mhurhangee/ep-ind-claims huggingface dataset:
A cold-rolled high-strength steel sheet having a tensile strength TS of 980 MPa or higher measured according to JIS Z 2241, and having a component composition containing, in mass%, C: 0.07 to 0.14%, Si: 0.65 to 1.65%, Mn: 1.8 to 2.6%, P: 0.05% or less, S: 0.005% or less, Al: 0.08% or less, N: 0.0060% or less, Ti: 0.005 to 0.030%, B: 0.0002 to 0.0030%, either or both of Cr: 0.01 to 0.40% and Mo: 0.01 to 0.50%, optionally, in mass%, one or two or more selected from V: 0.001 to 0.3%, Cu: 0.001 to 0.1%, and Ni: 0.001 to 0.2%, with the balance being Fe and incidental impurities, and the following expression being satisfied, wherein: an average grain size of a ferrite phase is 1.5 μm or less; an area ratio of the ferrite phase is 2% or more and 15% or less; an area ratio of a tempered martensite phase is 75% or more and 96% or less and an area ratio of a retained austenite phase and/or a bainite phase is 4% or less; and a total length per unit area of an interface between an untempered martensite phase and the ferrite phase and an interface between the untempered martensite phase and the tempered martensite phase is 6.3 × 10 8 μm/m 2 or more and 5.0 × 10 11 μm/m 2 or less; [Mathematical Expression 1] % Cr + 2.6 % Mo % C ≥ 2.0 wherein [%M] (M = Cr, Mo, C) represents content of each element in mass%. C: 0.07 to 0.14%, Si: 0.65 to 1.65%, Mn: 1.8 to 2.6%, P: 0.05% or less, S: 0.005% or less, Al: 0.08% or less, N: 0.0060% or less, Ti: 0.005 to 0.030%, B: 0.0002 to 0.0030%, either or both of Cr: 0.01 to 0.40% and Mo: 0.01 to 0.50%, optionally, in mass%, one or two or more selected from V: 0.001 to 0.3%, Cu: 0.001 to 0.1%, and Ni: 0.001 to 0.2%,
A cutting drum for a borer miner having a longitudinal axis to extend transverse or perpendicular to rotational axes (33a, 33b) of forwardmost primary cutting rotors (15a, 15b) of the borer miner, the drum comprising: a main body centred on the longitudinal axis and having an external facing drum face; a plurality of cutting pick holders projecting outwardly from the drum face to mount respective cutting picks at the main body; characterised by: a plurality of material transport blades each having a respective outward facing blade face being raised radially from the drum face, each of the blades extending generally lengthwise along the drum between the pick holders and positioned side-by-side in a circumferential direction around the drum to cover the drum face, with each face being elongate in the axial direction of drum. a main body centred on the longitudinal axis and having an external facing drum face; a plurality of cutting pick holders projecting outwardly from the drum face to mount respective cutting picks at the main body; characterised by: a plurality of material transport blades each having a respective outward facing blade face being raised radially from the drum face, each of the blades extending generally lengthwise along the drum between the pick holders and positioned side-by-side in a circumferential direction around the drum to cover the drum face, with each face being elongate in the axial direction of drum.
Method for producing biological material-coated solid-phase fragments, comprising: - providing a biological material-coated solid-phase support, the solid-phase support being in a fragmented state and the fragments adhering to a film; - generating a tensile stress on the film coated with the solid-phase fragments; - contacting the film with a lifting head in order to pre-detach one solid-phase fragment from the film such that at least 20% of a surface side of the solid-phase fragment from the film is detached, wherein, in the contacting step, the lifting head presses the film in the direction of the coated surface of the solid-phase fragment and wherein the pressing by the lifting head does not damage, tear or puncture the film, and - finally detaching the one pre-detached solid-phase fragment from the film by means of a unit having a suction cup so that 100% of the previously bound surface side of the solid-phase fragment is detached from the film. - providing a biological material-coated solid-phase support, the solid-phase support being in a fragmented state and the fragments adhering to a film; - generating a tensile stress on the film coated with the solid-phase fragments; - contacting the film with a lifting head in order to pre-detach one solid-phase fragment from the film such that at least 20% of a surface side of the solid-phase fragment from the film is detached, wherein, in the contacting step, the lifting head presses the film in the direction of the coated surface of the solid-phase fragment and wherein the pressing by the lifting head does not damage, tear or puncture the film, and - finally detaching the one pre-detached solid-phase fragment from the film by means of a unit having a suction cup so that 100% of the previously bound surface side of the solid-phase fragment is detached from the film.
A minimal access tool, comprising: a frame; a tool shaft having a proximal end and a distal end, the tool shaft proximal end connected to the frame; an input joint having a first end connected to the frame and a second end arranged to receive user input; and an output joint connected to the tool shaft distal end, wherein the output joint is coupled to the input joint via a mechanical transmission connected therebetween to correlate motion of the input joint to motion of the output joint, wherein the input joint includes a virtual center-of-rotation mechanism which provides a center of rotation that generally coincides with a wrist joint of the user, the VC mechanism providing the same two degrees of freedom, namely pitch rotation and yaw rotation, as the wrist joint of the user, and wherein the mechanical transmission is arranged to transmit the two rotations of the VC mechanism, thereby transmitting the pitch rotation and the yaw rotation of the wrist joint of the user to two corresponding rotations of the output joint, characterized in that the frame is arranged to be attached to the user's forearm via an arm attachment member. a frame; a tool shaft having a proximal end and a distal end, the tool shaft proximal end connected to the frame; an input joint having a first end connected to the frame and a second end arranged to receive user input; and an output joint connected to the tool shaft distal end, wherein the output joint is coupled to the input joint via a mechanical transmission connected therebetween to correlate motion of the input joint to motion of the output joint, wherein the input joint includes a virtual center-of-rotation mechanism which provides a center of rotation that generally coincides with a wrist joint of the user, the VC mechanism providing the same two degrees of freedom, namely pitch rotation and yaw rotation, as the wrist joint of the user, and wherein the mechanical transmission is arranged to transmit the two rotations of the VC mechanism, thereby transmitting the pitch rotation and the yaw rotation of the wrist joint of the user to two corresponding rotations of the output joint, characterized in that the frame is arranged to be attached to the user's forearm via an arm attachment member.
A machine for making composite filters comprising at least one combining unit for combining groups of filter sticks, the groups having, relative to their axis, a length which is variable from a minimum to a maximum value, a first conveyor rotating about an axis parallel to the axis of the groups of filter sticks and equipped with a plurality of first carrier assemblies, each having at least one first hold-down seat with axis parallel to the axis of the groups of filter sticks; a second conveyor rotating about an axis parallel to the first conveyor and equipped with a plurality of second carrier assemblies, each having at least one second hold-down seat with axis substantially perpendicular to the axis of the first seat, the second seats being able to describe a circle whose radius varies from a minimum to a maximum with variation of the length of the groups of filter sticks; a forming beam for forming at least one continuous succession of groups of filter sticks in reciprocal contact and alignment along the axis, each succession forming a continuous rod of filter sticks; a transfer unit interposed between the first and the second rotating conveyor (4, 7); the machine being characterized in that the transfer unit comprises adapter means capable of adapting the selfsame transfer unit to variations of the circle described by the second seats of the second conveyor.
A computer-implemented method, executed on a computing device (12, 22, 24), comprising: associating a unique identifier with an entity, wherein the entity includes one or more of: a company, an organization, a corporation and an individual; intercepting network traffic directed toward the unique identifier via a router deployed inside of a network operated by the entity; routing, via the router, all of the network traffic out of the network operated by the entity to a private honeypot computing device associated with the entity deployed outside of the network operated by the entity; gathering information on a type of attack utilized against the private honeypot; importing the gathered information by a Security Information and Event Management, SIEM, platform; and processing the gathered information to effectuate generating a plurality of raw threat data definitions associated with the gathered information. associating a unique identifier with an entity, wherein the entity includes one or more of: a company, an organization, a corporation and an individual; intercepting network traffic directed toward the unique identifier via a router deployed inside of a network operated by the entity; routing, via the router, all of the network traffic out of the network operated by the entity to a private honeypot computing device associated with the entity deployed outside of the network operated by the entity; gathering information on a type of attack utilized against the private honeypot; importing the gathered information by a Security Information and Event Management, SIEM, platform; and processing the gathered information to effectuate generating a plurality of raw threat data definitions associated with the gathered information.
Ventilation and air conditioning system suitable for a room, the room containing a heat source and the ventilation and air conditioning system comprising a cooled air supply and a ventilation duct, • the ventilation duct comprising a primary inlet being connected to the cooled air supply and an outlet intended to lead into the room, • wherein a number of heat storage elements is arranged inside the ventilation duct between the primary inlet and the outlet, • such that during operation of the cooled air supply there is a forced stream of cooled air through the ventilation duct, thereby cooling and preferably freezing the heat storage elements, and • wherein there is a secondary inlet into the ventilation duct which intended to be in flow communication with the room and which during operation of the cooled air supply is closed by a damper, the ventilation and air conditioning system being characterized in that the damper is designed to automatically open in a passive manner when the forced stream of cooled air from the cooled air supply stops, such that a natural convection airflow through the ventilation duct is supported, wherein the natural convection airflow is cooled by transferring heat to the heat storage elements. • the ventilation duct comprising a primary inlet being connected to the cooled air supply and an outlet intended to lead into the room, • wherein a number of heat storage elements is arranged inside the ventilation duct between the primary inlet and the outlet, • such that during operation of the cooled air supply there is a forced stream of cooled air through the ventilation duct, thereby cooling and preferably freezing the heat storage elements, and • wherein there is a secondary inlet into the ventilation duct which intended to be in flow communication with the room and which during operation of the cooled air supply is closed by a damper,
A biological electrode, which comprises a conductive composite fiber containing a conductive polymer wherein the conductive composite fiber is a fiber wherein a conductor bonds multiple base fibers, the interior of the base fibers is impregnated with the conductor, and the conductor contains PEDOT-PSS as the conductive polymer, wherein said biological electrode comprises cord-like, band-like, or cloth-like contacts (311, 321, 331) which is composed of said conductive composite fibers and wherein said contacts are supported by an arcuate or a hairpin-like frame (312, 313, 322, 323), wherein the arcuate frame includes arcuate first frames and a second frame, the contacts are fixed like a bowstring to two ends of the arcuate first frames, and the second frame is laid across the first frames as a beam that fixes the respective first frames, and the hairpin-like frame includes a frame and fixing posts, the frame has a hairpin structure, the fixing posts are respectively fixed by a distal end part and a curved part of the frame, and the contacts are fixed like a bowstring to the frame via fixing posts. the contacts are fixed like a bowstring to two ends of the arcuate first frames, and the second frame is laid across the first frames as a beam that fixes the respective first frames, and the frame has a hairpin structure, the fixing posts are respectively fixed by a distal end part and a curved part of the frame, and the contacts are fixed like a bowstring to the frame via fixing posts.
A wind turbine system comprising a plurality of wind turbines mounted to a common support structure, wherein each of the plurality of wind turbines includes a rotor and a power generation system driven by the rotor, wherein the wind turbine system further comprises: localised control means including a plurality of local control modules arranged to optimise the performance of a respective one of the plurality of wind turbines in line with a set of local control objectives, wherein each of the local control modules is operable to monitor the operation of the respective one of the plurality of wind turbines, and to issue local control commands thereto to achieve the set of local control objectives; centralised control means configured to monitor the operation of the wind turbine system and provide centralised control commands to the plurality of wind turbines in order to achieve a set of supervisory control objectives associated with at least two of the plurality of wind turbines, characterized in that the centralised control means is further arranged to determine the set of local control objectives and provide the local control objectives to the plurality of wind turbines. localised control means including a plurality of local control modules arranged to optimise the performance of a respective one of the plurality of wind turbines in line with a set of local control objectives, wherein each of the local control modules is operable to monitor the operation of the respective one of the plurality of wind turbines, and to issue local control commands thereto to achieve the set of local control objectives; centralised control means configured to monitor the operation of the wind turbine system and provide centralised control commands to the plurality of wind turbines in order to achieve a set of supervisory control objectives associated with at least two of the plurality of wind turbines, characterized in that the centralised control means is further arranged to determine the set of local control objectives and provide the local control objectives to the plurality of wind turbines.
Carbon material-containing granulated particles in the production of sintered ore, the carbon material-containing granulated particles comprised of a carbon material core and an outer layer formed around the carbon material core and composed mainly of iron ore powder and CaO-containing raw material.
A system configured to provide a gas flow for delivery to an airway of a subject, the system comprising: means for generating a gas flow having one or more properties that facilitate respiration of the subject; means configured to make the at least one of the one or more properties of the gas flow to be (a) adjustable and (b) restricted to adjustments to current levels of the at least one of the one or more properties of the gas flow that is being delivered to the airway of the subject and that fall within a predetermined acceptable range to maintain a safety of ventilation for the subject; means for receiving a selection of an adjustment from the subject for at least one of the one or more properties of the gas flow; means for making the selected adjustment to the at least one of the one or more properties of the gas flow if the at least one of the one or more properties of the gas flow will remain within the predetermined acceptable range to maintain the safety of ventilation for the subject after the selected adjustment is made; and means for declining to make the selected adjustment to the at least one of the one or more properties of the gas flow if the at least one of the one or more properties of the gas flow would not remain within the predetermined acceptable range after the selected adjustment, which prevents an improper adjustment that could expose the subject to risks to health and/or safety. means for generating a gas flow having one or more properties that facilitate respiration of the subject; means configured to make the at least one of the one or more properties of the gas flow to be (a) adjustable and (b) restricted to adjustments to current levels of the at least one of the one or more properties of the gas flow that is being delivered to the airway of the subject and that fall within a predetermined acceptable range to maintain a safety of ventilation for the subject; means for receiving a selection of an adjustment from the subject for at least one of the one or more properties of the gas flow; means for making the selected adjustment to the at least one of the one or more properties of the gas flow if the at least one of the one or more properties of the gas flow will remain within the predetermined acceptable range to maintain the safety of ventilation for the subject after the selected adjustment is made; and means for declining to make the selected adjustment to the at least one of the one or more properties of the gas flow if the at least one of the one or more properties of the gas flow would not remain within the predetermined acceptable range after the selected adjustment, which prevents an improper adjustment that could expose the subject to risks to health and/or safety.
An introducer for facilitating placement of an implantable monitor, the introducer comprising: a body portion; and an indicator cooperating with the body portion and configured to indicate at least one of width, depth, and position for an arrangement of the implantable monitor relative to a patient, wherein the indicator is configured to sense an impedance measurement of the patient and indicate the position for the arrangement of the implantable monitor in response thereto. a body portion; and an indicator cooperating with the body portion and configured to indicate at least one of width, depth, and position for an arrangement of the implantable monitor relative to a patient, wherein the indicator is configured to sense an impedance measurement of the patient and indicate the position for the arrangement of the implantable monitor in response thereto.
A triboelectric generator comprising: first and second electrodes (121,122) spaced apart from each other; a first electrification layer on a surface of the first electrode facing the second electrode, and including a dielectric material; a second electrification layer on a surface of the second electrode facing the first electrode, electrified with charges of an opposite polarity with respect to the first electrification layer due to contact with the first electrification layer, characterized in that, the second electrification layer including a metallic material configured to generate surface plasmon resonance due to light of a desired wavelength; and a light source configured to irradiate the light onto the second electrification layer. first and second electrodes (121,122) spaced apart from each other; a first electrification layer on a surface of the first electrode facing the second electrode, and including a dielectric material; a second electrification layer on a surface of the second electrode facing the first electrode, electrified with charges of an opposite polarity with respect to the first electrification layer due to contact with the first electrification layer, characterized in that, the second electrification layer including a metallic material configured to generate surface plasmon resonance due to light of a desired wavelength; and a light source configured to irradiate the light onto the second electrification layer.
A multilayer film, comprising an outer layer, an inner layer, a core layer between the outer layer and the inner layer, an outer sub-layer between the outer layer and the core layer, and an inner sub-layer between the inner layer and the core layer, wherein (a) the outer layer comprises a first polyethylene derived from ethylene and one or more C 3 to C 20 α-olefin comonomers, wherein the first polyethylene has a density (sample prepared according to ASTM D-4703, and the measurement according to ASTM D-1505) of from 0.900 to 0.945 g/cm 3, a melt index, I 2.16, of from 0.1 to 15 g/10 min, a molecular weight distribution (MWD, measured using a gel permeation chromatograph equipped with a differential refractive index detector) of from 1.5 to 5.5, and a melt index ratio, I 21.6 /I 2.16, of from 10 to 100; (b) the outer sub-layer comprises at least one of a second polyethylene and ethylene-vinyl acetate, wherein the second polyethylene has a density higher than that of the first polyethylene; and (c) each of the core layer, the inner sub-layer, and the inner layer comprises EVA, wherein the vinyl acetate content (VA%) of the EVA in the core layer is no lower than that in the inner sub-layer, and the VA% of the EVA in the inner sub-layer is higher than that in the inner layer. (a) the outer layer comprises a first polyethylene derived from ethylene and one or more C 3 to C 20 α-olefin comonomers, wherein the first polyethylene has a density (sample prepared according to ASTM D-4703, and the measurement according to ASTM D-1505) of from 0.900 to 0.945 g/cm 3, a melt index, I 2.16, of from 0.1 to 15 g/10 min, a molecular weight distribution (MWD, measured using a gel permeation chromatograph equipped with a differential refractive index detector) of from 1.5 to 5.5, and a melt index ratio, I 21.6 /I 2.16, of from 10 to 100; (b) the outer sub-layer comprises at least one of a second polyethylene and ethylene-vinyl acetate, wherein the second polyethylene has a density higher than that of the first polyethylene; and (c) each of the core layer, the inner sub-layer, and the inner layer comprises EVA, wherein the vinyl acetate content (VA%) of the EVA in the core layer is no lower than that in the inner sub-layer, and the VA% of the EVA in the inner sub-layer is higher than that in the inner layer.