mhurhangee/ep-ind-claims huggingface dataset:
A track maintenance machine for carrying out track position corrections, including a machine frame mobile by means of on-track undercarriages on rails of a track and a track position measuring system which comprises, at least one measuring chord (16, 17) and a measuring transducer and with regard to a longitudinal direction of the machine, two outer front and rear measuring devices (12, 13) and arranged between them a central measuring device with a common reference base, wherein the measuring devices (12, 13, 14) are defined in their position relative to the rails, characterized in that only two measuring chords (16, 17) aligned with one another are stretched as reference base between the outer measuring devices (12, 13), which comprises each a lateral guiding device in order to keep the measuring chords (16, 17) in the track center in the region of the central measuring device during travel in a curve, wherein the outer measuring devices (12, 13) each arranged on an on-track undercarriage or on the machine frame are designed as a measuring platform, comprising each two position measuring sensors 29 directed at each rail 4 and that the central measuring device comprises a measuring transducer for detecting position data of the two measuring chords (16, 17), and that the position data are fed to an evaluation device connected with the measuring devices (12, 13, 14) in order to determine a longitudinal level for each rail and a versine.
Work machine, in particular cable excavator, having an undercarriage which comprises a middle part and at least one crawler carrier which is connected to the middle part and comprises at least one electric traction drive, wherein at least one supply line extends from the middle part to the traction drive; characterized in that the at least one supply line is connected to the traction drive in a disconnectable manner via a first connection, the work machine being further characterized by an electrical interlock loop which is connected to the traction drive via the first connection, and a mating plug connector module, which is arranged on the undercarriage and has a first mating connection for connecting to the first connection of the supply line and is configured to bridge the interlock loop, which is interrupted by a disconnection from the traction drive, in a current-conducting manner by connecting the first connection to the first mating connection.
Treatment of a textile material with oily impurities, comprising the following steps: feeding an amount of textile material; and cooling said amount of textile material at a temperature lower than - 130°C; said treatment being characterized in that said textile material is a coloured fabric and in that said cooling step is carried out at a temperature lower than the temperature of solidification of said impurities, and sufficiently low as to allow weakening of the bond between fibre and impurities, the treatment comprising subsequent removal, by means of physical action, of the solidified impurities from the textile material, and suction of the sublimation fumes from the textile material, wherein said cooling step is carried out by repeated dipping of the textile material in liquid nitrogen. feeding an amount of textile material; and cooling said amount of textile material at a temperature lower than - 130°C; said treatment being characterized in that said textile material is a coloured fabric and in that said cooling step is carried out at a temperature lower than the temperature of solidification of said impurities, and sufficiently low as to allow weakening of the bond between fibre and impurities, the treatment comprising subsequent removal, by means of physical action, of the solidified impurities from the textile material, and suction of the sublimation fumes from the textile material, wherein said cooling step is carried out by repeated dipping of the textile material in liquid nitrogen.
An arrangement for connecting a lower end of a vertical stake to a horizontal cross-beam adapted to be attached to a beam in a carrying structure of a vehicle, said arrangement comprising: - said vertical stake having a lower end; - said cross-beam having an end surface; - a plurality of bores provided with threads in said end surface, said threaded bores extending in a longitudinal direction of the cross-beam, preferably in parallel to one another, - a plurality of screws engaging the threads of the threaded bores in the cross-beam to connect the lower end of the stake to the end surface of the cross-beam, characterized in that, - a plurality of openings (23, 24) are provided through said lower end of the stake, said plurality of openings extending crosswise in relation to a longitudinal axis of the stake and being aligned with the threaded bores, - and said plurality of screws extend through openings (23, 24) of the stake. - said vertical stake having a lower end; - said cross-beam having an end surface; - a plurality of bores provided with threads in said end surface, said threaded bores extending in a longitudinal direction of the cross-beam, preferably in parallel to one another, - a plurality of screws engaging the threads of the threaded bores in the cross-beam to connect the lower end of the stake to the end surface of the cross-beam, - a plurality of openings (23, 24) are provided through said lower end of the stake, said plurality of openings extending crosswise in relation to a longitudinal axis of the stake and being aligned with the threaded bores, - and said plurality of screws extend through openings (23, 24) of the stake.
Process for the manufacture of a microcapsule comprising a core of hydrophobic material composed of at least one fragrance and a microcapsule shell which consists essentially of the following monomers in the polymerized form: (a) one or more C 1 -C 24 -alkyl ester(s) of (meth)acrylic acid as monomer A, (b) one or more bi- or polyfunctional monomers as monomer B and (c) optionally, one or more other ethylenically unsaturated monomers as monomer C, wherein the microcapsule is obtained by suspension polymerization, the shear rate for the preparation of the emulsion lies in the range of from 200 to 350rpm, the stirring time for the preparation of the emulsion lies in the range of from 15 min to 180 min and an anchor-type stirring blade is used for the preparation of the emulsion, wherein the mean diameter of the microcapsules is in the range from 25 to 45 μm. (a) one or more C 1 -C 24 -alkyl ester(s) of (meth)acrylic acid as monomer A, (b) one or more bi- or polyfunctional monomers as monomer B and (c) optionally, one or more other ethylenically unsaturated monomers as monomer C, wherein the microcapsule is obtained by suspension polymerization, the shear rate for the preparation of the emulsion lies in the range of from 200 to 350rpm, the stirring time for the preparation of the emulsion lies in the range of from 15 min to 180 min and an anchor-type stirring blade is used for the preparation of the emulsion, wherein the mean diameter of the microcapsules is in the range from 25 to 45 μm.
A method for identification of an individual at increased risk of thrombosis or an atherothrombotic event, comprising a step of assaying a biological sample from the individual for the presence of a minor allelic variant selected from SEQUENCE ID NO's 1 to 21, wherein the presence of a minor allelic variant of SEQUENCE ID NO's 1 to 21 correlates with the individual being at increased risk of a thrombosis or an atherothrombotic event.
A method of fabricating a tunneling nanotube field effect transistor, comprising: providing a nanotube having semiconducting properties; defining in the nanotube a central channel region, a first drain/source region, and a second drain/ source region of the transistor, the first drain/ source region extending from a first end of the central channel region to a first end of the nanotube and the second drain/source region extending from a second end of the channel region to a second end of the nanotube; forming a gate dielectric layer on the central channel region; forming a gate electrode on the gate dielectric layer; selectively doping the first drain/source region using an n-type dopant; selectively doping the second drain/source region using a p-type dopant; and forming at least one electrical contact (208,210,212) on each of the gate electrode and said drain/source regions (220,224), characterised in that the central channel region is undoped. providing a nanotube having semiconducting properties; defining in the nanotube a central channel region, a first drain/source region, and a second drain/ source region of the transistor, the first drain/ source region extending from a first end of the central channel region to a first end of the nanotube and the second drain/source region extending from a second end of the channel region to a second end of the nanotube; forming a gate dielectric layer on the central channel region; forming a gate electrode on the gate dielectric layer; selectively doping the first drain/source region using an n-type dopant; selectively doping the second drain/source region using a p-type dopant; and forming at least one electrical contact (208,210,212) on each of the gate electrode and said drain/source regions (220,224), characterised in that the central channel region is undoped.
A facing element for reinforced soil structures comprising: - a first facing sub-element comprising at least one connecting member configured to connect at least one reinforcement member to said first facing sub-element, - a second facing sub-element, - a linking device, wherein said first and second facing sub-elements are separated by a gap and are linked together by the linking device such that the first and second facing sub-elements have constant relative position. - a first facing sub-element comprising at least one connecting member configured to connect at least one reinforcement member to said first facing sub-element, - a second facing sub-element, - a linking device, wherein said first and second facing sub-elements are separated by a gap and are linked together by the linking device such that the first and second facing sub-elements have constant relative position.
A method of manufacturing an object using an additive manufacturing process, the method comprising: receiving a digital representation of the object; setting a label planning area for a 3D identification label on the object; adding information to the 3D identification label in the label planning area; setting parameters for the 3D identification label; manufacturing the object and 3D identification label, wherein the object comprises: a reference surface; and the 3D identification label on both a first side and a second side of the reference surface, wherein the 3D identification label comprises a first raised surface formed as a pattern on the first side of the reference surface and a second raised surface formed as the pattern on the second side of the reference surface, wherein the first side is opposite the second side of the reference surface, and wherein each point of the first raised surface on the first side of the reference surface is positioned at the same coordinates in a plane defined by the reference surface as each point of the second raised surface on the second side of the reference surface. receiving a digital representation of the object; setting a label planning area for a 3D identification label on the object; adding information to the 3D identification label in the label planning area; setting parameters for the 3D identification label; manufacturing the object and 3D identification label, wherein the object comprises: a reference surface; and the 3D identification label on both a first side and a second side of the reference surface, a reference surface; and the 3D identification label on both a first side and a second side of the reference surface, wherein the 3D identification label comprises a first raised surface formed as a pattern on the first side of the reference surface and a second raised surface formed as the pattern on the second side of the reference surface, wherein the first side is opposite the second side of the reference surface, and wherein each point of the first raised surface on the first side of the reference surface is positioned at the same coordinates in a plane defined by the reference surface as each point of the second raised surface on the second side of the reference surface.
A method for managing uplink carrier frequencies, comprising: determining, by a base station, a state switching on a secondary uplink carrier serving cell by a User Equipment, UE; sending, by the base station, a state switching request message to the UE for requesting the UE to perform the state switching on the secondary uplink carrier serving cell; receiving, by the base station, a state switching response message sent by the UE, wherein the state switching response message comprises a result of state switching performed by the UE on a secondary uplink carrier serving cell; and notifying, by the base station, the result of the state switching to a secondary uplink carrier non-serving cell in a secondary carrier active set through a Radio Network Controller, RNC. determining, by a base station, a state switching on a secondary uplink carrier serving cell by a User Equipment, UE; sending, by the base station, a state switching request message to the UE for requesting the UE to perform the state switching on the secondary uplink carrier serving cell; receiving, by the base station, a state switching response message sent by the UE, wherein the state switching response message comprises a result of state switching performed by the UE on a secondary uplink carrier serving cell; and notifying, by the base station, the result of the state switching to a secondary uplink carrier non-serving cell in a secondary carrier active set through a Radio Network Controller, RNC.
A structure for fixing a roof module of a vehicle, comprising: a roof rail of a vehicle; a roof panel made of a material different from that of the roof rail, which is fixed at the roof rail; a polymer member coupled between the roof rail and the roof panel; and a joint member joining the roof rail, the roof panel, and the polymer member, and wherein the joint member includes a rivet, wherein the polymer member has a protrusion by being extruded through a press processing, and the protrusion is placed between the rivet and the roof module by being transformed during a riveting of the rivet, which electrically insulates the rivet and the roof module. a roof rail of a vehicle; a roof panel made of a material different from that of the roof rail, which is fixed at the roof rail; a polymer member coupled between the roof rail and the roof panel; and a joint member joining the roof rail, the roof panel, and the polymer member, and wherein the joint member includes a rivet, wherein the polymer member has a protrusion by being extruded through a press processing, and the protrusion is placed between the rivet and the roof module by being transformed during a riveting of the rivet, which electrically insulates the rivet and the roof module.
A method of identifying the Change in Height in cm from 1 year to 2 years of treatment with growth hormone in an individual having Growth Hormone Deficiency, the method comprising the steps of: a. determining in a DNA sample of the individual whether in the STAT Gene Cluster rs2293152 the CC genotype is present; and b. predicting from the presence of the CC genotype in the STAT Gene Cluster rs2293152 an intermediate or high Change in Height in cm from 1 year to 2 years of treatment. a. determining in a DNA sample of the individual whether in the STAT Gene Cluster rs2293152 the CC genotype is present; and b. predicting from the presence of the CC genotype in the STAT Gene Cluster rs2293152 an intermediate or high Change in Height in cm from 1 year to 2 years of treatment.
A combined heat and power system (100, 102, 104, 105, 106) comprising: a heat source; a Rankine cycle apparatus comprising, as an evaporator for heating a working fluid, a first heat exchanger that absorbs thermal energy from a thermal fluid produced in the heat source; a second heat exchanger, as a heat exchanger for heating a heat medium different from the working fluid of the Rankine cycle apparatus, that absorbs thermal energy from the thermal fluid and transfers the thermal energy to the heat medium; a thermal fluid flow path in which the first heat exchanger and the second heat exchanger are disposed so that the thermal fluid is supplied from the heat source to the first heat exchanger and the second heat exchanger respectively; and the working fluid is an organic working fluid; characterized in that the thermal fluid flow path comprises a first flow path that allows the thermal fluid to reach the first heat exchanger directly from the heat source and a second flow path that allows the thermal fluid to reach the second heat exchanger directly from the heat source, the first flow path is formed by a space between the heat source and the first heat exchanger, and the first heat exchanger directly faces the heat source across the first flow path, and the second flow path is formed by a space between the heat source and the second heat exchanger, and the second heat exchanger directly faces the heat source across the second flow path. a heat source; a Rankine cycle apparatus comprising, as an evaporator for heating a working fluid, a first heat exchanger that absorbs thermal energy from a thermal fluid produced in the heat source; a second heat exchanger, as a heat exchanger for heating a heat medium different from the working fluid of the Rankine cycle apparatus, that absorbs thermal energy from the thermal fluid and transfers the thermal energy to the heat medium; a thermal fluid flow path in which the first heat exchanger and the second heat exchanger are disposed so that the thermal fluid is supplied from the heat source to the first heat exchanger and the second heat exchanger respectively; and the working fluid is an organic working fluid; characterized in that the thermal fluid flow path comprises a first flow path that allows the thermal fluid to reach the first heat exchanger directly from the heat source and a second flow path that allows the thermal fluid to reach the second heat exchanger directly from the heat source, the first flow path is formed by a space between the heat source and the first heat exchanger, and the first heat exchanger directly faces the heat source across the first flow path, and the second flow path is formed by a space between the heat source and the second heat exchanger, and the second heat exchanger directly faces the heat source across the second flow path.
A fluidic device comprising: a fluidic die (14, 102, 158, 204, 256, 402) with a back surface (20, 105, 160); a support element (12, 104, 202, 404) coupled to the fluidic die (14, 102, 158, 204, 256, 402), the support element (12, 104, 202, 404) having a fluid channel (16, 106, 156, 206, 266, 410) formed therein, the fluid channel (16, 106, 156, 206, 266, 410) exposing at least a portion (108, 253, 260a, 302a-c, 322a, 344) of the back surface (20, 105, 160) of the fluidic die (14, 102, 158, 204, 256, 402), the support element (12, 104, 202, 404) further having a member opening (22, 114, 166, 232, 258) passing through the support element (12, 104, 202, 404); and a conductive member (24, 112, 164, 230, 260, 300, 320, 340, 412) electrically connected to the fluidic die (14, 102, 158, 204, 256, 402) and to a common ground with the fluidic die (14, 102, 158, 204, 256, 402), the conductive member (24, 112, 164, 230, 260, 300, 320, 340, 412) at least partially disposed in the member opening (22, 114, 166, 232, 258) such that a portion (108, 253, 260a, 302a-c, 322a, 344) of the conductive member (24, 112, 164, 230, 260, 300, 320, 340, 412) is exposed to the fluid channel (16, 106, 156, 206, 266, 410) of the support element (12, 104, 202, 404), wherein the conductive member (24, 112, 164, 230, 260, 300, 320, 340, 412) is to form an electrochemical cell with the fluidic die (14, 102, 158, 204, 256, 402) when in contact with fluid of the fluid channel (16, 106, 156, 206, 266, 410). a fluidic die (14, 102, 158, 204, 256, 402) with a back surface (20, 105, 160); a support element (12, 104, 202, 404) coupled to the fluidic die (14, 102, 158, 204, 256, 402), the support element (12, 104, 202, 404) having a fluid channel (16, 106, 156, 206, 266, 410) formed therein, the fluid channel (16, 106, 156, 206, 266, 410) exposing at least a portion (108, 253, 260a, 302a-c, 322a, 344) of the back surface (20, 105, 160) of the fluidic die (14, 102, 158, 204, 256, 402), the support element (12, 104, 202, 404) further having a member opening (22, 114, 166, 232, 258) passing through the support element (12, 104, 202, 404); and a conductive member (24, 112, 164, 230, 260, 300, 320, 340, 412) electrically connected to the fluidic die (14, 102, 158, 204, 256, 402) and to a common ground with the fluidic die (14, 102, 158, 204, 256, 402), the conductive member (24, 112, 164, 230, 260, 300, 320, 340, 412) at least partially disposed in the member opening (22, 114, 166, 232, 258) such that a portion (108, 253, 260a, 302a-c, 322a, 344) of the conductive member (24, 112, 164, 230, 260, 300, 320, 340, 412) is exposed to the fluid channel (16, 106, 156, 206, 266, 410) of the support element (12, 104, 202, 404),
A supervisory device configured to communicate with at least one sensor via an asynchronous serial link of type RS485, RS232 or RS422 according to a master/slave protocol, the supervisory device comprising: - a first communication interface configured to transmit to a first sensor, via the asynchronous serial link, a first data frame in accordance with the master/slave protocol, the first data frame comprising an unencrypted address of the first sensor and a first message, the first message comprising a request to be processed by the first sensor; - the first communication interface being configured to receive, via the asynchronous serial link from the first sensor, a second data frame in accordance with the master/slave protocol, the second data frame comprising an unencrypted address of the first sensor and an encrypted message, the encrypted message resulting from an encryption of a second message, the second message comprising a digital signature of the first sensor, specific to the first sensor, and a response to the request; - a decryption circuit configured to store a decryption key specific to the first sensor; decrypt the encrypted message using the decryption key specific to the first sensor to generate a decrypted message; store a digital signature of the first sensor and authenticate the first sensor on the basis of the decrypted message and the digital signature stored in the decryption circuit. - a first communication interface configured to transmit to a first sensor, via the asynchronous serial link, a first data frame in accordance with the master/slave protocol, the first data frame comprising an unencrypted address of the first sensor and a first message, the first message comprising a request to be processed by the first sensor; - the first communication interface being configured to receive, via the asynchronous serial link from the first sensor, a second data frame in accordance with the master/slave protocol, the second data frame comprising an unencrypted address of the first sensor and an encrypted message, the encrypted message resulting from an encryption of a second message, the second message comprising a digital signature of the first sensor, specific to the first sensor, and a response to the request; - a decryption circuit configured to store a decryption key specific to the first sensor; decrypt the encrypted message using the decryption key specific to the first sensor to generate a decrypted message; store a digital signature of the first sensor and authenticate the first sensor on the basis of the decrypted message and the digital signature stored in the decryption circuit.