mhurhangee/ep-ind-claims huggingface dataset:
A method for fabricating a bead member, the method comprising a step of forming a stiffener on the outer circumference of a bead core, the stiffener including an inner rubber portion located on the radially inner side and an outer rubber portion located on the radially outer side, and a cover tape, an end of a carcass ply being disposed on the stiffener, wherein the step of forming a stiffener includes a step of forming the inner rubber portion by laminating a first rubber strip, a step of forming the outer rubber portion by laminating a second rubber strip having a lower rigidity than that of rubber of the inner rubber portion, and a step of arranging the cover tape on parts of the inner rubber portion and the outer rubber portion of the stiffener in contact with the end of the carcass ply, the cover tape being composed of rubber having a lower rigidity than that of rubber of the inner rubber portion and a higher rigidity than the outer rubber portion, wherein the bead core has a polygonal cross section having five or more sides; characterised in that: the step of forming the inner rubber portion includes a step of forming a radially inner part (3A1) of the inner rubber portion by laminating the first rubber strip, a step of placing the bead core on the radially inner part by attaching two sides of the bead core to the radially inner part, and a step of forming a radially outer part (3A2) of the inner rubber portion by laminating the first rubber strip on the radially inner part after the bead core is placed. the step of forming the inner rubber portion includes a step of forming a radially inner part (3A1) of the inner rubber portion by laminating the first rubber strip, a step of placing the bead core on the radially inner part by attaching two sides of the bead core to the radially inner part, and a step of forming a radially outer part (3A2) of the inner rubber portion by laminating the first rubber strip on the radially inner part after the bead core is placed.
A method for preparing a Lactobacillus sp. having an ability to induce IL-12 production, the method comprising: adding an alkaline chemical to a culture medium to adjust pH; wherein the alkaline chemical is selected from sodium hydroxide, potassium hydroxide, calcium hydroxide or ammonia; applying stress at a later stage of the cultivation; wherein the stress is selected from the group consisting of [(a) and (c)], or [(a), (b) and (c)]: (a) cultivating the Lactobacillus sp. without adding the alkaline chemical at pH 5 or less; (b) cultivating the Lactobacillus sp. in a temperature range in which the propagation of the Lactobacillus sp. is suppressed; (c) cultivating the Lactobacillus sp. after a salt is added at a concentration of 1% by weight or more in a culture broth; and wherein the Lactobacillus sp. is a microorganism belonging to Lactobacillus plantarum or Lactobacillus brevis and wherein the Lactobacillus sp. is sterilized at 80 °C to 100 °C for 5 to 20 minutes in the culture broth after the cultivation, and then collected. adding an alkaline chemical to a culture medium to adjust pH; wherein the alkaline chemical is selected from sodium hydroxide, potassium hydroxide, calcium hydroxide or ammonia; applying stress at a later stage of the cultivation; wherein the stress is selected from the group consisting of [(a) and (c)], or [(a), (b) and (c)]: (a) cultivating the Lactobacillus sp. without adding the alkaline chemical at pH 5 or less; (b) cultivating the Lactobacillus sp. in a temperature range in which the propagation of the Lactobacillus sp. is suppressed; (c) cultivating the Lactobacillus sp. after a salt is added at a concentration of 1% by weight or more in a culture broth; and (a) cultivating the Lactobacillus sp. without adding the alkaline chemical at pH 5 or less; (b) cultivating the Lactobacillus sp. in a temperature range in which the propagation of the Lactobacillus sp. is suppressed; (c) cultivating the Lactobacillus sp. after a salt is added at a concentration of 1% by weight or more in a culture broth; and wherein the Lactobacillus sp. is a microorganism belonging to Lactobacillus plantarum or Lactobacillus brevis and wherein the Lactobacillus sp. is sterilized at 80 °C to 100 °C for 5 to 20 minutes in the culture broth after the cultivation, and then collected.
A loudspeaker comprising: a support frame constructed of a magnetically non-conductive material; a plurality of magnets (206, 208) configured in a motor assembly to each produce a magnetic flux; a magnet housing configured to at least partially surround at least one of the magnets (206, 208), the magnet housing is a magnetically conductive material; and a magnetic flux collector coupled with the magnet housing and extending outwardly away from the magnet housing; where the magnetic flux collector is a magnetically conductive material configured to receive and channel the magnetic flux of at least one of the magnets (206, 208) to an air gap formed between the magnet housing and the motor assembly, and where a distal end of the magnetic flux collector is coupled to the support frame and a proximal end of the magnetic flux collector is coupled with the magnet housing, and the magnetic flux collector is operable as a structural member to maintain a position of the magnet housing with respect to the support frame. a support frame constructed of a magnetically non-conductive material; a plurality of magnets (206, 208) configured in a motor assembly to each produce a magnetic flux; a magnet housing configured to at least partially surround at least one of the magnets (206, 208), the magnet housing is a magnetically conductive material; and a magnetic flux collector coupled with the magnet housing and extending outwardly away from the magnet housing; where the magnetic flux collector is a magnetically conductive material configured to receive and channel the magnetic flux of at least one of the magnets (206, 208) to an air gap formed between the magnet housing and the motor assembly, and where a distal end of the magnetic flux collector is coupled to the support frame and a proximal end of the magnetic flux collector is coupled with the magnet housing, and the magnetic flux collector is operable as a structural member to maintain a position of the magnet housing with respect to the support frame.
A sample analysis system (100 to 100b) comprising: a plurality of sample analyzers (40a to 40g) for measuring samples; a controller that is communicably connected to the plurality of sample analyzers (40a to 40g) and that is configured to control start-up of the plurality of sample analyzers (40a to 40g); wherein the controller is configured to start-up a combination of sample analyzers among some of the plurality of sample analyzers (40a to 40g); the sample analyzer performs an initial operation after start-up; and the initial operation includes at least a cleaning operation and a background check of a measurement unit that measures a sample. a plurality of sample analyzers (40a to 40g) for measuring samples; a controller that is communicably connected to the plurality of sample analyzers (40a to 40g) and that is configured to control start-up of the plurality of sample analyzers (40a to 40g); wherein the controller is configured to start-up a combination of sample analyzers among some of the plurality of sample analyzers (40a to 40g); the sample analyzer performs an initial operation after start-up; and the initial operation includes at least a cleaning operation and a background check of a measurement unit that measures a sample.
A composition comprising at least retinaldehyde and/or a stereoisomer thereof and from 0.01 to 2 wt % of a cell preparation from a Leontopodium alpinum meristem cell culture together with glycerine, xanthan gum, available under the trade mark Leontopod stems GX® comprising 20% of cells, 0.3% of xanthan gum and the remainder being glycerine, with respect to the total weight of the composition.
Hair clipping system, with a hair clipping device that comprises: - a housing; - a cutting assembly which is arranged on one end of said housing and comprises a stationary blade with a front edge and a moveable blade with a toothed edge arranged parallel to said front edge of the stationary blade, wherein the moveable blade is displaceably mounted on a surface of the stationary blade and resiliently biased against said surface of the stationary blade; - a drive arrangement for driving said moveable blade in an oscillatory movement in a transverse direction substantially parallel to the front edge of the stationary blade; - an adjustment unit for adjusting the position of the moveable blade with respect to the stationary blade in a first adjustment direction substantially perpendicular to said transverse direction; and with - a comb attachment with a plurality of comb teeth that can be releasably attached to the hair clipping device on a side of the stationary blade facing away from said surface of said stationary blade to create a defined gap between the comb teeth, that arc adapted to at least partly surround the cutting assembly, and the moveable blade; wherein the adjustment unit is adapted for adjusting the position of the comb attachment with respect to said cutting assembly in a second adjustment direction substantially perpendicular to said surface of the stationary blade if the comb attachment is attached to the hair clipping device. - a housing; - a cutting assembly which is arranged on one end of said housing and comprises a stationary blade with a front edge and a moveable blade with a toothed edge arranged parallel to said front edge of the stationary blade, wherein the moveable blade is displaceably mounted on a surface of the stationary blade and resiliently biased against said surface of the stationary blade; - a drive arrangement for driving said moveable blade in an oscillatory movement in a transverse direction substantially parallel to the front edge of the stationary blade; - an adjustment unit for adjusting the position of the moveable blade with respect to the stationary blade in a first adjustment direction substantially perpendicular to said transverse direction; and with - a comb attachment with a plurality of comb teeth that can be releasably attached to the hair clipping device on a side of the stationary blade facing away from said surface of said stationary blade to create a defined gap between the comb teeth, that arc adapted to at least partly surround the cutting assembly, and the moveable blade;
A network apparatus controlling method, applied to a network apparatus controlling device, for controlling a plurality of node devices (100, 200, 300) in a mesh network, wherein the plurality of node devices (100, 200, 300) respectively comprise a library (110, 210, 310) and a device name corresponding to the library (110, 210, 310), the library (110, 210, 310) comprises a network key, the network apparatus controlling device comprises a database, the database stores a data of the device name and the library (110, 210, 310) of the plurality of node devices (100, 200, 300), and the plurality of node devices (100, 200, 300) comprise an intermediary node device, the network apparatus controlling method comprising: in a device configuration stage, causing the library (110, 210, 310) of the plurality of node devices (100, 200, 300) to have the same network key; via a network module, electrically connecting to the intermediary node device; via a node name obtaining module which analyzes a Bluetooth network packet sent by the intermediary node device, obtaining the device name of the intermediary node device; according to the device name, identifying the library of the intermediary node device and a content of the library to confirm an accessing encryption process used by the library; and, after the confirming accessing encryption process is transferred to a setting module, switching by the setting module to the accessing encryption process corresponding to the library to complete the accessing encryption process between the network apparatus controlling device and the intermediary node device such that the network apparatus controlling device and the node device of the intermediary node device are compatible to send data to each other, and such that the network apparatus controlling device can send an order data to the plurality of node devices (100, 200, 300) in the mesh network via the intermediary node device. in a device configuration stage, causing the library (110, 210, 310) of the plurality of node devices (100, 200, 300) to have the same network key; via a network module, electrically connecting to the intermediary node device; via a node name obtaining module which analyzes a Bluetooth network packet sent by the intermediary node device, obtaining the device name of the intermediary node device; according to the device name, identifying the library of the intermediary node device and a content of the library to confirm an accessing encryption process used by the library; and, after the confirming accessing encryption process is transferred to a setting module, switching by the setting module to the accessing encryption process corresponding to the library to complete the accessing encryption process between the network apparatus controlling device and the intermediary node device such that the network apparatus controlling device and the node device of the intermediary node device are compatible to send data to each other, and such that the network apparatus controlling device can send an order data to the plurality of node devices (100, 200, 300) in the mesh network via the intermediary node device.
A system for extracting high-concentration plasma from whole blood, the system comprising: a first syringe; a centrifugation tube that is configured to be connected to the first syringe in order to centrifuge whole blood received in the first syringe; a membrane filter comprising: a body that is cylindrical in shape and has a pair of spaced inlets to which the first syringe and a second syringe are to be respectively connected; a hollow membrane included in the body; and a first space formed between the body and the membrane and serving to collect components that are passed through the membrane, wherein the membrane filter is configured such that the plasma resulting from the centrifugation can be reciprocated through the membrane filter one or more times between the first syringe and the second syringe while water or a water-containing component is removed from the plasma by the membrane, thereby extracting the high-concentration plasma, the system being characterised in that the inner upper surface of the centrifugation tube has a first curved portion so as to increase the volume of the tube space for receiving red blood cells and to discharge air from the tube space during centrifugation, and the portion of the centrifugation tube that is connected with an outlet of the first syringe has a first gap serving to prevent red blood cells received in the centrifugation tube from being agglomerated by surface tension and from flowing to the outside, and further characterised by a cap that is configured to be connected to the first syringe in order to re-centrifuge plasma collected in the first syringe by centrifugation of the whole blood, wherein the upper inner surface of the cap has a second curved portion so as to increase the volume of the cap space for receiving red blood cells and to discharge air from the cap space during centrifugation, and the portion of the cap that is connected with the outlet of the first syringe has a second gap serving to prevent red blood cells received in the cap from being agglomerated by surface tension and from flowing to the outside. a first syringe; a centrifugation tube that is configured to be connected to the first syringe in order to centrifuge whole blood received in the first syringe; a membrane filter comprising: a body that is cylindrical in shape and has a pair of spaced inlets to which the first syringe and a second syringe are to be respectively connected; a hollow membrane included in the body; and a first space formed between the body and the membrane and serving to collect components that are passed through the membrane, wherein the membrane filter is configured such that the plasma resulting from the centrifugation can be reciprocated through the membrane filter one or more times between the first syringe and the second syringe while water or a water-containing component is removed from the plasma by the membrane, thereby extracting the high-concentration plasma,
A remote antenna unit comprising: a radio interface to receive a second original radio frequency signal in an uplink communication direction from a downstream device, wherein a first original radio frequency signal and the second original radio frequency signal are originally transmitted on a radio frequency channel using time division duplexing; and a transport interface to communicatively couple the remote antenna unit to a main hub; wherein the remote antenna unit receives a control signal in a downlink communication direction from the main hub indicating when the remote antenna unit is to output, in accordance with the time division duplexing of the radio frequency channel, a first reproduced radio frequency signal in the downlink communication direction to the downstream device on the radio frequency channel; and wherein the remote antenna unit uses the control signal to determine when to output the first reproduced radio frequency signal on the radio frequency channel. a radio interface to receive a second original radio frequency signal in an uplink communication direction from a downstream device, wherein a first original radio frequency signal and the second original radio frequency signal are originally transmitted on a radio frequency channel using time division duplexing; and a transport interface to communicatively couple the remote antenna unit to a main hub; wherein the remote antenna unit receives a control signal in a downlink communication direction from the main hub indicating when the remote antenna unit is to output, in accordance with the time division duplexing of the radio frequency channel, a first reproduced radio frequency signal in the downlink communication direction to the downstream device on the radio frequency channel; and wherein the remote antenna unit uses the control signal to determine when to output the first reproduced radio frequency signal on the radio frequency channel.
A method of producing an optical fiber preform, the method comprising a step of depositing a glass film on the inner wall surface of a starting pipe, the wall thickness of the starting pipe being d (mm), by heating from the outer circumferential surface of the pipe with a plasma burner being moved in parallel with the axis of the pipe at a traverse speed of 100 mm/min or more relative to the starting pipe so as to oxidize a glass raw material while a gas containing the glass raw material is introduced into the pipe, characterised in that: in the deposition step, the temperature is controlled not to exceed (1800 + 100Xd)°C, a temperature of (1100 + 100Xd)°C or higher being continued for 20 seconds or more at each point of the starting pipe; the gas contains silicon tetrachloride at 7 g/min or more and oxygen gas at 41/min or more such that the deposition rate of the glass film is 1.3 g/min or more; the plasma burner includes at least two inlets of gases for forming plasma and the inner diameter thereof at the region where the plasma is formed is 80 mm or more, and the deposition step is performed in a manner such that the relationship 150 mm/second < Q/S < 600 mm/second is satisfied, wherein Q is the total flow rate of the gases introduced into the burner, and S is the sectional area at the region. in the deposition step, the temperature is controlled not to exceed (1800 + 100Xd)°C, a temperature of (1100 + 100Xd)°C or higher being continued for 20 seconds or more at each point of the starting pipe; the gas contains silicon tetrachloride at 7 g/min or more and oxygen gas at 41/min or more such that the deposition rate of the glass film is 1.3 g/min or more; the plasma burner includes at least two inlets of gases for forming plasma and the inner diameter thereof at the region where the plasma is formed is 80 mm or more, and the deposition step is performed in a manner such that the relationship 150 mm/second < Q/S < 600 mm/second is satisfied, wherein Q is the total flow rate of the gases introduced into the burner, and S is the sectional area at the region.
A human engineered anti-N3pGlu Aβ antibody comprising an Light Chain Variable Region (LCVR) and an Heavy Chain Variable Region (HCVR) wherein LCDR1 is KSX1X2SLLYSRX3KTYLN (SEQ ID NO: 51), LCDR2 is AVSKLX4S (SEQ ID NO: 52), LCDR3 is VQGTHYPFT (SEQ ID NO: 5) and HCDR1 is GYX5FTX6YYIN (SEQ ID NO: 53), HCDR2 is WINPGSGNTKYNEKFKG (SEQ ID NO: 8), and HCDR3 is EGX7TVY (SEQ ID NO: 54), wherein X1 is S or T; X2 is Q or R, X3 is G or S, X4 is D or G, X5 is D or T, X6 is R or D, and X7 is I, T, E, or V.
A continuously operating method for the thermal hydrolysis of organic material, comprising a preheating step, a subsequent reaction step and a later depressurization step, characterized in that the preheating step comprises the operation of recirculating organic material to be hydrolyzed in a first recirculation circuit, subjecting it to temperature conditions between 70°C and 140°C; in that the reaction step comprises the operation of recirculating organic material extracted from the first recirculation circuit in a second recirculation circuit, subjecting it to temperature conditions between 130°C and 220°C and pressure conditions between 3 bars and 20 bars in the second recirculation circuit; and in that the depressurization step comprises the sudden decompression of organic material continuously extracted from the second recirculation circuit.