mhurhangee/ep-ind-claims huggingface dataset:
A reinforcing bar binding machine comprising: a binding wire feed mechanism for feeding out a binding wire so as to wind around a reinforcing bar; a binding wire grasp mechanism for grasping and twisting the binding wire wound around the reinforcing bar; wherein the binding wire feed mechanism includes a main drive gear, a driven gear in mesh with the main drive gear, and a feed motor, wherein the driven gear is in elastic contact with the main drive gear so as to permit the gears (13, 14) and the binding wire to slip for restricting a pull back tension exerted to the binding wire to be equal to or smaller than a limit value of cutting the binding wire, and characterized in that the main drive gear comprises a V-groove and the driven gear comprises a V-groove, and that when the pull back tension exerted to the binding wire pinched between, the pair of gears (13, 14) exceeds a certain value, the gears (13, 14) are idly rotated and the pull back tension exerted to the binding wire is restricted, and that the reinforcing bar binding machine further comprises a control means adapted to reversely rotate the feed motor of the binding wire feed mechanism by a predetermined rotational number such that the binding wire feed mechanism pulls back a loop of the binding wire wound around the reinforcing bar to be brought into close contact with the reinforcing bar; and a detecting means adapted to detect a rotational number of the feed motor or the main drive gear. a binding wire feed mechanism for feeding out a binding wire so as to wind around a reinforcing bar; a binding wire grasp mechanism for grasping and twisting the binding wire wound around the reinforcing bar; wherein the binding wire feed mechanism includes a main drive gear, a driven gear in mesh with the main drive gear, and a feed motor, wherein the driven gear is in elastic contact with the main drive gear so as to permit the gears (13, 14) and the binding wire to slip for restricting a pull back tension exerted to the binding wire to be equal to or smaller than a limit value of cutting the binding wire, and characterized in that the main drive gear comprises a V-groove and the driven gear comprises a V-groove, and that when the pull back tension exerted to the binding wire pinched between, the pair of gears (13, 14) exceeds a certain value, the gears (13, 14) are idly rotated and the pull back tension exerted to the binding wire is restricted, and that the reinforcing bar binding machine further comprises a control means adapted to reversely rotate the feed motor of the binding wire feed mechanism by a predetermined rotational number such that the binding wire feed mechanism pulls back a loop of the binding wire wound around the reinforcing bar to be brought into close contact with the reinforcing bar; and a detecting means adapted to detect a rotational number of the feed motor or the main drive gear.
A Modified Vaccinia virus Ankara for use in a method of immunizing an animal, including a human, to protect against smallpox infection within 2-7 days after immunization, wherein a protective immune response is generated against smallpox within 2-7 days after immunization, and wherein the MVA is MVA-BN.
A device for diverting emboli (17, 18, 20) from cerebral circulation of a patient, comprising: a member (27, 32, 46) that is configured to press on a carotid artery of the patient to compress the carotid artery and limit blood flow through the carotid artery, wherein the member (27, 32, 46) is configured to be placed around the neck of the patient, wherein the member is an expandable member (27, 32, 46) that is configured to expand from a non-expanded configuration to an expanded configuration, wherein when the expandable member (27, 32, 46) is located at a neck of a patient and when in the expanded configuration the expandable member creates an area of compression of the carotid artery of the patient and restricts blood flow through the carotid artery, and wherein the device further comprises a pressure source that is configured to apply pressure to the expandable member (27, 32, 46) to move the expandable member from the non-expanded configuration to the expanded configuration and a manometer that is configured to measure the pressure applied by the pressure source; characterised in that the device further comprises an alarm system that is configured to measure a time of compression and a magnitude of compression of the expandable member, wherein if compression is applied for longer than a pre-determined time the alarm system activates an alarm and spontaneously pressure in the expandable member is released by the pressure source and/or the alarm system, and wherein the alarm and the release of pressure can be manually overridden. a member (27, 32, 46) that is configured to press on a carotid artery of the patient to compress the carotid artery and limit blood flow through the carotid artery, wherein the member (27, 32, 46) is configured to be placed around the neck of the patient, wherein the member is an expandable member (27, 32, 46) that is configured to expand from a non-expanded configuration to an expanded configuration, wherein when the expandable member (27, 32, 46) is located at a neck of a patient and when in the expanded configuration the expandable member creates an area of compression of the carotid artery of the patient and restricts blood flow through the carotid artery, and wherein the device further comprises a pressure source that is configured to apply pressure to the expandable member (27, 32, 46) to move the expandable member from the non-expanded configuration to the expanded configuration and a manometer that is configured to measure the pressure applied by the pressure source; characterised in that the device further comprises an alarm system that is configured to measure a time of compression and a magnitude of compression of the expandable member, wherein if compression is applied for longer than a pre-determined time the alarm system activates an alarm and spontaneously pressure in the expandable member is released by the pressure source and/or the alarm system, and wherein the alarm and the release of pressure can be manually overridden.
A method of making an electrode, comprising: applying a pressure of at least about 590 Newtons/cm 2 to a composition comprising a particulate electronically conductive material, an electrode active material, a binder, and a liquid wetting agent to form the electrode, wherein after the pressure has been applied to the composition, the electrode has a porosity of at least about 40%. applying a pressure of at least about 590 Newtons/cm 2 to a composition comprising a particulate electronically conductive material, an electrode active material, a binder, and a liquid wetting agent to form the electrode, wherein after the pressure has been applied to the composition, the electrode has a porosity of at least about 40%.
Hot application system for applying a flowable medium at an elevated temperature, in particular for applying hot-melt adhesives or hot-melt sealing compounds to a substrate, with at least one heated component (10, 1, 15) through which the flowable medium flows, characterized in that at least one of the components (10, 1, 15) includes a resistive heating element which has a coating containing CNT and/or a sealing compound containing CNT, whereby the at least one component (10, 1, 15) includes a tank for the medium, and/or whereby the at least one component (10, 1, 15) includes a feed hose for the medium, and/or whereby the at least one component (10, 1, 15) includes an application valve for applying the medium to a substrate.
Actuator for controlling an internal combustion engine, which actuator can be moved between a minimum and a maximum position and is acted on by a spring element which acts in a closing direction and by a spring element which acts in an opening direction and which has a first end and a second end, wherein the first end of the spring element is accommodated in a housing, wherein the spring element transmits its inherent internal stress in a radial direction and in a tangential direction either to a bearing point formed on the actuator or to a second bearing point of the housing, characterized in that the spring element, in the rest position, is held in its position, only by housing abutments, under internal preload.
A current detecting device including: an exciting coil wound around a magnetic core enclosing a conductor (1a, 1b) through which flows a measurement current; characterized by an oscillation means configured to generate a square wave voltage that causes the magnetism of an exciting current supplied to the exciting coil to invert in accordance with a set threshold value, with the magnetic core in a saturated state or a state in the vicinity thereof; a current detection means configured to detect the measurement current based on variation in the duty of the square wave voltage output from the oscillation means; a first overcurrent detection means configured to detect an overcurrent of the measurement current based on the frequency of the square wave voltage output from the oscillation means; and a second overcurrent detection means configured to detect an overcurrent of the measurement current based on the wave height value of the square wave voltage output from the oscillation means. an exciting coil wound around a magnetic core enclosing a conductor (1a, 1b) through which flows a measurement current; an oscillation means configured to generate a square wave voltage that causes the magnetism of an exciting current supplied to the exciting coil to invert in accordance with a set threshold value, with the magnetic core in a saturated state or a state in the vicinity thereof; a current detection means configured to detect the measurement current based on variation in the duty of the square wave voltage output from the oscillation means; a first overcurrent detection means configured to detect an overcurrent of the measurement current based on the frequency of the square wave voltage output from the oscillation means; and a second overcurrent detection means configured to detect an overcurrent of the measurement current based on the wave height value of the square wave voltage output from the oscillation means.
A medical connector, comprising: a substantially rigid housing having a first end and a second end, said first and second ends being connected by a selectively closable fluid passageway; said first end including a hollow male luer with an inner surface, a first open end, and a second base end; a first valve member supported substantially within the housing, the first valve member being configured to selectively seal an opening adjacent to the first end of the housing at the tip of the male luer when the connector is in a closed position; and an internal bladder member positioned within the housing and outside the male luer, the bladder member defining an inner cavity and fluidly coupled to the first valve member, the inner cavity of the bladder member having a first volume in the connector closed position and a second volume smaller than the first volume when the connector is in an open position, characterised in that the bladder member is integrally formed with the first valve member. a substantially rigid housing having a first end and a second end, said first and second ends being connected by a selectively closable fluid passageway; said first end including a hollow male luer with an inner surface, a first open end, and a second base end; a first valve member supported substantially within the housing, the first valve member being configured to selectively seal an opening adjacent to the first end of the housing at the tip of the male luer when the connector is in a closed position; and an internal bladder member positioned within the housing and outside the male luer, the bladder member defining an inner cavity and fluidly coupled to the first valve member, the inner cavity of the bladder member having a first volume in the connector closed position and a second volume smaller than the first volume when the connector is in an open position, characterised in that the bladder member is integrally formed with the first valve member.
An apparatus comprising: a plurality of radiating elements, wherein each radiating element in the plurality of radiating elements comprises a number of surface wave channels in which each of the number of surface wave channels is configured to constrain a path of a surface wave and comprises: a plurality of switch elements; and a plurality of impedance elements; and a surface wave feed configured to couple a surface wave channel in the number of surface wave channels of a radiating element in the plurality of radiating elements to a transmission line configured to carry a radio frequency signal, wherein the plurality of impedance elements in each of the number of surface wave channels are arranged in a repeating hexagonal-type pattern, and wherein each switch element is positioned within a gap between a first impedance element of the plurality of impedance elements and a second impedance element of the plurality of impedance elements, and wherein the switch element electrically connects the first impedance element to the second impedance element. a plurality of switch elements; and a plurality of impedance elements; and a surface wave feed configured to couple a surface wave channel in the number of surface wave channels of a radiating element in the plurality of radiating elements to a transmission line configured to carry a radio frequency signal, wherein the plurality of impedance elements in each of the number of surface wave channels are arranged in a repeating hexagonal-type pattern, and wherein each switch element is positioned within a gap between a first impedance element of the plurality of impedance elements and a second impedance element of the plurality of impedance elements, and wherein the switch element electrically connects the first impedance element to the second impedance element.
Turbomachine comprising a rotor mounted rotatably about an axis of rotation, an inner housing arranged about the rotor and an outer housing arranged about the inner housing, wherein a first flow region and a second flow region, formed in the opposite flow direction to the first flow region, are arranged between the rotor and the inner housing, wherein the rotor has a thrust-equalizing piston, wherein a piston-equalizing line is formed for introducing steam between the inner housing and the thrust-equalizing piston, wherein the piston-equalizing line outer surface is embodied enlarged with respect to a pipe outer surface and/or the piston-equalizing line inner surface is embodied enlarged with respect to a pipe inner surface, characterized in that outer cooling ribs are arranged on the piston-equalizing line outer surface, wherein the outer cooling ribs are arranged in series in the direction of the piston-equalizing line.
A method of minimizing components of a heating, ventilation, and air conditioning (HVAC) system from malfunctioning, the method comprising: measuring, by an accelerometer (127a, 127b) associated with at least one component of the HVAC system, vibration of the at least one component; receiving, by a controller, actual vibration data reflective of the measured vibration; determining, using the controller, whether the actual vibration data is greater than pre-defined acceptable baseline vibration data by more than a pre-defined acceptable amount; responsive to a positive determination in the determining step, adding, by the controller, as a deadband frequency, an operational frequency of the at least one component corresponding to the actual vibration data; and responsive to a negative determination in the determining step: determining, using the controller, whether the at least one component of the HVAC system is operating at maximum speed; responsive to a determination that the HVAC system is not operating at maximum speed, incrementally increasing, by the controller, the speed of the at least one component of the HVAC system; and returning to the measuring step. measuring, by an accelerometer (127a, 127b) associated with at least one component of the HVAC system, vibration of the at least one component; receiving, by a controller, actual vibration data reflective of the measured vibration; determining, using the controller, whether the actual vibration data is greater than pre-defined acceptable baseline vibration data by more than a pre-defined acceptable amount; responsive to a positive determination in the determining step, adding, by the controller, as a deadband frequency, an operational frequency of the at least one component corresponding to the actual vibration data; and responsive to a negative determination in the determining step: determining, using the controller, whether the at least one component of the HVAC system is operating at maximum speed; responsive to a determination that the HVAC system is not operating at maximum speed, incrementally increasing, by the controller, the speed of the at least one component of the HVAC system; and returning to the measuring step. determining, using the controller, whether the at least one component of the HVAC system is operating at maximum speed; responsive to a determination that the HVAC system is not operating at maximum speed, incrementally increasing, by the controller, the speed of the at least one component of the HVAC system; and returning to the measuring step.
A microcapsule of seasoning, comprising: a core, the core comprising at least one salt particle and a non-aqueous composition, wherein the salt particle comprises a particle size less than 25 microns and the non-aqueous composition surrounds or encapsulates the at least one salt particle, forms a suspension comprising the at least one salt particle, or forms a matrix comprising the at least one salt particle; and a first shell encapsulating the core. a core, the core comprising at least one salt particle and a non-aqueous composition, wherein the salt particle comprises a particle size less than 25 microns and the non-aqueous composition surrounds or encapsulates the at least one salt particle, forms a suspension comprising the at least one salt particle, or forms a matrix comprising the at least one salt particle; and a first shell encapsulating the core.
Method for producing a multilayer body, wherein the method comprises the following steps, which are carried out, in particular, in the following order: - providing a substrate; - applying a first layer made of a first metal onto the substrate; - applying a second layer made of a second metal directly onto the first layer in at least one first region, such that the optical appearance and/or the physical properties of the first and/or second layer are changed in the at least one first region, in particular due to a chemical and/or physical reaction of the first and the second layer with each other; characterised in that a mixing layer, in particular comprising the first and the second metal, is formed in the at least one first region between the first and second layer, in particular at least partially. - providing a substrate; - applying a first layer made of a first metal onto the substrate; - applying a second layer made of a second metal directly onto the first layer in at least one first region, such that the optical appearance and/or the physical properties of the first and/or second layer are changed in the at least one first region, in particular due to a chemical and/or physical reaction of the first and the second layer with each other;
A process for making a combined fertilizer comprising: i) a first nitrogen-based fertilizer; ii) one or more further components chosen among: one or more second nitrogen-based fertilizer(s) different from said first nitrogen-based fertilizer, and one or more nutrient(s), the process being characterized in that said combined fertilizer is made by a process of granulation in a fluid bed comprising the steps of: providing a first liquid feed to a first region of the granulation environment, providing a second liquid feed to a second region of said environment, wherein solid particles acting as starting points for the granulation process are fed to said first region of the granulation environment, and said second region is downstream said first region; and wherein in the first region of the granulation environment, the first liquid feed solidifies on the solids seeds forming a binder layer around the solid seeds, and the second liquid feed has the form of a micronized slurry of said one or more further components in the first nitrogen-based fertilizer, which is sprayed over the granules previously formed in the first region. i) a first nitrogen-based fertilizer; ii) one or more further components chosen among: one or more second nitrogen-based fertilizer(s) different from said first nitrogen-based fertilizer, and one or more nutrient(s), providing a first liquid feed to a first region of the granulation environment, providing a second liquid feed to a second region of said environment, wherein solid particles acting as starting points for the granulation process are fed to said first region of the granulation environment, and said second region is downstream said first region; and wherein in the first region of the granulation environment, the first liquid feed solidifies on the solids seeds forming a binder layer around the solid seeds, and the second liquid feed has the form of a micronized slurry of said one or more further components in the first nitrogen-based fertilizer, which is sprayed over the granules previously formed in the first region.
A turbomachine, in particular turbocompressor, having a housing, with a rotor mounted in the housing, and having a dry gas seal for sealing the rotor relative to the housing, wherein into the housing at least one recess or bore for a gaseous medium is introduced, via which the gaseous medium for temperature-controlling the dry gas seal can be conducted in the direction of the same, wherein the gaseous medium can be directly conducted via the or each recess or bore into a gas space formed between the housing and the dry gas seal, characterized in that the or each recess or bore receives a guide tube for the gaseous medium and between the respective guide tube and a wall of the bore receiving the guide tube a free space is formed which is coupled to the gas space via a bore introduced into the housing.