mhurhangee/ep-ind-claims huggingface dataset:
System for evacuating mud produced by a digging machine, wherein said machine comprises • a digging head arranged to dig the soil, said digging head comprising two or more cutting horizontal axis wheels; • a flexible bearing element arranged to support the digging head during the normal operation of the machine itself, • at least one winch and at least one drum, about which at least part of such a flexible element can be wound, the system comprising • at least one tank for containing a mixing fluid, having a lower density than the density of a stabilising fluid present in the excavation, the light fluid for mixing and removing the deposits being taken from the tank through a pumping station and being introduced into the excavation in one supply duct, a mud extraction pump directly associated with the digging head and connected to a mud evacuation tube, • at least one ejection duct that receives the light fluid for mixing and removing the deposits from the supply duct to carry it near to the digging head, said light fluid for mixing and removing the deposits being conveyed towards said mud evacuation tube by at least part of the stabilising fluid, through the rotary movement of said cutting wheels, said supply duct being provided with a collector/distributor adapted for distributing the light fluid in said at least one ejection duct and at least one further supply duct, characterized in that at least one further supply duct is inserted into the mud evacuation tube downstream of the pump. • a digging head arranged to dig the soil, said digging head comprising two or more cutting horizontal axis wheels; • a flexible bearing element arranged to support the digging head during the normal operation of the machine itself, • at least one winch and at least one drum, about which at least part of such a flexible element can be wound, the system comprising • at least one tank for containing a mixing fluid, having a lower density than the density of a stabilising fluid present in the excavation, the light fluid for mixing and removing the deposits being taken from the tank through a pumping station and being introduced into the excavation in one supply duct, a mud extraction pump directly associated with the digging head and connected to a mud evacuation tube, • at least one ejection duct that receives the light fluid for mixing and removing the deposits from the supply duct to carry it near to the digging head, said light fluid for mixing and removing the deposits being conveyed towards said mud evacuation tube by at least part of the stabilising fluid, through the rotary movement of said cutting wheels, said supply duct being provided with a collector/distributor adapted for distributing the light fluid in said at least one ejection duct and at least one further supply duct, characterized in that at least one further supply duct is inserted into the mud evacuation tube downstream of the pump.
A blade for underwater granulation of an extruded polymer, this blade comprising a plate bounded by a contour including - a cutting edge contour having a first end and a second end, and - an outer contour linking the first end and the second end of the cutting edge contour, characterized in that the outer contour comprises at least a first bearing portion and a second bearing portion, the first bearing portion and the second bearing portion diverging while extending away from the cutting edge contour and being configured to be received in a dovetail housing. - a cutting edge contour having a first end and a second end, and - an outer contour linking the first end and the second end of the cutting edge contour,
A protection system comprising a glove having a wrist extended by a body terminated by fingers, and an envelope comprising a base extended by a body terminated by an end, the glove delimiting a sealed enclosure, the envelope delimiting a sealed enclosure, the system being able to occupy a confined configuration in which the envelope surrounds the deployed glove and in which the wrist of the glove is connected in a sealed manner to the base of the envelope, and a configuration of use in which the body and the fingers of the deployed glove are released from the envelope, characterized in that this system comprises detachable means for connecting the wrist of the glove with the base of the envelope, these means ensuring a tight connection, and in which, in the configuration of use, the wrist of the glove is disconnected from the base of the envelope with the whole of the envelope so that the glove is entirely free of the envelope.
A process for obtaining a microbial oil comprising one or more polyunsaturated fatty acids from one or more microbial cells, wherein the process comprises: (a) lysing the cells comprising the microbial oil to form a lysed cell composition; (b) demulsifying the lysed cell composition to form a demulsified lysed cell composition; (c) separating the oil from the demulsified lysed cell composition; and (d) recovering the oil; wherein (b) comprises (i) low shear agitation with an impeller tip speed of 5 cm/ see to 250 cm/sec, (ii) axial-flow agitation, or (iii) a combination thereof, and wherein said (i) low shear agitation, (ii) axial-flow agitation, or (iii) a combination thereof is provided by an impeller selected from fluid foil impellers, hydrofoil impellers, pitch-blade turbines, and combinations thereof. (a) lysing the cells comprising the microbial oil to form a lysed cell composition; (b) demulsifying the lysed cell composition to form a demulsified lysed cell composition; (c) separating the oil from the demulsified lysed cell composition; and (d) recovering the oil;
A method for providing information about peer communication devices (200a, 200b, 200c) to a network node, the method being performed by a first peer communication device (200a, 200b, 200c), the method comprising: exchanging, upon the first peer communication device appearing in the vicinity of a second peer communication device, with the second peer communication device (200a, 200b, 200c) over a device-to-device connection (160a, 160b), any timestamped identity information and location information about other peer communication devices (200a, 200b, 200c) as previously exchanged between the second peer communication device and peer communication devices other than the first peer communication device; adding to the timestamped identity information and location information, timestamped identity information and location information about the second peer communication device (200a, 200b, 200c) as obtained from the second peer communication device (200a, 200b, 200c); and forwarding the timestamped identity information and location information to a network node upon experiencing network access to the network node, thereby providing information to the network node, enabling tracking of movement executed by a peer communication device other than the first and the second peer communication device. exchanging, upon the first peer communication device appearing in the vicinity of a second peer communication device, with the second peer communication device (200a, 200b, 200c) over a device-to-device connection (160a, 160b), any timestamped identity information and location information about other peer communication devices (200a, 200b, 200c) as previously exchanged between the second peer communication device and peer communication devices other than the first peer communication device; adding to the timestamped identity information and location information, timestamped identity information and location information about the second peer communication device (200a, 200b, 200c) as obtained from the second peer communication device (200a, 200b, 200c); and forwarding the timestamped identity information and location information to a network node upon experiencing network access to the network node, thereby providing information to the network node, enabling tracking of movement executed by a peer communication device other than the first and the second peer communication device.
A communication method, comprising: obtaining, by a base station, data radio bearer, DRB, configuration information, wherein the DRB configuration information is used to determine a mapping relationship between serving cells and DRBs used to carry data of different service types, wherein a DRB corresponds to one or more serving cells and each serving cell supports one or more numerologies, the DRB configuration information contains a mapping relationship between a DRB and the one or more numerologies supported by each serving cell, each of the one or more numerologies corresponds to a subcarrier spacing; and sending, by the base station, the DRB configuration information to a terminal, for enabling the terminal to communicate with the base station in one or more serving cells by using one or more numerologies corresponding to one or more DRBs carrying data of the terminal. obtaining, by a base station, data radio bearer, DRB, configuration information, wherein the DRB configuration information is used to determine a mapping relationship between serving cells and DRBs used to carry data of different service types, wherein a DRB corresponds to one or more serving cells and each serving cell supports one or more numerologies, the DRB configuration information contains a mapping relationship between a DRB and the one or more numerologies supported by each serving cell, each of the one or more numerologies corresponds to a subcarrier spacing; and sending, by the base station, the DRB configuration information to a terminal, for enabling the terminal to communicate with the base station in one or more serving cells by using one or more numerologies corresponding to one or more DRBs carrying data of the terminal.
A grain-oriented electrical steel sheet comprising a steel composition containing, in mass% or mass ppm: C: 0.005 % or less, Si: 2.0 % to 5.0 %, Mn: 0.01 % to 0.5 %, sol.Al: 10 ppm or less, N: 15 ppm or less, S and Se: each 10 ppm or less, at least three selected from Sn, Sb, Cr, P, Mo and B whose contents satisfy the following relational expression, 0.16 ≤ % Sn + % Sb + % Cr + 2 × % P + % Mo + % B ≤ 0.50 where [%Sn], [%Sb], [%Cr], [%P], [%Mo] and [%B] each indicate contents in mass% of Sn, Sb, Cr, P, Mo and B in the steel, and optionally at least one selected from Ni: 0.005 % to 1.50 %, Cu: 0.01 % to 0.50 %, Ti: 0.0005 % to 0.0100 %, and Bi: 0.0005 % to 0.0100%, with the balance being Fe and inevitable impurities, wherein no cracks occur in the steel sheet while a number of times of repeated bending in a bend test according to JIS C 2553 is 10.
Compound of the formula 1a, 1b or 1c i.e. 2-phosphoryl-3-phenyl substituted 1-indanone of the molecular formula C 18 H 17 O 6 P, 2-phosphoryl-3-( para -bromophenyl) substituted 1-indanone of the molecular formula C 18 H 16 BrO 6 P, 2-phosphoryl-3-( para- methoxycarbonyl)phenyl substituted 1-indanone of the molecular formula C 20 H 19 O 8 P for use in the treatment of cervical cancer HeLa cells and chronic myelogenous leukemia K562 cells.
A method of enhancing the life of a second downstream part exposed in a gas stream having a cooling medium injected therein through multiple orifices in a first part upstream of the second downstream part, said first part being a non-rotational component of a turbine and said second part being a rotational component of the turbine comprising the steps of: ascertaining a temperature distribution of a flow field of the gas stream affecting the part life of the second part; and providing the orifices in the first part at an angle thereby to direct the flow of cooling medium in a radially outward or inward direction to alter the ascertained temperature distribution of the flow field affecting the second part thereby to enhance the life of said second part. ascertaining a temperature distribution of a flow field of the gas stream affecting the part life of the second part; and providing the orifices in the first part at an angle thereby to direct the flow of cooling medium in a radially outward or inward direction to alter the ascertained temperature distribution of the flow field affecting the second part thereby to enhance the life of said second part.
A radiotherapy system, comprising a radiotherapy apparatus comprising a first imaging unit, a gantry, an O-ring rotatably supporting the gantry, an imager driving unit, a first irradiating unit and a second irradiating unit (26, 55), said irradiating units being supported by the gantry, and a control unit configured to control the radiotherapy apparatus, comprising: a first imaging section configured to control the imager driving unit to move the first imaging unit with respect to the gantry to position said first imaging unit into a first position; and a second imaging section configured to control said imager driving unit to position said first imaging unit into a second position (53, 54), wherein said first imaging unit is configured to receive, when said imaging unit is positioned into the first position, a first transmission radiation, which has passed a predetermined region, the first transmission radiation forming part of a therapeutic radiation emitted from the first irradiating unit supported by said gantry, and to acquire a first transmission image from the first transmission radiation, and to receive, when said first imaging unit is positioned into the second position, a second transmission radiation, which has passed the predetermined region, the second transmission radiation forming part of a diagnostic emission emitted from the second irradiating unit (26, 55) supported by said gantry, and to acquire a second transmission image from the second transmission radiation. a first imaging section configured to control the imager driving unit to move the first imaging unit with respect to the gantry to position said first imaging unit into a first position; and a second imaging section configured to control said imager driving unit to position said first imaging unit into a second position (53, 54), wherein said first imaging unit is configured to receive, when said imaging unit is positioned into the first position, a first transmission radiation, which has passed a predetermined region, the first transmission radiation forming part of a therapeutic radiation emitted from the first irradiating unit supported by said gantry, and to acquire a first transmission image from the first transmission radiation, and to receive, when said first imaging unit is positioned into the second position, a second transmission radiation, which has passed the predetermined region, the second transmission radiation forming part of a diagnostic emission emitted from the second irradiating unit (26, 55) supported by said gantry, and to acquire a second transmission image from the second transmission radiation.
A method for detecting a membrane protein using a desorption electrospray ionisation source coupled to a mass spectrometer, wherein the method comprises: desorbing a membrane protein from a surface on which a sample comprising the membrane protein and a solubilising agent is deposited by applying electrospray to the sample; ionising the membrane protein; and detecting the membrane protein using the mass spectrometer. desorbing a membrane protein from a surface on which a sample comprising the membrane protein and a solubilising agent is deposited by applying electrospray to the sample; ionising the membrane protein; and detecting the membrane protein using the mass spectrometer.
A method for wireless communication with a wireless communications device, the wireless communications device comprising a plurality of the device subsystems, and a power manager that is coupled to the device subsystems, the plurality of the device subsystems including a communication system, including a variable-gain power amplifier, configured for communication with a wireless network, and the wireless communications device further comprising a programmable battery comprising an array of battery cells, a switch matrix coupled to the battery cells and to a gain input (A, B) of the variable-gain power amplifier and a command input coupled to an auxiliary I/O subsystem of the wireless communications device, the auxiliary I/O subsystem including a plurality of channels, each associated with a respective subsystem/device of the wireless communication device, the method comprising: the communication system receiving at least one power command from the wireless network indicative of at least one power requirement of the wireless network; the communication system generating at least one power configuration command based on the at least one power command, and providing the programmable battery with the at least one power configuration command, whereby the power manager transmits the power configuration commands to the programmable battery over one of the channels of the auxiliary I/O subsystem for the power control of the corresponding subsystem/device such that the battery is allowed to determine the subsystem/device for which a power configuration command has been issued; the communication system receiving from the programmable battery a voltage at the gain input of the variable-gain power amplifier based on the at least one power configuration command; and the communication system varying an amplification of a communication signal in accordance with a magnitude of the voltage applied to the gain input of the variable-gain power amplifier. the communication system receiving at least one power command from the wireless network indicative of at least one power requirement of the wireless network; the communication system generating at least one power configuration command based on the at least one power command, and providing the programmable battery with the at least one power configuration command, whereby the power manager transmits the power configuration commands to the programmable battery over one of the channels of the auxiliary I/O subsystem for the power control of the corresponding subsystem/device such that the battery is allowed to determine the subsystem/device for which a power configuration command has been issued; the communication system receiving from the programmable battery a voltage at the gain input of the variable-gain power amplifier based on the at least one power configuration command; and the communication system varying an amplification of a communication signal in accordance with a magnitude of the voltage applied to the gain input of the variable-gain power amplifier.
A method for defining a custom message for the management of terminals in a Machine to Machine, M2M, platform, characterized in that, the method comprises: receiving, by the M2M platform, a custom message register command for defining the custom message; generating, by the M2M platform, description information of the custom message according to all elements of the custom message in the custom message register command, wherein the elements of the custom message comprise identification information and function description of the custom message; and storing, by the M2M platform, the description information of the custom message. receiving, by the M2M platform, a custom message register command for defining the custom message; generating, by the M2M platform, description information of the custom message according to all elements of the custom message in the custom message register command, wherein the elements of the custom message comprise identification information and function description of the custom message; and storing, by the M2M platform, the description information of the custom message.
A composition, comprising: a continuous water phase, a discontinuous oil phase homogeneously distributed in said water phase, said oil phase comprising a sunscreen agent comprising a polymer composition, said polymer composition comprising a linear, ultraviolet radiation absorbing polyether that comprises a chemically bound UV-chromophore; and an oil-in-water emulsifier component comprising an anionic oil-in-water emulsifier in an amount of 0.5 percent to 3 percent by weight of said composition. a continuous water phase, a discontinuous oil phase homogeneously distributed in said water phase, said oil phase comprising a sunscreen agent comprising a polymer composition, said polymer composition comprising a linear, ultraviolet radiation absorbing polyether that comprises a chemically bound UV-chromophore; and an oil-in-water emulsifier component comprising an anionic oil-in-water emulsifier in an amount of 0.5 percent to 3 percent by weight of said composition.
Electronic device comprising at least two mesa structure diodes, each diode comprising at least: - a first and a second doped semiconductor portion forming a p-n junction, such that a first part of the second doped semiconductor portion located between a second part of the second doped semiconductor portion and the first doped semiconductor portion forms, on a single side of the mesa structure, an offset from the second part of the second doped semiconductor portion, - a first electrode electrically connected to the first doped semiconductor portion, and a second electrode electrically connected to the second doped semiconductor portion at an upper face of the second part of the second doped semiconductor portion, - dielectric portions covering the side faces of the first doped semiconductor portion, the second doped semiconductor portion and the first electrode such that dielectric portions at the sides of the mesa structure that do not form an offset are continuous along the entire height of the mesa structure, in which the upper faces of the first electrode, the second electrode and the dielectric portions form an approximately plane continuous surface, and in which: - the diodes are electrically connected in series such that the first electrode of one of the two diodes is electrically connected to the second electrode of the other of the two diodes, - the second electrode of said other of the two diodes is in contact with one of the dielectric portions of said one of the two diodes covering one of the sides of the mesa structure that does not form the offset. - a first and a second doped semiconductor portion forming a p-n junction, such that a first part of the second doped semiconductor portion located between a second part of the second doped semiconductor portion and the first doped semiconductor portion forms, on a single side of the mesa structure, an offset from the second part of the second doped semiconductor portion, - a first electrode electrically connected to the first doped semiconductor portion, and a second electrode electrically connected to the second doped semiconductor portion at an upper face of the second part of the second doped semiconductor portion, - dielectric portions covering the side faces of the first doped semiconductor portion, the second doped semiconductor portion and the first electrode such that dielectric portions at the sides of the mesa structure that do not form an offset are continuous along the entire height of the mesa structure, - the diodes are electrically connected in series such that the first electrode of one of the two diodes is electrically connected to the second electrode of the other of the two diodes, - the second electrode of said other of the two diodes is in contact with one of the dielectric portions of said one of the two diodes covering one of the sides of the mesa structure that does not form the offset.
The use as a blowing agent of a composition comprising at least 5% by weight of an azeotrope-like composition consisting essentially of effective amounts of trans-1,3,3,3-tetrafluoropropene (trans-HFO-1234ze) and a compound selected from the group consisting of propane, n-butane and isobutane, in the production of a thermoplastic foam.