mhurhangee/ep-ind-claims huggingface dataset:
Tyre for vehicle wheels, comprising a tread band comprising circumferential grooves (2, 3, 4, 5), circumferential ribs (50, 51, 52) defined by said circumferential grooves (2, 3, 4, 5) and a plurality of sipes that extend, on said circumferential ribs (50, 51, 52), from a radially outer surface of the tread band towards a radially inner portion of the tread band, wherein said sipes extend along a predetermined trajectory and comprise, in any cross section perpendicular to said predetermined trajectory, a main portion having a first radial dimension (H') and a first transversal dimension (T, T') substantially constant along a radial direction and, in a radially outer position with respect to said main portion, a top portion extending up to said radially outer surface of the tread band and having, at said radially outer surface of the tread band, a second transversal dimension greater than said first transversal dimension (T, T'); wherein said predetermined trajectory is defined by a broken line comprising two straight parts (11, 12), wherein said broken line comprises a longer first part and a shorter second part inclined with respect to said first part by an angle comprised between about 90° and about 170°, the extreme values being included.
A heating apparatus arranged to heat a uranium material container, comprising: a heating chamber in which a heater is configured to heat a heating liquid; characterized in that the heating apparatus comprises: a heat exchanger configured to receive the heating liquid from the heating chamber and to transfer heat energy from the heating liquid to a separate heating fluid; a uranium material heating chamber configured to receive heated heating fluid from the heat exchanger to heat a uranium material container in the chamber, wherein the apparatus is arranged to direct the heated heating fluid from an exit of the heat exchanger to an entrance of the uranium material heating chamber; and a pressure regulator configured to control a pressure inside the heating chamber, wherein the regulator is coupled at a first side to a pressure in the heating chamber and at a second side to atmospheric pressure outside the apparatus. a heating chamber in which a heater is configured to heat a heating liquid; characterized in that the heating apparatus comprises: a heat exchanger configured to receive the heating liquid from the heating chamber and to transfer heat energy from the heating liquid to a separate heating fluid; a uranium material heating chamber configured to receive heated heating fluid from the heat exchanger to heat a uranium material container in the chamber, wherein the apparatus is arranged to direct the heated heating fluid from an exit of the heat exchanger to an entrance of the uranium material heating chamber; and a pressure regulator configured to control a pressure inside the heating chamber, wherein the regulator is coupled at a first side to a pressure in the heating chamber and at a second side to atmospheric pressure outside the apparatus. a heat exchanger configured to receive the heating liquid from the heating chamber and to transfer heat energy from the heating liquid to a separate heating fluid; a uranium material heating chamber configured to receive heated heating fluid from the heat exchanger to heat a uranium material container in the chamber, wherein the apparatus is arranged to direct the heated heating fluid from an exit of the heat exchanger to an entrance of the uranium material heating chamber; and a pressure regulator configured to control a pressure inside the heating chamber, wherein the regulator is coupled at a first side to a pressure in the heating chamber and at a second side to atmospheric pressure outside the apparatus.
An electrical insulation device for a linear component forming part of a fuel system subjected to risks of possible external electrical discharges, the device being formed by two metal flanges (15, 17) and a part made of insulating material attached to the said two metal flanges (15, 17) that allow inserting the device between two parts of said linear component, said part being formed by a cylindrical body extending around the longitudinal axis of the electrical insulation device, the said cylindrical body being provided with a castellated crown on its outer side, formed by longitudinal and transverse segments, and said metal flanges (15, 17) having transverse projections (31, 33) facing the transverse segments of the castellated crown for facilitating their attachment by suitable means, characterised in that the longitudinal and transverse segments forms axial recesses there between thereby forming said castellated crown, wherein the said axial recesses being provided in the direction of the longitudinal axis with one end open and the other end being closed by the said transverse segments such that in the circumferential direction around said longitudinal axis, the two consecutive recesses, which are separated by a common longitudinal segment, have the openings arranged, in said direction of the longitudinal axis, at the opposite ends of the said part.
A microfluidic system for the production of a radiopharmaceutical composition comprising: a) a Radioisotope Isolation Module configured to receive an aqueous solution comprising a radioisotope; b) a Radiopharmaceutical Production Module configured to receive a first sample which comprises a concentrated and activated radioisotope from the RIM; c) a Purification Module configured to receive a second sample which comprises a radiopharmaceutical and one or more further components from the RPM; and d) a Quality Control Module, configured to receive a third sample from the PM which comprises a purified radiopharmaceutical and which is further configured to determine one or more characteristics of the third sample, wherein each of the modules is a microfluidic component, wherein the microfluidic system comprises a system having at least one channel for fluid flow, the channel having at least one dimension of less than 500μm. a) a Radioisotope Isolation Module configured to receive an aqueous solution comprising a radioisotope; b) a Radiopharmaceutical Production Module configured to receive a first sample which comprises a concentrated and activated radioisotope from the RIM; c) a Purification Module configured to receive a second sample which comprises a radiopharmaceutical and one or more further components from the RPM; and d) a Quality Control Module, configured to receive a third sample from the PM which comprises a purified radiopharmaceutical and which is further configured to determine one or more characteristics of the third sample, wherein each of the modules is a microfluidic component,
A support device for an automatic concrete pump, comprising a frame with a set according to claim 9, wherein the swivel legs (10, 12) are hinged to the frame so as to be able to swivel relative to each other, wherein the swivelling section of the front swivel leg is swivel-mounted on the frame.
A composition for the manufacture of a porous, compressible article, the composition comprising a combination of: from 30 to 65 wt.% of reinforcing fibers, having average fiber length of from 5 to 75 millimeters, and average fiber diameter of from 5 to 125 micrometers; from 30 to 65 wt.% of polysulfone fibers, having average fiber length of from 5 to 75 millimeters, and average fiber diameter of from 5 to 125 micrometers; and from 2 to 20 wt.% of polymeric binder fibers, having average fiber length of from 2 millimeters to 25 millimeters, and average fiber diameter of from 5 to 50 micrometers; dispersed as a network in an aqueous solvent; wherein the polymeric binder fibers have a melting point lower than the polysulfone fibers. from 30 to 65 wt.% of reinforcing fibers, having average fiber length of from 5 to 75 millimeters, and average fiber diameter of from 5 to 125 micrometers; from 30 to 65 wt.% of polysulfone fibers, having average fiber length of from 5 to 75 millimeters, and average fiber diameter of from 5 to 125 micrometers; and from 2 to 20 wt.% of polymeric binder fibers, having average fiber length of from 2 millimeters to 25 millimeters, and average fiber diameter of from 5 to 50 micrometers; dispersed as a network in an aqueous solvent; wherein the polymeric binder fibers have a melting point lower than the polysulfone fibers.
A microelectromechanical system comprising a fixed support (14, 64, 74, 94, 104), at least one partly mobile mass element (13, 53, 73, 83, 93, 103) which is suspended from the fixed support (14, 64, 74, 94, 104) by one or more suspension units, and at least one drive transducer which is configured to set the partly mobile mass element in resonance oscillation at a resonance frequency, wherein each suspension unit comprises one or more first springs (111, 112, 311 - 314, 411 - 412, 511 - 512, 61, 71, 81, 91, 101) which extend from the fixed support to the partly mobile mass element, characterized in that each suspension unit also comprises one or more second springs (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102), and each second spring (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102) extends from the fixed support (14, 64, 74, 94, 104) to the partly mobile mass element (13, 53, 73, 83, 93, 103) parallel and adjacent to one first spring (111, 112, 311 - 314, 411 - 412, 511 - 512, 61, 71, 81, 91, 101), and that the one or more first springs (111, 112, 311 - 314, 411 - 412, 511 - 512, 61, 71, 81, 91, 101) are electrically isolated from the one or more second springs (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102), and the microelectromechanical system further comprises a voltage source configured to apply a frequency tuning voltage between the one or more first springs (111, 112, 311 - 314, 411 - 412, 511 - 512, 61, 71, 81, 91, 101) and the one or more second springs (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102). characterized in that each suspension unit also comprises one or more second springs (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102), and each second spring (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102) extends from the fixed support (14, 64, 74, 94, 104) to the partly mobile mass element (13, 53, 73, 83, 93, 103) parallel and adjacent to one first spring (111, 112, 311 - 314, 411 - 412, 511 - 512, 61, 71, 81, 91, 101), and that the one or more first springs (111, 112, 311 - 314, 411 - 412, 511 - 512, 61, 71, 81, 91, 101) are electrically isolated from the one or more second springs (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102), and the microelectromechanical system further comprises a voltage source configured to apply a frequency tuning voltage between the one or more first springs (111, 112, 311 - 314, 411 - 412, 511 - 512, 61, 71, 81, 91, 101) and the one or more second springs (121, 122, 321 - 324, 42, 521 - 522, 62, 72, 82, 92, 102).
A heat dissipator for a charging connector, comprising: a body, wherein a cooling chamber is formed in the body and a receiving hole is defined at an inner circumference of the body, the receiving hole being configured to accommodate the charging connector; an air blower mounted on the body; and a plurality of first heat sinks distributed on an outer surface of the body, wherein an inlet of the cooling chamber is arranged at a bottom of the body and spaced apart from the plurality of first heat sinks in the radial direction of the body, wherein an air vent is provided on the body, through which the air from the air blower flows to the plurality of first heat sinks. a body, wherein a cooling chamber is formed in the body and a receiving hole is defined at an inner circumference of the body, the receiving hole being configured to accommodate the charging connector; an air blower mounted on the body; and a plurality of first heat sinks distributed on an outer surface of the body, wherein an inlet of the cooling chamber is arranged at a bottom of the body and spaced apart from the plurality of first heat sinks in the radial direction of the body, wherein an air vent is provided on the body, through which the air from the air blower flows to the plurality of first heat sinks.
An assembly platform (40, 40') for the assembly of wind energy assemblies, wherein a receiving device (41, 42) is provided, which is provided for receiving at least one part of a floating body, wherein the receiving device (41, 42) is complementary in shape to the part (43, 44) of the floating body to be received, wherein the receiving device is arranged laterally in the assembly platform, wherein the receiving device is a recess in the assembly platform.
Preform device for producing a tread portion having at least two rubber components arranged in series in a horizontal direction, comprising at least - a first tread channel with a first mouth opening, the first mouth opening having one, two, three, four, five, six, seven, eight, nine or more than nine mouth opening portions, and - a second tread channel with a second mouth opening, the second mouth opening having one, two, three, four, five, six, seven, eight, nine or more than nine mouth opening portions, wherein a horizontal cross section of the preform device - has mouth opening portions (6, 7) arranged in series in the horizontal direction, the mouth opening portions (6, 7) arranged in series in the horizontal direction alternately belonging to the first and to the second mouth opening (4, 5), or - has tread channel portions arranged in series in the horizontal direction, the tread channel portions arranged in series in the horizontal direction alternately belonging to the first and to the second tread channel (2, 3), wherein the individual mouth opening portions of the first mouth opening are spatially separated from the individual mouth opening portions of the second mouth opening by a mouth partition, characterized in that the mouth partition has a wave-like or zigzag-like form or the form of a rectangle function. - a first tread channel with a first mouth opening, the first mouth opening having one, two, three, four, five, six, seven, eight, nine or more than nine mouth opening portions, and - a second tread channel with a second mouth opening, the second mouth opening having one, two, three, four, five, six, seven, eight, nine or more than nine mouth opening portions, wherein a horizontal cross section of the preform device - has mouth opening portions (6, 7) arranged in series in the horizontal direction, the mouth opening portions (6, 7) arranged in series in the horizontal direction alternately belonging to the first and to the second mouth opening (4, 5), or - has tread channel portions arranged in series in the horizontal direction, the tread channel portions arranged in series in the horizontal direction alternately belonging to the first and to the second tread channel (2, 3), wherein the individual mouth opening portions of the first mouth opening are spatially separated from the individual mouth opening portions of the second mouth opening by a mouth partition, characterized in that the mouth partition has a wave-like or zigzag-like form or the form of a rectangle function.
A method of characterizing vulnerabilities of an application source code, comprising one or more computer processors performing steps including: traversing a representation of the application source code, the representation of the application source code comprising an abstract syntax tree of the application source code; identifying a potential vulnerable node during traversal of the representation of the application source code; collecting metadata of the potential vulnerable node, the metadata comprising information of one or more parent nodes or child nodes associated with the potential vulnerable node; generating a signature of the potential vulnerability associated with the potential vulnerable node by hashing the collected metadata; correlating between the generated signature of the potential vulnerability and previously stored signatures of potential vulnerabilities from previous traverses of the application source code; and determining characteristics of whether the potential vulnerability is a new vulnerability or redundant vulnerability based on said correlation. traversing a representation of the application source code, the representation of the application source code comprising an abstract syntax tree of the application source code; identifying a potential vulnerable node during traversal of the representation of the application source code; collecting metadata of the potential vulnerable node, the metadata comprising information of one or more parent nodes or child nodes associated with the potential vulnerable node; generating a signature of the potential vulnerability associated with the potential vulnerable node by hashing the collected metadata; correlating between the generated signature of the potential vulnerability and previously stored signatures of potential vulnerabilities from previous traverses of the application source code; and determining characteristics of whether the potential vulnerability is a new vulnerability or redundant vulnerability based on said correlation.
A printer configured to print on paper drawn from a paper roll and separate the printed part of the paper as a cut-off paper, comprising: a movable blade for cutting the paper disposed between a fixed blade and the movable blade as the movable blade moves in a forward direction and thereby separating the printed part of the paper as a cut-off paper; driving means for moving the movable blade in a reciprocating manner; a pushing member configured to be driven to push the cut-off paper in a pushing direction, the pushing direction being a thickness direction of the paper; a paper stacking portion for storing the cut-off paper pushed by the pushing member in a stacked manner; and a driving force transferring mechanism for transferring a driving force of the driving means to the pushing member so that the pushing member is thereby driven, characterized in that the driving force of the driving means transferred to the pushing member is a driving force for moving the movable blade in a backward direction. a movable blade for cutting the paper disposed between a fixed blade and the movable blade as the movable blade moves in a forward direction and thereby separating the printed part of the paper as a cut-off paper; driving means for moving the movable blade in a reciprocating manner; a pushing member configured to be driven to push the cut-off paper in a pushing direction, the pushing direction being a thickness direction of the paper; a paper stacking portion for storing the cut-off paper pushed by the pushing member in a stacked manner; and a driving force transferring mechanism for transferring a driving force of the driving means to the pushing member so that the pushing member is thereby driven, characterized in that the driving force of the driving means transferred to the pushing member is a driving force for moving the movable blade in a backward direction.
A method of a terminal for transmitting a sounding reference signal, SRS, the method comprising: receiving information for configuring an SRS transmission on two symbols in an uplink pilot time slot, UpPTS, on a first cell by higher layer signaling, the first cell operating in a time division duplex, TDD, mode; identifying whether an uplink data transmission on a second cell overlaps with the SRS transmission on the first cell in a first subframe, the second cell operating in a frequency division duplex, FDD, mode; if the uplink transmission on the second cell overlaps with the SRS transmission on the first cell in the first subframe, dropping the SRS transmission on a first symbol in the UpPTS on the first cell; and transmitting the SRS on a second symbol in the UpPTS on the first cell in the first subframe. receiving information for configuring an SRS transmission on two symbols in an uplink pilot time slot, UpPTS, on a first cell by higher layer signaling, the first cell operating in a time division duplex, TDD, mode; identifying whether an uplink data transmission on a second cell overlaps with the SRS transmission on the first cell in a first subframe, the second cell operating in a frequency division duplex, FDD, mode; if the uplink transmission on the second cell overlaps with the SRS transmission on the first cell in the first subframe, dropping the SRS transmission on a first symbol in the UpPTS on the first cell; and transmitting the SRS on a second symbol in the UpPTS on the first cell in the first subframe.
A method for forming a spill-resistant border on a surface of a refrigerator shelf comprising: applying a composition to a surface that increases the hydrophobicity and oleophobicity of a portion of the surface that will serve as a border on the top surface of the shelf, wherein said border forms a perimeter around at least one area that has a lower hydrophobicity and lower oleophobicity than the border; and wherein prior to applying a said composition, activating at least one part of said portion of said surface.
Method for, in particular automatically, carrying out a vehicle function of a vehicle, which is part of an outfit consisting of a towing vehicle and at least one trailer, for reducing a hazard risk of the vehicle in the event of an occurring, potentially worsening and/or spreading hazard, in particular a fire in the vehicle, comprising: - detecting the potentially worsening and/or spreading hazard of the vehicle by means of a sensor device of the vehicle, and determining at least one hazard variable characteristic of a hazard risk of the vehicle on the basis of the detected hazard; - determining at least one vehicle function of the vehicle, wherein the determined driving function is an, in particular automatic, uncoupling process of the vehicle from the outfit, and determining at least one predicted variable which is characteristic of the hazard risk of the vehicle when carrying out the vehicle function; - determining a vehicle function signal characteristic of the determined vehicle function on the basis of the at least one predicted variable; - providing the determined vehicle function signal of the at least one hazard variable for automatically carrying out the vehicle function and/or for output to an occupant of the vehicle by means of an output device, in particular of the vehicle. - detecting the potentially worsening and/or spreading hazard of the vehicle by means of a sensor device of the vehicle, and determining at least one hazard variable characteristic of a hazard risk of the vehicle on the basis of the detected hazard; - determining at least one vehicle function of the vehicle, wherein the determined driving function is an, in particular automatic, uncoupling process of the vehicle from the outfit, and determining at least one predicted variable which is characteristic of the hazard risk of the vehicle when carrying out the vehicle function; - determining a vehicle function signal characteristic of the determined vehicle function on the basis of the at least one predicted variable; - providing the determined vehicle function signal of the at least one hazard variable for automatically carrying out the vehicle function and/or for output to an occupant of the vehicle by means of an output device, in particular of the vehicle.
The guide mandrel for machine insertion of plastic or rubber tubes into a shaping mold, which comprises a rigid rear portion and a flexible front end portion, characterized in that the flexible front end portion is formed by an elastic front end portion, whereby the guide mandrel is adapted to be mounted at its rear end in a device for automatic insertion of plastic or rubber tubes into a shaping mold.