mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a cyclic silane of Formula: (SiH 2) n Formula wherein n is an integer of 4 to 6, comprising reacting a cyclic silane compound of Formula: (SiR 1 R 2) n Formula wherein R 1 and R 2 are each a hydrogen atom, a C 1-6 alkyl group, or a substituted or unsubstituted phenyl group, but at most one of R 1 and R 2 is a hydrogen atom, and n is an integer of 4 to 6, with a hydrogen halide in cyclohexane, hexane, heptane, toluene, or benzene in the presence of an aluminum halide to obtain a solution containing a cyclic silane compound of Formula: (SiR 3 R 4) n Formula wherein R 3 and R 4 are each a halogen atom, and n is an integer of 4 to 6, and then distilling the solution to purify the cyclic silane compound of Formula, dissolving the purified cyclic silane compound of Formula in an organic solvent, and reducing the purified cyclic silane compound of Formula with hydrogen or lithium aluminum hydride.
An arrangement for storing data pertaining to network data traffic flowing through a network, comprising: a set of network cluster arrangements, wherein each network cluster arrangement of said set of network cluster arrangements includes a plurality of network devices (214, 220, 302) configured for receiving and sending said network data traffic, and a set of monitoring network appliances (218, 300) such as network taps configured for monitoring at least a portion of said network data traffic flowing between said plurality of network devices, for transmitting said data pertaining to said network data traffic to a set of network data collection arrangements (204, 210), and for copying said network data traffic and forwarding at least a portion of said network data traffic to one or more monitoring tools of a set of monitoring tools; and wherein the set of network data collection arrangements (204, 210) is configured for at least receiving said data pertaining to said network data traffic from the set of monitoring network appliances and storing said data pertaining to said network data traffic. a plurality of network devices (214, 220, 302) configured for receiving and sending said network data traffic, and a set of monitoring network appliances (218, 300) such as network taps configured for monitoring at least a portion of said network data traffic flowing between said plurality of network devices, for transmitting said data pertaining to said network data traffic to a set of network data collection arrangements (204, 210), and for copying said network data traffic and forwarding at least a portion of said network data traffic to one or more monitoring tools of a set of monitoring tools; and wherein the set of network data collection arrangements (204, 210) is configured for at least receiving said data pertaining to said network data traffic from the set of monitoring network appliances and storing said data pertaining to said network data traffic.
Device for converting kinetic energy from a flow (16, 18) of waves or water currents into mechanical energy of rotation, comprising a plurality of cross flow turbines, each one comprising fixed curved blades (5, 6) arranged in squirrel cage configuration about an axis of rotation, wherein the turbines are mounted on a floating support on the water, such that they can be directly placed in the fluid flow, and arranged successively one after another with their axes parallel to each other and perpendicular to the flow wherein the floating support has a U-cross section profile that forms the channel, such that a bottom hull and two side hulls (12A, 12B) are defined, the axes of the turbines being rotatably supported between the two side hulls (12A, 12B), and wherein the floating control means are floodable floats, so that the device is movable between a lower position where the turbines are completely sunk and an upper position where the turbines are arranged completely above the water level.
A method for wireless communication, comprising: determining a random access transmission scheme at a user equipment, UE, (116, 122, 250, 310) for a multiple input multiple output, MIMO, communication based at least in part on a number of transmit antennas (318 1 - 318 K) at the UE (116, 122, 250, 310) to be utilized for the MIMO communication, an identified format utilized by a random access channel, and a precoding vector that is selected based on the number of transmit antennas; and transmitting random access signals from the UE (116, 122, 250, 310) using the random access transmission scheme, wherein a random access signal is transmitted by the UE (116, 122, 250, 310) over the several transmit antennas (318 1 - 318 K). determining a random access transmission scheme at a user equipment, UE, (116, 122, 250, 310) for a multiple input multiple output, MIMO, communication based at least in part on a number of transmit antennas (318 1 - 318 K) at the UE (116, 122, 250, 310) to be utilized for the MIMO communication, an identified format utilized by a random access channel, and a precoding vector that is selected based on the number of transmit antennas; and transmitting random access signals from the UE (116, 122, 250, 310) using the random access transmission scheme, wherein a random access signal is transmitted by the UE (116, 122, 250, 310) over the several transmit antennas (318 1 - 318 K).
An apparatus for characterizing multiphase flow in a pipe transporting a fluid under pressure, comprising a transmitter for generating a microwave signal and a first antennae (115, 503) coupled to the transmitter for transmitting the microwave signal into the fluid contained within a section of the pipe and for receiving a reflected microwave signal reflected from the fluid contained within the section of the pipe, wherein the apparatus further comprises: a first detector in communication with the first antenna via a transmission line, said first detector configured for detecting a standing wave on the transmission line, said standing wave comprising the transmitted microwave signal and the reflected microwave signal, said first detector producing a first voltage (Vs) representative of the standing wave; a second antenna (118, 703) located across the pipe from the first antenna for receiving the transmitted microwave signal through the fluid contained within the section of the pipe; a second detector in communication with the second antenna for receiving the transmitted microwave signal from the second antenna and for producing a second voltage (V T) representative thereof; a pre-amplifier/filter for pre-processing the received first and second voltage signals; an analog-to-digital converter for converting the pre-processed received voltage signals from analog to digital; and a monitoring processor receiving and responsive to the converted voltage signals for identifying characteristics of the flow as a function thereof and characterized in that the first detector is a first diode detector and in that the second detector is a second diode detector. a first detector in communication with the first antenna via a transmission line, said first detector configured for detecting a standing wave on the transmission line, said standing wave comprising the transmitted microwave signal and the reflected microwave signal, said first detector producing a first voltage (Vs) representative of the standing wave; a second antenna (118, 703) located across the pipe from the first antenna for receiving the transmitted microwave signal through the fluid contained within the section of the pipe; a second detector in communication with the second antenna for receiving the transmitted microwave signal from the second antenna and for producing a second voltage (V T) representative thereof; a pre-amplifier/filter for pre-processing the received first and second voltage signals; an analog-to-digital converter for converting the pre-processed received voltage signals from analog to digital; and a monitoring processor receiving and responsive to the converted voltage signals for identifying characteristics of the flow as a function thereof and characterized in that the first detector is a first diode detector and in that the second detector is a second diode detector.
A roll forming assembly for forming a tube into a transverse strut, comprising: a heater for heating the tube to a predetermined temperature; a roll former including a plurality of forming wheels (46, 48, 50) for deforming the tube; and an actuator operably coupled to at least one of the forming wheels (46, 48, 50) of the roll former and configured to move the associated of the forming wheels (46, 48, 50) in a radial direction to deform the tube into a transverse strut having a variable cross-sectional shape along the length of the transverse strut, characterized by at least one of the forming wheels (46, 48, 50) has a non-cylindrical shape for, in use, changing the cross-sectional shape of the tube along at least a portion of the length of the tube to a generally U-shaped profile. a heater for heating the tube to a predetermined temperature; a roll former including a plurality of forming wheels (46, 48, 50) for deforming the tube; and an actuator operably coupled to at least one of the forming wheels (46, 48, 50) of the roll former and configured to move the associated of the forming wheels (46, 48, 50) in a radial direction to deform the tube into a transverse strut having a variable cross-sectional shape along the length of the transverse strut, characterized by at least one of the forming wheels (46, 48, 50) has a non-cylindrical shape for, in use, changing the cross-sectional shape of the tube along at least a portion of the length of the tube to a generally U-shaped profile.
A crosslinked polymer for use in an orthodontic appliance, the crosslinked polymer having a tensile modulus from 800 MPa to 2000 MPa, a tensile strength at yield of 20 MPa to 55 MPa, an elongation at yield greater than 4% and an elongation at break greater than 30%, as measured by the method disclosed in the description; wherein the crosslinked polymer comprises a first repeating unit derived from a urethane (meth)acrylate oligomer and a second repeating unit derived from a vinyl or thiol monomer wherein at least one of the urethane (meth)acrylate oligomer, the vinyl monomer and the thiol monomer comprises at least two polymerizable groups.
An acrylic colored adhesive comprising a carboxylic group-containing (meth) acrylic polymer; a coloring agent comprising a pigment or a dye; and an amino group-containing (meth) acrylic polymer free of aromatic vinyl monomers, wherein the weight ratio of the pigment or dye and the amino group-containing (meth) acrylic polymer in the coloring agent is 1 to 100: 5 to 1000 parts by weight.
Electric machine and associated electronic control unit including a group of embedded maps of the same setpoint parameter as a function of a first operating variable and of a second operating variable of the machine, each of the maps being recorded in the same variation domain of the two parameters (N, C), each of the maps being associated with a different level of a third operating parameter of the electric machine, the maps including areal ranges of values having at least two different types of status, i.e. permitted areal value ranges and, for at least one of the maps, at least one areal range (E, 9, 10, 11) of extrapolated values, characterized in that the electronic control unit is configured, when the value (V mes) of a third parameter is associated with one of the embedded maps (15, 16), to use as a setpoint value (I d, I f, I q) values (I A, I B) belonging to the permitted areal ranges excluding values (I Aext) belonging to the extrapolated areal ranges, and the electronic control unit is configured, for the values of the third parameter (V mes) that are not associated with one of the embedded maps (15, 16), to use values (I Vmes) interpolated between two permitted values (I B, I A), or between a permitted value (I B) and an extrapolated value (I Aex t).
An NO-accumulation apparatus for accumulating NO in a liquid, comprising: a container defining a cavity for accommodating a liquid, an inlet for feeding the liquid into the container and an outlet for delivering the liquid from the container to a bath unit; an NO-gas dissolving unit for dissolving gaseous NO in the liquid to produce an NO-containing liquid, wherein the NO-gas dissolving unit is arranged in the container and/or forms a part of the container; and an NO-gas port in fluid communication with the NO-gas dissolving unit, wherein the NO-gas port is adapted for coupling, particularly for releasably coupling, with an NO-gas supply, whereby the apparatus further comprises means for decoupling the inflow of NO to the liquid within the container from the removal of the NO-containing liquid (NO-decoupling means), so that the removal of the NO-containing liquid is inhibited, when the NO is flowing into the liquid, and also the NO inflow is inhibited when the NO-containing liquid is removed from the container, and characterised in that the decoupling means are mechanically, electrically or electronically coupled to allow the decoupling of the NO-inflow and the liquid removal. a container defining a cavity for accommodating a liquid, an inlet for feeding the liquid into the container and an outlet for delivering the liquid from the container to a bath unit; an NO-gas dissolving unit for dissolving gaseous NO in the liquid to produce an NO-containing liquid, wherein the NO-gas dissolving unit is arranged in the container and/or forms a part of the container; and an NO-gas port in fluid communication with the NO-gas dissolving unit, wherein the NO-gas port is adapted for coupling, particularly for releasably coupling, with an NO-gas supply, whereby the apparatus further comprises means for decoupling the inflow of NO to the liquid within the container from the removal of the NO-containing liquid (NO-decoupling means), so that the removal of the NO-containing liquid is inhibited, when the NO is flowing into the liquid, and also the NO inflow is inhibited when the NO-containing liquid is removed from the container, and characterised in that the decoupling means are mechanically, electrically or electronically coupled to allow the decoupling of the NO-inflow and the liquid removal.
A power system comprising: a power-system output configured to be coupled to, and provide an output AC waveform to, one or more loads; a positive DC bus; a negative DC bus; an inverter coupled to the positive DC bus and to the negative DC bus, the inverter including an inverter output coupled to the power-system output, the inverter being implemented as a two-stage inverter according to an active neutral-point clamped, ANPC, topology, wherein a first stage of the inverter comprises a set of inverter switching devices comprising an upper-most inverter switching device and a lower-most inverter switching device; and a DC/DC converter, characterized in that the DC/DC converter comprises a first port connected to the inverter and a second port, in that the upper-most inverter switching device is coupled to the positive DC bus at a first connection and to a first terminal of said first port at a second connection, and in that the lower-most inverter switching device is coupled to a second terminal of said first port at a first connection and to the negative DC bus at a second connection. a power-system output configured to be coupled to, and provide an output AC waveform to, one or more loads; a positive DC bus; a negative DC bus; an inverter coupled to the positive DC bus and to the negative DC bus, the inverter including an inverter output coupled to the power-system output, the inverter being implemented as a two-stage inverter according to an active neutral-point clamped, ANPC, topology, wherein a first stage of the inverter comprises a set of inverter switching devices comprising an upper-most inverter switching device and a lower-most inverter switching device; and a DC/DC converter, characterized in that the DC/DC converter comprises a first port connected to the inverter and a second port, in that the upper-most inverter switching device is coupled to the positive DC bus at a first connection and to a first terminal of said first port at a second connection, and in that the lower-most inverter switching device is coupled to a second terminal of said first port at a first connection and to the negative DC bus at a second connection.
Cooling equipment for a hot rolled steel plate which is configured to be arranged on a hot rolling line of a steel plate, wherein an upper header which supplies cooling water, upper cooling water jetting nozzles which are suspended from the upper header for jetting rod-like water flow, and an upper dividing wall which is arranged between the hot rolled steel plate and the upper header are arranged on an upper surface side of the hot rolled steel plate, wherein a large number of upper water-supply inlets and a large number of upper drain outlets which drain the cooling water supplied to the upper surface of the hot rolled steel plate on the upper dividing wall are formed in the upper dividing wall, and wherein a lower header which supplies cooling water and lower cooling water jetting nozzles which jet rod-like water flow upward in the vertical direction from the lower header are arranged on a lower surface side of the hot rolled steel plate, characterised in that the said large number of upper water-supply inlets allow the insertion of lower end portions of the upper cooling water jetting nozzles thereinto, and in that the lower cooling water jetting nozzles are arranged such that jetting lines from the lower cooling water jetting nozzles penetrate the upper drain outlets formed in the upper dividing wall. wherein an upper header which supplies cooling water, upper cooling water jetting nozzles which are suspended from the upper header for jetting rod-like water flow, and an upper dividing wall which is arranged between the hot rolled steel plate and the upper header are arranged on an upper surface side of the hot rolled steel plate, wherein a large number of upper water-supply inlets and a large number of upper drain outlets which drain the cooling water supplied to the upper surface of the hot rolled steel plate on the upper dividing wall are formed in the upper dividing wall, and wherein a lower header which supplies cooling water and lower cooling water jetting nozzles which jet rod-like water flow upward in the vertical direction from the lower header are arranged on a lower surface side of the hot rolled steel plate, characterised in that the said large number of upper water-supply inlets allow the insertion of lower end portions of the upper cooling water jetting nozzles thereinto, and in that the lower cooling water jetting nozzles are arranged such that jetting lines from the lower cooling water jetting nozzles penetrate the upper drain outlets formed in the upper dividing wall.
An apparatus for manufacturing an absorbent article having a front waistline region, a rear waistline region, and a crotch region positioned between the front waistline region and the rear waistline region, comprising: a guide member that guides an elastic member fed on a web configuring a component of the absorbent article and being conveyed in a continuous state, wherein the guide member comprises: an arm member having a tip portion that is a feeding position of the elastic member to the web, and a base portion separated from the tip portion; a first driving member that swings the arm member about the base portion of the arm member as a rotational axis; and a second driving member that performs a back and forth movement of the arm member and the first driving member in a first direction in which the tip portion is close to a contact point where the elastic member is in contact with the web, and a second direction in which the tip portion is separated from the contact point.
Sealing device for sealing a radially inner gas channel between a vane ring and a rotor of a turbomachine, the sealing device comprising a sealing ring for forming a sealing space together with a portion of an integral inner ring of the vane ring, which portion is a rear portion when viewed in the direction of a main flow, into which space a front platform overhang ring of a downstream series of rotor blades enters, the sealing device comprising an outer radial flange for attaching to the integral inner ring, and comprising a double-walled cylinder that has an outer wall oriented in a first direction and an inner wall oriented in the opposite direction, which walls are interconnected by means of a ring bend, the radial flange transitioning into the outer wall and the cylinder forming the sealing ring, characterized in that the inner wall transitions, via a ring web, into at least one inner body portion (38, 50), oriented in parallel with the first direction or with the opposite direction, for radially inwardly receiving a sealing structure, the sealing device having a homogenous, preferably relatively low, wall thickness over the individual, integrally formed portions thereof such that the sealing device is resilient to a certain extent, the ring bend and the ring web acting as radial spring elements.
A beverage can comprising an opener, which is riveted to the upper top surface of the can and by means of which, by lifting one of the ends thereof, the can can be opened via a pivoting movement of the opener about an axis transversely to the longitudinal axis of the rivet, in that the other end pushes a predetermined section of the top surface out of the top surface and bends said section into the can, wherein the opener comprises a sound generator, characterized in that, when the can is open, the sound generator remains in a position diagonally to the top surface of the can and projects into the cavity of the can so as to influence the sound generation, wherein the air flow channel of said sound generator ends in the can.
An information processing apparatus comprising: a control unit which is configured to determine whether a first wireless communication apparatus for which a connection right to connect to a predetermined network operated by a communication operator based on contract authentication information using wireless communication has not been set satisfies a predetermined condition for connecting to the network and performing predetermined communication processing, wherein, when the predetermined condition is satisfied, the predetermined condition being satisfied when a selection of a purchase operation is made by the information processing apparatus and a selection of the first wireless communications apparatus is made by the information processing apparatus the control unit is configured to perform control for transferring the connection right from the information processing apparatus for which the connection right has been set to the first wireless communication apparatus in order to enable the first wireless communication apparatus to perform the communication processing using the connection right. a control unit which is configured to determine whether a first wireless communication apparatus for which a connection right to connect to a predetermined network operated by a communication operator based on contract authentication information using wireless communication has not been set satisfies a predetermined condition for connecting to the network and performing predetermined communication processing, wherein, when the predetermined condition is satisfied, the predetermined condition being satisfied when a selection of a purchase operation is made by the information processing apparatus and a selection of the first wireless communications apparatus is made by the information processing apparatus the control unit is configured to perform control for transferring the connection right from the information processing apparatus for which the connection right has been set to the first wireless communication apparatus in order to enable the first wireless communication apparatus to perform the communication processing using the connection right.