mhurhangee/ep-ind-claims huggingface dataset:
An assembly for the production of a fiber composite workpiece having a base tool, which includes a first tool part and a second tool part, wherein the first and second tool parts (11, 13) can be arranged relative to one another in a closed position, in which they enclose an internal space, and in an open position, in which the internal space is open to the surrounding environment, wherein the base tool is configured in such a way that a preform can be mounted in the internal space and maintained in a predetermined shape there, and wherein the base tool includes a matrix connection to convey matrix material into the internal space, and having a holding device, which is configured to hold the first tool part and the second tool part, in a relative closed position, wherein a tool insert is provided, which is formed separate from the base tool, wherein the tool insert is mounted in the internal space of the base tool, and wherein the tool insert includes a cavity for accommodating a preform, and a shaping surface that faces the cavity, for maintaining the preform in a predetermined shape, wherein the tool insert includes a first insert part and a second insert part, wherein the shaping surface includes a first surface part and a second surface part, wherein the first surface part is provided on the first insert part, and the second surface part is provided on the second insert part, wherein the first and second insert parts (37, 39) are mounted in the internal space of the base tool in such a way that the first and second surface parts (41, 43) face one another and enclose the cavity between them, wherein the cavity corresponds to the shape of the fiber composite workpiece to be produced, characterized in that the tool insert includes a third insert part, which lies against the first insert part and supports it in relation to the base tool, and/or includes a fourth insert part, which lies against the second insert part and supports it in relation to the base tool.
Sapacitabine, or 2'- C -Cyano-2'-deoxy-β-D- arabino -pentafuranosylcytosine (CNDAC), for use in treating a proliferative disorder, wherein the sapacitabine or metabolite thereof is administered in a dosing regimen comprising at least one treatment cycle, wherein said treatment cycle comprises: (i) administering a therapeutically effective amount of sapacitabine or metabolite thereof for 3 to 5 consecutive days per week, for 2 weeks; (ii) a rest period of from 5 to 15 days during which no sapacitabine or metabolite thereof is administered, or until treatment-related toxicities are resolved, whichever is longer. (i) administering a therapeutically effective amount of sapacitabine or metabolite thereof for 3 to 5 consecutive days per week, for 2 weeks; (ii) a rest period of from 5 to 15 days during which no sapacitabine or metabolite thereof is administered, or until treatment-related toxicities are resolved, whichever is longer.
A device for automatically preparing a hot beverage comprising control means provided in a device housing and realized such that the hot beverage is prepared using preset stored parameter data in a first operating mode of the preparation device in reaction to a preferably manual actuation of an activation element disposed on the device housing by a user and that the parameter data can be modified by a user in a second operating mode of the preparation device, said control means comprising means for bidirectionally and wirelessly communicating electronic data using a mobile data processing unit provided outside of the housing and allocated to the user and individualizing and storage means (20, 22) for at least one parameter data set of the parameter data and correspondingly allocated user data individual to the user, characterized in that the control means are designed such that the parameter data are modified in the second operating mode merely via the means for communicating wirelessly supplied data including the user data and that an operation of the preparation device subsequent to the second operating mode is executed in the first operating mode using the modified parameter data, said individualizing and storage means being realized for receiving and storing a plurality of parameter data sets each having corresponding user data individual to the user and said means for communicating data being realized such that the user and/or the user data individual to the user is identified by identifying an interacting mobile data processing unit disposed outside of the housing.
A heat-sensitive negative-working lithographic printing plate precursor including - a grained and anodized aluminium support, and - a coating provided thereon, said coating containing an image-recording layer which comprises hydrophobic thermoplastic polymer particles, a binder and an infrared absorbing dye, characterized in that the grained and anodized surface of the support has a CIE 1976 L*-value between 55 and 75. - a grained and anodized aluminium support, and - a coating provided thereon, said coating containing an image-recording layer which comprises hydrophobic thermoplastic polymer particles, a binder and an infrared absorbing dye,
Tyre having a radial carcass reinforcement comprising a crown reinforcement, itself capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, said tread comprising at least one layer of polymer compound forming a tread surface intended to come into contact with a road surface, the value of deformation at break in elongation of said layer of polymer compound forming the tread surface being greater than or equal to 550%, characterized in that the ratio of the maximum value of tan(δ), denoted tan(δ)max, measured at 60°C on the forward cycle, of said layer of polymer compound forming the tread surface to the complex dynamic shear modulus G*, measured at 25% and 60°C on the forward cycle of said layer of polymer compound forming the contact surface is less than 0.065.
Method for testing a test specimen for the presence of a leak using a foil chamber to receive the test specimen, wherein the foil chamber comprises walls (16, 18) enclosing a foil chamber volume, which walls comprise at least one flexible wall portion adjoining a measurement volume (34, 36) which is arranged on the side of the flexible wall portion opposite the foil chamber volume and is hermetically separated from the foil chamber volume, the method comprising the steps of: introducing the test specimen into the foil chamber, closing the foil chamber, evacuating the foil chamber and monitoring the measurement volume (34, 36) during closing and evacuating of the foil chamber, characterized in that a vent valve connecting the measurement volume (34, 36) to atmosphere is closed prior to and during the closing of the foil chamber when the pressure in the measurement volume (34, 36) is below a predetermined threshold value, and is opened as soon as the pressure in the measurement volume (34, 36) exceeds the threshold value during the closing of the foil chamber, and the vent valve is closed prior to the step of venting the foil chamber. introducing the test specimen into the foil chamber, closing the foil chamber, evacuating the foil chamber and monitoring the measurement volume (34, 36) during closing and evacuating of the foil chamber, characterized in that a vent valve connecting the measurement volume (34, 36) to atmosphere is closed prior to and during the closing of the foil chamber when the pressure in the measurement volume (34, 36) is below a predetermined threshold value, and is opened as soon as the pressure in the measurement volume (34, 36) exceeds the threshold value during the closing of the foil chamber, and the vent valve is closed prior to the step of venting the foil chamber.
A safety system usable by a worker during an inspection operation of a rail that is elongated, the rail having a base and further having a web that is situated atop the base, the safety system comprising: a fall resistance apparatus comprising a first trolley that is structured to be situated on the rail and a support that is situated on the first trolley, the support being elongated and being structured to extend in a generally upward direction from the first trolley; a fall protection apparatus comprising a second trolley that is structured to be situated on the rail and an umbilical that is connected with the second trolley, the umbilical being elongated and structured to be affixed to the worker at an end of the umbilical opposite the second trolley; and the first and second trolleys each comprising a frame (72A, 72B) having a number of engagement structures and a number of hooks, the frame being structured to be situated on the rail with at least some of the engagement structures of the number of engagement structures being engaged with an upper surface of the web and with the number of hooks being spaced below a lower surface of the web opposite the upper surface when the frame is free of lateral loading, at least a first hook of the number of hooks being structured to engage the lower surface and resist movement of the frame with respect to the rail when the frame is subjected to lateral loading and at least a first engagement structure of the number of engagement structures is at least partially disengaged from the upper surface. a fall resistance apparatus comprising a first trolley that is structured to be situated on the rail and a support that is situated on the first trolley, the support being elongated and being structured to extend in a generally upward direction from the first trolley; a fall protection apparatus comprising a second trolley that is structured to be situated on the rail and an umbilical that is connected with the second trolley, the umbilical being elongated and structured to be affixed to the worker at an end of the umbilical opposite the second trolley; and the first and second trolleys each comprising a frame (72A, 72B) having a number of engagement structures and a number of hooks, the frame being structured to be situated on the rail with at least some of the engagement structures of the number of engagement structures being engaged with an upper surface of the web and with the number of hooks being spaced below a lower surface of the web opposite the upper surface when the frame is free of lateral loading, at least a first hook of the number of hooks being structured to engage the lower surface and resist movement of the frame with respect to the rail when the frame is subjected to lateral loading and at least a first engagement structure of the number of engagement structures is at least partially disengaged from the upper surface.
A method of transporting a data object to a target terminal via a network, using encoded data parts from a plurality of source terminals (12a,b), wherein encoded data parts derived by encoding the data object in a redundant code are used, the redundant code defining a decoding scheme for reconstructing the data object from a sub-set of the encoded data parts, and wherein at least the sub-set of the encoded data parts has been encrypted using a homomorphic encryption scheme, the method comprising - collecting the sub-set of the encoded data parts from the source terminals (12a,b) at a decoder server in the network, - applying homomorphic equivalents of arithmetic operations of the decoding scheme to the encrypted encoded data parts at the decoder server, - transmitting results of applying the homomorphic equivalents of the arithmetic operations to the target terminal for decryption of the data parts from the results at the target terminal. - collecting the sub-set of the encoded data parts from the source terminals (12a,b) at a decoder server in the network, - applying homomorphic equivalents of arithmetic operations of the decoding scheme to the encrypted encoded data parts at the decoder server, - transmitting results of applying the homomorphic equivalents of the arithmetic operations to the target terminal for decryption of the data parts from the results at the target terminal.
A flow path structure (1a, 61), comprising therein a plurality of flow paths (12, 38, 68) into which a fluid is introduced, wherein: said plurality of flow paths (12, 38, 68) includes flow paths (12, 38, 68) each having a different flow path length, and an equivalent diameter (D 2, D 3) of each part in each flow path is determined in accordance with the flow path length of said flow path (12, 38, 68) to ensure that an entire pressure loss (Δp 1) is equal for each of said flow paths (12, 38, 68), characterized in that each of said flow paths (12, 38, 68) comprises a small diameter part (12e, 38e, 68e) having a predetermined equivalent diameter (D 2) and a large diameter part (12f, 38f, 68f) having an equivalent diameter (D 3) greater than that of said small diameter part (12e, 38e, 68e), and a ratio of lengths (L 2 /L 3) of said small diameter part (12e, 38e, 68e) and said large diameter part (12f, 38f, 68f) is determined in accordance with the flow path length of each flow path (12, 38, 68) to ensure that the entire pressure loss (Δp 1) is equal for each of said flow paths (12, 38, 68) such that a flow rate of fluid flowing in each flow path (12, 38, 68) is equal to each other under the assumption that a viscosity coefficient μ is a constant, wherein the equivalent diameter (D 2) of the small diameter part (12e, 38e, 68e) is equal for each flow path (12, 38, 68) and the equivalent diameter (D 3) of the large diameter part (12f, 38f, 68f) is also equal for each flow path (12, 38, 68). said plurality of flow paths (12, 38, 68) includes flow paths (12, 38, 68) each having a different flow path length, and an equivalent diameter (D 2, D 3) of each part in each flow path is determined in accordance with the flow path length of said flow path (12, 38, 68) to ensure that an entire pressure loss (Δp 1) is equal for each of said flow paths (12, 38, 68), characterized in that each of said flow paths (12, 38, 68) comprises a small diameter part (12e, 38e, 68e) having a predetermined equivalent diameter (D 2) and a large diameter part (12f, 38f, 68f) having an equivalent diameter (D 3) greater than that of said small diameter part (12e, 38e, 68e), and a ratio of lengths (L 2 /L 3) of said small diameter part (12e, 38e, 68e) and said large diameter part (12f, 38f, 68f) is determined in accordance with the flow path length of each flow path (12, 38, 68) to ensure that the entire pressure loss (Δp 1) is equal for each of said flow paths (12, 38, 68) such that a flow rate of fluid flowing in each flow path (12, 38, 68) is equal to each other under the assumption that a viscosity coefficient μ is a constant, wherein the equivalent diameter (D 2) of the small diameter part (12e, 38e, 68e) is equal for each flow path (12, 38, 68) and the equivalent diameter (D 3) of the large diameter part (12f, 38f, 68f) is also equal for each flow path (12, 38, 68).
A carburized steel part obtained by subjecting a base material to a cutting operation and a carburizing operation, wherein the base material consists of chemical components of: C: greater than 0.3 but less than or equal to 0.6% by mass; Si: 0.01 to 1.5% by mass; Mn: 0.3 to 2.0% by mass; P: 0.0001 to 0.02% by mass; S: 0.001 to 0.15% by mass; N: 0.001 to 0.03% by mass; Al: greater than 0.06 but less than or equal to 0.3% by mass; and, O: 0.0001 to 0.005% by mass, and optionally one or more of Ca: 0.0002 to 0.005% by mass, Zr: 0.0003 to 0.005% by mass, Mg: 0.0003 to 0.005% by mass, Rem: 0.0001 to 0.015% by mass, B: 0.0002 to 0.005% by mass, Cr: 0.1 to 3.0% by mass, Mo: 0.1 to 1.5% by mass, Cu: 0.1 to 2.0% by mass, Ni:0.1 to 5.0% by mass, Ti: 0.005 to 0.2% by mass, Nb: 0.01 to 0.1% by mass, and V: 0.03 to 0.2% by mass, with a balance consisting of iron and inevitable impurities, and wherein the carburized steel part has a hardness of HV550 to HV800 in a surface layer portion, and a hardness of HV400 to HV550 in a core portion. C: greater than 0.3 but less than or equal to 0.6% by mass; Si: 0.01 to 1.5% by mass; Mn: 0.3 to 2.0% by mass; P: 0.0001 to 0.02% by mass; S: 0.001 to 0.15% by mass; N: 0.001 to 0.03% by mass; Al: greater than 0.06 but less than or equal to 0.3% by mass; and, O: 0.0001 to 0.005% by mass,
A circuit breaker position adjustment system, comprising: a mechanical base configured to hold a circuit breaker in an enclosure; an adjustment plate comprising apertures for receiving fasteners to attach the adjustment plate to the circuit breaker through the mechanical base located between the circuit breaker and the adjustment plate; and a continuous adjustment member that interfaces with the mechanical base and the adjustment plate to provide position adjustment of the adjustment plate and circuit breaker with respect to the mechanical base by continuous movement of the adjustment member. a mechanical base configured to hold a circuit breaker in an enclosure; an adjustment plate comprising apertures for receiving fasteners to attach the adjustment plate to the circuit breaker through the mechanical base located between the circuit breaker and the adjustment plate; and a continuous adjustment member that interfaces with the mechanical base and the adjustment plate to provide position adjustment of the adjustment plate and circuit breaker with respect to the mechanical base by continuous movement of the adjustment member.
Apparatus for use with an optical frequency domain reflectometry (OFDR) system that includes a tunable laser source coupled to a sensing interferometer and a monitor interferometer, wherein the sensing interferometer is also coupled to an optical sensing waveguide, the apparatus comprising processing circuitry (19,40) configured to: monitor a phase response of the monitor interferometer as the tunable laser source sweeps through a range of optical frequencies; use a sampling increment and an accumulated phase response from the monitor interferometer to sample waveguide sensing interferometric data (S11, S12) from distributed locations along the optical sensing waveguide, wherein, as the waveguide sensing interferometric data are sampled, the sampling increment is continuously adjusted, based on a continuous optical dispersion correction parameter to correct the waveguide sensing interferometric data for distributed optical dispersion and to provide dispersion-compensated waveguide sensing interferometric data; and perform a Fourier Transform of the dispersion-compensated waveguide sensing interferometric data to provide dispersion-compensated OFDR measurement information in a temporal domain for the distributed locations along the optical sensing waveguide. monitor a phase response of the monitor interferometer as the tunable laser source sweeps through a range of optical frequencies; use a sampling increment and an accumulated phase response from the monitor interferometer to sample waveguide sensing interferometric data (S11, S12) from distributed locations along the optical sensing waveguide, wherein, as the waveguide sensing interferometric data are sampled, the sampling increment is continuously adjusted, based on a continuous optical dispersion correction parameter to correct the waveguide sensing interferometric data for distributed optical dispersion and to provide dispersion-compensated waveguide sensing interferometric data; and perform a Fourier Transform of the dispersion-compensated waveguide sensing interferometric data to provide dispersion-compensated OFDR measurement information in a temporal domain for the distributed locations along the optical sensing waveguide.
A module for measuring the flow rate of fuel having: - an inlet portion and an outlet portion and a primary conduit for transporting the fuel extending between said inlet and outlet portions (4a, 4b) for transporting a first flow of fuel; said primary conduit being defined in a main body of the module; - a secondary conduit for transporting fuel, adjacent to said primary conduit and extending between a first section and a second section of said primary conduit and arranged in fluid communication with the latter for transporting a second flow of fuel between said first and second section, the secondary conduit being parallel to the primary conduit and being defined in a peripheral portion to the central portion of the main body; further the secondary conduit being defined in a portion of said main body radially distanced from the primary conduit; - a sensor for measuring the flow rate of fuel introduced into said secondary conduit; said sensor being configured to be installed through a cavity of the main body so as to be able to reach the secondary conduit and the second flow of fuel; - a Venturi constriction device arranged in the primary conduit at said second section and at the outlet portion; wherein said Venturi constriction device having an inlet section in fluid communication with the primary conduit to allow the first flow to be introduced into the Venturi constriction device itself, said inlet section having the same dimensions as the primary conduit; said Venturi constriction device is a separate body with respect to the primary conduit and interchangeable so as to uniform the minimum and maximum speed of the flow crossing the sensor regardless of the type of fluid and the flow rate thereof through the primary conduit. - an inlet portion and an outlet portion and a primary conduit for transporting the fuel extending between said inlet and outlet portions (4a, 4b) for transporting a first flow of fuel; said primary conduit being defined in a main body of the module; - a secondary conduit for transporting fuel, adjacent to said primary conduit and extending between a first section and a second section of said primary conduit and arranged in fluid communication with the latter for transporting a second flow of fuel between said first and second section, the secondary conduit being parallel to the primary conduit and being defined in a peripheral portion to the central portion of the main body; further the secondary conduit being defined in a portion of said main body radially distanced from the primary conduit; - a sensor for measuring the flow rate of fuel introduced into said secondary conduit; said sensor being configured to be installed through a cavity of the main body so as to be able to reach the secondary conduit and the second flow of fuel; - a Venturi constriction device arranged in the primary conduit at said second section and at the outlet portion; wherein said Venturi constriction device having an inlet section in fluid communication with the primary conduit to allow the first flow to be introduced into the Venturi constriction device itself, said inlet section having the same dimensions as the primary conduit;