mhurhangee/ep-ind-claims huggingface dataset:
A rope reel provided on a recoil starter, comprising: a rope holding groove configured such that a rope is wound around the rope holding groove; a flange portion disposed on both sides of the rope holding groove; a through hole provided in the flange portion and configured to allow an end of the rope wound around the rope holding groove to pass through; and an arch portion provided on a side surface of the rope reel and adjacent to the through hole, wherein the end of the rope is locked to the side surface of the rope reel by forming a knot, the arch portion is configured to hold a portion of the rope on a front end side with respect to the knot, the arch portion includes an annular insertion path through which the rope is insertable, and the arch portion is capable of holding the inserted rope along the side surface of the rope reel, and characterized in that the rope reel further comprises an end accommodating portion configured to accommodate the knot of the rope, and the end accommodating portion includes a wall formed to surround a periphery of the through hole, and the arch portion is formed adjacently to an insertion hole formed in the wall. a rope holding groove configured such that a rope is wound around the rope holding groove; a flange portion disposed on both sides of the rope holding groove; a through hole provided in the flange portion and configured to allow an end of the rope wound around the rope holding groove to pass through; and an arch portion provided on a side surface of the rope reel and adjacent to the through hole, wherein the end of the rope is locked to the side surface of the rope reel by forming a knot, the arch portion is configured to hold a portion of the rope on a front end side with respect to the knot, the arch portion includes an annular insertion path through which the rope is insertable, and the arch portion is capable of holding the inserted rope along the side surface of the rope reel, and characterized in that the rope reel further comprises an end accommodating portion configured to accommodate the knot of the rope, and the end accommodating portion includes a wall formed to surround a periphery of the through hole, and the arch portion is formed adjacently to an insertion hole formed in the wall.
Method for pressing a liquid extract from a material to be pressed, whereby the material to be pressed is conveyed along a pressing route by a screw press and subjected to a pressing pressure and whereby the material to be pressed is mixed with at least one extracting agent which is removed from the material to be pressed together with the extract, characterised in that the extracting agent is added to the material to be pressed at most in a proportion by weight that is twice the weight of the extract contained in the material to be pressed, and a cylindrical interior of the screw press is divided into a pre-pressing zone, an extruder zone and a pressing zone, and the pre-pressing zone is provided with a primary discharge line for mechanically pressed extract, and one or more secondary discharge lines for extracting agent mixed with the extract respectively for extracting agent dissolved in the extract are provided in the region of the extruder zone, and the connector for the intake line of the extracting agent is disposed downstream of a first throttle in the conveying direction which separates the pre-pressing zone from the extruder zone.
A heat dissipating assembly, suitable for an electronic device, the electronic device having a heat source, the heat dissipating assembly comprising: a closed loop, formed by a first tube and a second tube, disposed in the electronic device and filled with a fluid, a heat generated by the heat source being transferred to a heating end of the first tube of the closed loop, the fluid absorbing the heat while flowing through the heating end of the closed loop and dissipating the heat from the closed loop to the electronic device while flowing through the second tube different from the heating end of the closed loop; and at least one barrier located in the non-heating end of the closed loop, wherein one side of the barrier is on an inner wall of the non-heating end of the closed loop, another side of the barrier extends in gravity direction away from the inner wall and forms an opening, and the fluid passes through the opening of the barrier, so as to intercept bubbles generated by the fluid while passing through the heating end of the closed loop. a closed loop, formed by a first tube and a second tube, disposed in the electronic device and filled with a fluid, a heat generated by the heat source being transferred to a heating end of the first tube of the closed loop, the fluid absorbing the heat while flowing through the heating end of the closed loop and dissipating the heat from the closed loop to the electronic device while flowing through the second tube different from the heating end of the closed loop; and at least one barrier located in the non-heating end of the closed loop, wherein one side of the barrier is on an inner wall of the non-heating end of the closed loop, another side of the barrier extends in gravity direction away from the inner wall and forms an opening, and the fluid passes through the opening of the barrier, so as to intercept bubbles generated by the fluid while passing through the heating end of the closed loop.
An immunoassay apparatus, comprising a reaction vessel carrier containing one or more reaction vessels(s); and a dispenser support containing one or more reagent dispenser apparatus having one or more reagent container(s), said reagent container comprising (i) a reagent storage chamber and (ii) a plurality of reagent dispense chambers having a dispense port coupled to each of the reagent dispense chamber, characterized in that said one or more reagent container(s) has a plurality of dispense ports spaced along a length of the container body, and wherein each of the dispense ports is operable to individually open and close to dispense a reagent directly into the one or more reaction vessel(s) located below the dispenser support and wherein each of the dispense chambers has a vertically moveable wall comprising a flexible diaphragm, said moveable wall being adapted to change a volume of the reagent dispensing chamber by vertical movement of the vertically moveable wall and thereby displacing a known amount of the reagent from the reagent dispense chamber into the reaction vessel. a reaction vessel carrier containing one or more reaction vessels(s); and a dispenser support containing one or more reagent dispenser apparatus having one or more reagent container(s), said reagent container comprising (i) a reagent storage chamber and (ii) a plurality of reagent dispense chambers having a dispense port coupled to each of the reagent dispense chamber, characterized in that said one or more reagent container(s) has a plurality of dispense ports spaced along a length of the container body, and wherein each of the dispense ports is operable to individually open and close to dispense a reagent directly into the one or more reaction vessel(s) located below the dispenser support and wherein each of the dispense chambers has a vertically moveable wall comprising a flexible diaphragm, said moveable wall being adapted to change a volume of the reagent dispensing chamber by vertical movement of the vertically moveable wall and thereby displacing a known amount of the reagent from the reagent dispense chamber into the reaction vessel.
A method for upgrading an asphalt feed, comprising: receiving an asphalt feed, wherein receving the asphalt feed comprises receiving an asphaltene-depleted crude fraction and distilling the asphaltene-depleted crude fraction to form the asphalt feed, the asphalt feed being a bottom fraction from the distillation, wherein the asphaltene-depleted crude fraction includes at least 50 wt% less asphaltenes than the corresponding raw crude, and wherein the asphaltene-depleted crude fraction is prepared by performing a paraffinic froth treatment on the raw crude; and, oxidizing the asphalt feed by air blowing under effective conditions to achieve an increase of a maximum PG temperature in the corresponding asphalt of at least 15°C, the ratio of the increase of the maximum PG temperature to an increase in the corresponding minimum PG temperature being at least 5 to 2. receiving an asphalt feed, wherein receving the asphalt feed comprises receiving an asphaltene-depleted crude fraction and distilling the asphaltene-depleted crude fraction to form the asphalt feed, the asphalt feed being a bottom fraction from the distillation, wherein the asphaltene-depleted crude fraction includes at least 50 wt% less asphaltenes than the corresponding raw crude, and wherein the asphaltene-depleted crude fraction is prepared by performing a paraffinic froth treatment on the raw crude; and, oxidizing the asphalt feed by air blowing under effective conditions to achieve an increase of a maximum PG temperature in the corresponding asphalt of at least 15°C, the ratio of the increase of the maximum PG temperature to an increase in the corresponding minimum PG temperature being at least 5 to 2.
A spotlight system, comprising a spotlight configured as a stage or architectural spotlight, which comprises at least one first supply interface for an external mains supply and at least one second supply interface for an external storage battery supply, and an external storage battery device (3, 3A, 3B, 3C) comprising at least one storage battery interface (19, 21) for providing a supply voltage for the spotlight, wherein the storage battery interface (19, 21) is or can be connected to the second supply interface, wherein the second supply interface and the storage battery interface (19, 21) are configured for data communication from the storage battery device (3, 3A, 3B, 3C) to the spotlight. a spotlight configured as a stage or architectural spotlight, which comprises at least one first supply interface for an external mains supply and at least one second supply interface for an external storage battery supply, and an external storage battery device (3, 3A, 3B, 3C) comprising at least one storage battery interface (19, 21) for providing a supply voltage for the spotlight, wherein the storage battery interface (19, 21) is or can be connected to the second supply interface, wherein the second supply interface and the storage battery interface (19, 21) are configured for data communication from the storage battery device (3, 3A, 3B, 3C) to the spotlight.
A gearbox for a gas turbine engine, comprising: a first gear housing; a second gear housing located proximate a first end of the first gear housing and extending axially from the first gear housing; a third gear housing located proximate a second end of the first gear housing and extending axially from the first gear housing, wherein the first end of the first gear housing is opposite the second end of the first gear housing; a fourth gear housing extending circumferentially between the second gear housing and the third gear housing; a first gear train located in the first gear housing; a second gear train located in the second gear housing, wherein a gear of the second gear train engages a first idler gear of the first gear train; a third gear train located in the third gear housing, wherein a first gear of the third gear train engages a second idler gear of the first gear train; and a fourth gear train located in the fourth gear housing, wherein a gear of the fourth gear train engages a second gear of the third gear train, and characterised in that the fourth gear housing comprises a first mounting surface and a second mounting surface opposite the first mounting surface. a first gear housing; a second gear housing located proximate a first end of the first gear housing and extending axially from the first gear housing; a third gear housing located proximate a second end of the first gear housing and extending axially from the first gear housing, wherein the first end of the first gear housing is opposite the second end of the first gear housing; a fourth gear housing extending circumferentially between the second gear housing and the third gear housing; a first gear train located in the first gear housing; a second gear train located in the second gear housing, wherein a gear of the second gear train engages a first idler gear of the first gear train; a third gear train located in the third gear housing, wherein a first gear of the third gear train engages a second idler gear of the first gear train; and a fourth gear train located in the fourth gear housing, wherein a gear of the fourth gear train engages a second gear of the third gear train, and characterised in that the fourth gear housing comprises a first mounting surface and a second mounting surface opposite the first mounting surface.
A method of forming an embossed surface on a building panel, comprising the steps of: • providing a substrate, • forming an ink matrix having a horizontal and vertical extension by applying a curable ink on an upper part of the substrate by means of a digital ink head, • forming a cavity in a surface layer of the building panel by pressing a lower part of the substrate and the ink matrix located on the upper part of the substrate against the surface layer of the building panel, thereby forming an embossed surface of the building panel, said ink matrix being cured prior to pressing, and • removing the substrate with the ink matrix from the embossed surface, wherein the substrate is a foil or a structured release paper or a film. • providing a substrate, • forming an ink matrix having a horizontal and vertical extension by applying a curable ink on an upper part of the substrate by means of a digital ink head, • forming a cavity in a surface layer of the building panel by pressing a lower part of the substrate and the ink matrix located on the upper part of the substrate against the surface layer of the building panel, thereby forming an embossed surface of the building panel, said ink matrix being cured prior to pressing, and • removing the substrate with the ink matrix from the embossed surface,
A load migration method, comprising: obtaining, by a destination controller, a migration request from a migration scheduler, wherein the migration request carries an identifier of to-be-migrated user equipment, UE, the UE is to be migrated from a source controller to the destination controller; updating (208, 407), by the destination controller, resource information of the to-be-migrated UE in a database server based on the identifier of the to-be-migrated UE, wherein the updated resource information comprises a correspondence between the to-be-migrated UE and the destination controller, and the database server is connected to both the source controller and the destination controller; and sending, by the destination controller, an inter-domain update instruction to an external network element, wherein the inter-domain update instruction comprises the identifier of the to-be-migrated UE and an identifier of the destination controller. obtaining, by a destination controller, a migration request from a migration scheduler, wherein the migration request carries an identifier of to-be-migrated user equipment, UE, the UE is to be migrated from a source controller to the destination controller; updating (208, 407), by the destination controller, resource information of the to-be-migrated UE in a database server based on the identifier of the to-be-migrated UE, wherein the updated resource information comprises a correspondence between the to-be-migrated UE and the destination controller, and the database server is connected to both the source controller and the destination controller; and sending, by the destination controller, an inter-domain update instruction to an external network element, wherein the inter-domain update instruction comprises the identifier of the to-be-migrated UE and an identifier of the destination controller.
A data cross-connect system comprising: at least two first stage cross-connect modules, at least one second stage cross-connect module and at least one third stage cross-connect module; each of the at least two first stage cross-connect modules comprises: a first stage cross-connect sub-module, a signal packaging sub-module, a first information generation sub-module and at least one transmitter; the first information generation sub-module is configured to generate first information; the first stage cross-connect sub-module is configured to apply a first stage cross-connecting to input data signals based on the first information generated by the first information generation sub-module to obtain at least one channel of data signals, and send the at least one channel of data signals to the signal packaging sub-module; the signal packaging sub-module is configured to receive the at least one channel of data signals sent by the first stage cross-connect sub-module, package the at least one channel of data signals into at least one channel of electrical signals and send the at least one channel of electrical signals to the at least one transmitter; the data cross-connect system being characterized in that the at least one transmitter is configured to convert the at least one channel of electrical signals packaged by the signal packaging sub-module into at least one channel of optical signals whose effective areas are aligned, and send the at least one channel of optical signals to the at least one second stage cross-connect module, wherein one optical burst frame of the at least one channel of optical signals includes multiple optical burst signals and every optical burst signal includes one cross-connect granule which is packaged into the optical burst signal in order to support switching the cross-connect granule directly in an optical layer; the at least one second stage cross-connect module is configured to apply a second stage cross-connecting to the at least one channel of optical signals sent by the at least one transmitter included in each of the at least two first stage cross-connect modules respectively, and send the optical burst signals obtained after the cross-connecting to the at least one third stage cross-connect module so as to switch the cross-connect granules directly in an optical layer; the at least one third stage cross-connect module is configured to receive the optical burst signals sent by the at least one second stage cross-connect module, convert the optical burst signals into electrical signals, unpackage the electrical signals to obtain at least one channel of data signals and apply a third stage cross-connecting to the at least one channel of data signals to obtain output data signals wherein the first stage cross-connecting and the third stage cross-connecting are both in an electrical layer.
A horizontally slidable self-closing screen assembly which comprises at least one screen material connected to a roller biasing the screen to an open position, characterised in that the screen material comprises a thermally insulating material and the roller is operably connected to a counterweight and wherein the load provided by the counterweight under the operation of gravity is greater than the force provided by the roller biasing the screen.
A method for manufacturing a high-strength galvanized hot-rolled steel sheet, the method comprising: hot-rolling and pickling a steel slab having a chemical composition, the chemical composition including, in mass%, C: 0.02% or greater and 0.30% or less, Si: 0.01% or greater and 2.5% or less, Mn: 0.3% or greater and 3.0% or less, P: 0.08% or less, S: 0.02% or less, and Al: 0.001% or greater and 0.20% or less, optionally, in mass%, one or more of Ti: 0.01% or greater and 0.40% or less, Nb: 0.001% or greater and 0.200% or less, V: 0.001% or greater and 0.500% or less, Mo: 0.01% or greater and 0.50% or less, and W: 0.001% or greater and 0.200% or less, with a balance of Fe and incidental impurities; subsequently, performing rolling by using a roll having a surface roughness (Ra) of 0.3 to 1.0 at a rolling reduction ratio of 1 to 10%; and subsequently, performing hot-dip galvanizing. hot-rolling and pickling a steel slab having a chemical composition, the chemical composition including, in mass%, C: 0.02% or greater and 0.30% or less, Si: 0.01% or greater and 2.5% or less, Mn: 0.3% or greater and 3.0% or less, P: 0.08% or less, S: 0.02% or less, and Al: 0.001% or greater and 0.20% or less, optionally, in mass%, one or more of Ti: 0.01% or greater and 0.40% or less, Nb: 0.001% or greater and 0.200% or less, V: 0.001% or greater and 0.500% or less, Mo: 0.01% or greater and 0.50% or less, and W: 0.001% or greater and 0.200% or less, with a balance of Fe and incidental impurities; C: 0.02% or greater and 0.30% or less, Si: 0.01% or greater and 2.5% or less, Mn: 0.3% or greater and 3.0% or less, P: 0.08% or less, S: 0.02% or less, and Al: 0.001% or greater and 0.20% or less, optionally, in mass%, one or more of Ti: 0.01% or greater and 0.40% or less, Nb: 0.001% or greater and 0.200% or less, V: 0.001% or greater and 0.500% or less, Mo: 0.01% or greater and 0.50% or less, and W: 0.001% or greater and 0.200% or less, with a balance of Fe and incidental impurities; subsequently, performing rolling by using a roll having a surface roughness (Ra) of 0.3 to 1.0 at a rolling reduction ratio of 1 to 10%; and subsequently, performing hot-dip galvanizing.
A battery packaging material which comprises a laminated body including at least a coating layer, a barrier layer and a sealant layer in this order, wherein the material of the barrier layer is a film on which an inorganic compound is vapor-deposited or a metal foil, a resin component of the sealant layer can be heat-welded, the coating layer forms an outermost layer of the battery packaging material, the coating layer has a multilayer structure having two or more layers, the layers that form the coating layer are each formed of a cured product of a resin composition containing a thermosetting resin and a curing accelerator, and the layers that form the coating layer each have a thickness of 1 to 5 μm.
A linear motor heat dissipation structure comprising: multiple teeth arranged linearly at predetermined intervals each with a coil wound around a rectangular tube-shaped bobbin; and a heat dissipation member provided between adjacent coils that dissipates heat generated in the coils by transmitting the heat to an external section, characterized in that the heat dissipation member is sandwiched by bowed sections of the coils that are curved outwards within edges of the rectangular tube-shaped bobbin due to elastic force of the coils.
A medical system including: an actuator; a joint; a linkage having a first end attached to the joint and a second end mechanically coupled to the actuator to allow the transmission of a force for articulation of the joint, the linkage being compliant and stretching under a regulated value of actuator force by an amount corresponding to more than a permitted inaccuracy in joint articulation; a sensor coupled to measure a position of the joint; and a control system coupled to receive position measurements, to use the position measurements to determine an actuator force to be transmitted from the actuator to the linkage for the joint to converge on a current desired position, and to control the actuator to apply the determined actuator force. an actuator; a joint; a linkage having a first end attached to the joint and a second end mechanically coupled to the actuator to allow the transmission of a force for articulation of the joint, the linkage being compliant and stretching under a regulated value of actuator force by an amount corresponding to more than a permitted inaccuracy in joint articulation; a sensor coupled to measure a position of the joint; and a control system coupled to receive position measurements, to use the position measurements to determine an actuator force to be transmitted from the actuator to the linkage for the joint to converge on a current desired position, and to control the actuator to apply the determined actuator force.