for infection of the host cells, preferably at a selected time of the cell culture; b) determining the level of the viability of the host cells in the samples by measuring the intracellular metabolic activity of infected cells by measuring the intracellular concentration, quantity or activity of a significant cell viability parameter; and c) comparing the measure of said parameter with a standard curve obtained in a same condition for a control host cell culture infected with a known virus stock, d) determination of said titration of a cytopathogenic virus by comparison with said standard curve, wherein the level of the viability of the host cells in the samples is determined by the measure of the intracellular ATP, after or simultaneously to the lysis of the virus infected host cells of the sample. a) obtaining, from a host cell culture infected with a cytopathogenic virus, a plurality of samples for different initial concentrations of the virus containing sample used for infection of the host cells, preferably at a selected time of the cell culture; b) determining the level of the viability of the host cells in the samples by measuring the intracellular metabolic activity of infected cells by measuring the intracellular concentration, quantity or activity of a significant cell viability parameter; and c) comparing the measure of said parameter with a standard curve obtained in a same condition for a control host cell culture infected with a known virus stock, d) determination of said titration of a cytopathogenic virus by comparison with said standard curve,
A signal multiplexing method characterized by comprising: a step of inputting, into a multiplexing device with a plurality of digital input lines and a single digital output line, an operation clock of each of the input lines as a first reference frequency for each of the input lines; a step of inputting an operation clock of the output line as a second reference frequency; a step of inputting a first digital signal synchronized with the first reference frequency for each of the input lines; a step of detecting phase difference information regarding a phase difference between the first reference frequency and the second reference frequency for each of the input lines; a step of performing an interpolation process on the first digital signal with an interpolation signal based on the phase difference information for each of the input lines; a step of synchronizing a second digital signal obtained from the interpolation process with the second reference frequency and outputting the second digital signal for each of the input lines; and a step of multiplexing the second digital signals respectively outputted for the input lines. a step of inputting, into a multiplexing device with a plurality of digital input lines and a single digital output line, an operation clock of each of the input lines as a first reference frequency for each of the input lines; a step of inputting an operation clock of the output line as a second reference frequency; a step of inputting a first digital signal synchronized with the first reference frequency for each of the input lines; a step of detecting phase difference information regarding a phase difference between the first reference frequency and the second reference frequency for each of the input lines; a step of performing an interpolation process on the first digital signal with an interpolation signal based on the phase difference information for each of the input lines; a step of synchronizing a second digital signal obtained from the interpolation process with the second reference frequency and outputting the second digital signal for each of the input lines; and a step of multiplexing the second digital signals respectively outputted for the input lines.
A process for the manufacture of heat-set knitted fabric, the knitted fabric (8, 9) being produced and guided over at least one heating plate at a temperature of 60 to 260°C and then rolled up for the first time, wherein the knitted fabric is produced on a circular knitting machine as a tube and either the tube is cut open before being guided over the heating plate at two, in particular opposite, lines and both resulting knitted fabric webs are guided in one layer over in each case at least one heating plate and are subsequently rolled up in each case to form a roll, or the tube is opened out before being guided over the heating plate and is guided in one layer over the heating plate, wherein the opened out mesh web is guided over at least one heating plate extending over the entire web width of the opened out mesh web.
A medical device comprising: a. an expandable member having an outer surface; a coating comprising a therapeutic agent disposed around said expandable member; and b. a sheath comprising a neckable element comprising a flattened tubular form, said flattened tubular form formed from a helically wrapped tape which is flattened and disposed around said expandable member in a longitudinal, circumferential or helical orientation; c. wherein when said expandable member is expanded, said neckable element elongates and reduces in width, thereby exposing at least portion of said coating. a. an expandable member having an outer surface; a coating comprising a therapeutic agent disposed around said expandable member; and b. a sheath comprising a neckable element comprising a flattened tubular form, said flattened tubular form formed from a helically wrapped tape which is flattened and disposed around said expandable member in a longitudinal, circumferential or helical orientation; c. wherein when said expandable member is expanded, said neckable element elongates and reduces in width, thereby exposing at least portion of said coating.
Liquid phase process for producing indium oxide-containing layers, in which a coating composition preparable from a mixture comprising at least one indium oxide precursor and at least one solvent and/or dispersion medium, in the sequence of points a) to d), a) is applied to a substrate, and b) the composition applied to the substrate is irradiated with electromagnetic radiation, c) optionally dried and d) converted thermally into an indium oxide-containing layer, characterized in that - the indium oxide precursor is an indium halogen alkoxide of the generic formula InX 2 where R is an alkyl radical and/or alkoxyalkyl radical and X is F, Cl, Br or I and - the irradiation is carried out with electromagnetic radiation having significant fractions of radiation in the range of 170 - 210 nm and of 250 - 258 nm. a) is applied to a substrate, and b) the composition applied to the substrate is irradiated with electromagnetic radiation, c) optionally dried and d) converted thermally into an indium oxide-containing layer, - the indium oxide precursor is an indium halogen alkoxide of the generic formula InX 2 where R is an alkyl radical and/or alkoxyalkyl radical and X is F, Cl, Br or I and - the irradiation is carried out with electromagnetic radiation having significant fractions of radiation in the range of 170 - 210 nm and of 250 - 258 nm.
An ablation catheter, comprising - a catheter shaft; - an ablation electrode disposed at a distal end of the catheter shaft; - a microelectrode (20; 24; 25) disposed on a surface of the ablation electrode; and - a lead element electrically conductively connected to the microelectrode (20; 24; 25); the lead element (12; 21) being surrounded by an insulating material (10; 22) so that the lead element (12; 21) is electrically insulated from the ablation electrode, characterised in that the microelectrode (20; 24; 25) and the lead element (12; 21) surrounded by the insulating material (10; 22) are arranged in a recess formed on the surface of the ablation electrode. - a catheter shaft; - an ablation electrode disposed at a distal end of the catheter shaft; - a microelectrode (20; 24; 25) disposed on a surface of the ablation electrode; and - a lead element electrically conductively connected to the microelectrode (20; 24; 25);
An air jet loom including an air tuck-in device, the air tuck-in device being provided in the air jet loom and performing a tuck-in operation by air jetting with tuck-in nozzles, the air tuck-in device comprising a pair of tuck-in heads that are each provided on a corresponding one of a weft-supply side and a side opposite to the weft-supply side and that have the tuck-in nozzles, a driving shaft that is continuously rotationally driven in one direction in synchronism with a main shaft of the loom, and a reciprocating motion mechanism that supports at least the tuck-in head provided on the side opposite to the weft-supply side, that uses the driving shaft as a driving source, and that causes the tuck-in head to undergo a reciprocating motion between a first position that is situated on a side of a cloth fell and a second position that is situated away from the cloth fell in a front-rear direction of the loom, the first position being a position where the reciprocating motion causes the tuck-in head to overlap the cloth fell, the second position being a position where the tuck-in head is situated away from the cloth fell on a side opposite to a side of a reed, wherein the reciprocating motion mechanism includes an intermediate transmission shaft that is rotatably supported by a frame of the loom and that extends in a weaving-width direction, a reverse driving section that connects the intermediate transmission shaft and the driving shaft to each other and that reciprocatingly reversely drives the intermediate transmission shaft, a swinging arm that is supported at one end by a supporting shaft provided above a warp line, that is provided so as to be swingable around an axis of the supporting shaft, and that supports at other end the tuck-in head, and a driving transmission section that connects the swinging arm and the intermediate transmission shaft to each other and that is mounted on the intermediate transmission shaft so that a position of the driving transmission section in the weaving-width direction with respect to the intermediate transmission shaft is changeable.
An output control apparatus (131; 601; 901) that controls output of video or audio, said apparatus comprising: a tuner operable to receive a television broadcast; a data input unit operable to receive video or audio from a reproduction apparatus; a command input unit operable to receive a command from the reproduction apparatus; a user input unit operable to receive an instruction from a user; a switch operable to select said tuner or said data input unit; an output control unit operable to control output of video or audio from said switch; and a switching control unit operable: to control said switch based on the instruction from said command input unit or said user input unit; and to control said switch to select said tuner when said switch is set to said data input unit and to control said switch to not select said tuner when said switch is not set to said data input unit upon receiving a first command inputted from said command input unit, the first command indicating that the reproduction apparatus has entered a predetermined state. a tuner operable to receive a television broadcast; a data input unit operable to receive video or audio from a reproduction apparatus; a command input unit operable to receive a command from the reproduction apparatus; a user input unit operable to receive an instruction from a user; a switch operable to select said tuner or said data input unit; an output control unit operable to control output of video or audio from said switch; and a switching control unit operable: to control said switch based on the instruction from said command input unit or said user input unit; and to control said switch to select said tuner when said switch is set to said data input unit and to control said switch to not select said tuner when said switch is not set to said data input unit upon receiving a first command inputted from said command input unit, the first command indicating that the reproduction apparatus has entered a predetermined state. to control said switch based on the instruction from said command input unit or said user input unit; and to control said switch to select said tuner when said switch is set to said data input unit and to control said switch to not select said tuner when said switch is not set to said data input unit upon receiving a first command inputted from said command input unit, the first command indicating that the reproduction apparatus has entered a predetermined state.
A process for desulfurization of a hydrocarbon feed stream comprising providing a hydrocarbon feed stream contaminated with sulfur compounds, passing the sulfur contaminated feed stream through a zeolite Y adsorbent and a selective sulfur adsorbent, wherein the selective sulfur absorbent comprises copper oxide and one or more manganese compounds, wherein the feed stream is substantially desulfurized. providing a hydrocarbon feed stream contaminated with sulfur compounds, passing the sulfur contaminated feed stream through a zeolite Y adsorbent and a selective sulfur adsorbent, wherein the selective sulfur absorbent comprises copper oxide and one or more manganese compounds, wherein the feed stream is substantially desulfurized.
Coupling for fluids, such as for fluids to be extracted by means of vacuum pressure, such as waste water, in particular black water, comprising a male part and a female part that has a hollow-cylindrical end section for receiving an end-side section of the male part, a rotatable outer ring, and a locking element adjustable relative to the outer ring and interacting therewith which engages in a receptacle, such as a recess, provided in the end-side section of the male part for locking, the locking element being an open ring element or a spring element whose effective inner diameter changes depending on the position of the outer ring, the ring element or spring element engaging in the receptacle in a first position (locked) and the inner diameter of the ring element or spring element being equal to or greater than the outer diameter of the end-side section of the male part in a second position (unlocked), where the end section of the female part has a front edge having an inward-facing bevel for forming a conically widened opening of the female part, the outer ring being screwable onto the end section and having a section vertical to the axial adjustment direction of the outer ring and whose effective free diameter is smaller than the outer diameter of the end section and greater than the outer diameter of the male part, and the the locking element being arranged between the front face of the end section and that section of the outer ring vertical to the adjustment direction, wherein the outer ring has a stop element and the end section has a stop at a distance from the front edge with whose side facing away from said front edge the stop element is in contact in the second position.
A bispecific single chain antibody molecule comprising a first binding domain which is an antigen-interaction site, capable of binding to an epitope of human and non-chimpanzee primate selected from Callithrix jacchus, Saguinis oedipus, Saimiri sciureus and Macaca fascicularis CD3ε (epsilon) chain, wherein the epitope is part of an amino acid sequence comprised in the group consisting of SEQ ID NOs. 2, 4, 6, or 8, and comprises at least the amino acid sequence Gln-Asp-Gly-Asn-Glu (QDGNE), and a second binding domain capable of binding to human and/or non-Chimpanzee primate prostate-specific membrane antigen (PSMA) and comprises the following sequences as VH- and VL-chains in the second binding domain selected from: a) a V H -chain of SEQ ID NO: 253 and a V L -chain of SEQ ID NO: 258; b) a V H -chain of SEQ ID NO: 267 and a V L -chain of SEQ ID NO: 272; c) a V H -chain of SEQ ID NO: 617 and a V L -chain of SEQ ID NO: 622; d) a V H -chain of SEQ ID NO: 281 and a V L -chain of SEQ ID NO: 286; e) a V H -chain of SEQ ID NO: 295 and a V L -chain of SEQ ID NO: 300; f) a V H -chain of SEQ ID NO: 309 and a V L -chain of SEQ ID NO: 314; g) a V H -chain of SEQ ID NO: 323 and a V L -chain of SEQ ID NO: 328; h) a V H -chain of SEQ ID NO: 337 and a V L -chain of SEQ ID NO: 342; i) a V H -chain of SEQ ID NO: 351 and a V L -chain of SEQ ID NO: 356; and j) a V H -chain of SEQ ID NO: 365 and a V L -chain of SEQ ID NO: 370. a) a V H -chain of SEQ ID NO: 253 and a V L -chain of SEQ ID NO: 258; b) a V H -chain of SEQ ID NO: 267 and a V L -chain of SEQ ID NO: 272; c) a V H -chain of SEQ ID NO: 617 and a V L -chain of SEQ ID NO: 622; d) a V H -chain of SEQ ID NO: 281 and a V L -chain of SEQ ID NO: 286; e) a V H -chain of SEQ ID NO: 295 and a V L -chain of SEQ ID NO: 300; f) a V H -chain of SEQ ID NO: 309 and a V L -chain of SEQ ID NO: 314; g) a V H -chain of SEQ ID NO: 323 and a V L -chain of SEQ ID NO: 328; h) a V H -chain of SEQ ID NO: 337 and a V L -chain of SEQ ID NO: 342; i) a V H -chain of SEQ ID NO: 351 and a V L -chain of SEQ ID NO: 356; and j) a V H -chain of SEQ ID NO: 365 and a V L -chain of SEQ ID NO: 370.