mhurhangee/ep-ind-claims huggingface dataset:
A portable gas heater, comprising: - a support structure having a front side and a rear side opposite the front side, - a tubular side wall connected to the support structure and having a longitudinal axis, the tubular wall defining internally a combustion chamber and having a front end open and facing the front side as well as a rear end facing the rear side, - a rear wall connected to the side wall near the rear end and defining the combustion chamber on the rear side, - a supply tube for supplying fuel gas to the combustion chamber, said supply tube having a front length extending through the rear wall to the inside of the combustion chamber and a rear length extending outside of the combustion chamber, characterized in that: - the rear length of the supply tube is connected to the support structure and a flame spreader member is connected to an outlet port of the front length of the supply tube, and in that at least one of the connections: - between the supply tube and the support structure, - between the flame spreader member, the supply tube and the rear wall, - between the rear wall and the side wall is a clearance fit. - a support structure having a front side and a rear side opposite the front side, - a tubular side wall connected to the support structure and having a longitudinal axis, the tubular wall defining internally a combustion chamber and having a front end open and facing the front side as well as a rear end facing the rear side, - a rear wall connected to the side wall near the rear end and defining the combustion chamber on the rear side, - a supply tube for supplying fuel gas to the combustion chamber, said supply tube having a front length extending through the rear wall to the inside of the combustion chamber and a rear length extending outside of the combustion chamber, - the rear length of the supply tube is connected to the support structure and a flame spreader member is connected to an outlet port of the front length of the supply tube, - between the supply tube and the support structure, - between the flame spreader member, the supply tube and the rear wall, - between the rear wall and the side wall is a clearance fit.
An apparatus comprising: a first longitudinal member and a second longitudinal member configured to be located near a tissue region; an energy source coupled to the first longitudinal member and the second longitudinal member; a measuring device (124-n) configured to measure at least one characteristic of the tissue region; and an energy controller coupled to the energy source and the measuring device (124-n), the energy controller comprising a processor coupled to a memory and configured to execute programmed instructions stored in the memory, comprising: initiating a delivery of energy to the tissue region from the energy source; said processor being configured for receiving one or more items of data from the measuring device (124-n) based on the delivery of energy to the tissue region; determining a phase state of tissue ablation in the tissue region based on the one or more items of data during formation of a channel in the tissue region, wherein the phase state during the formation of the channel in the tissue region comprises a pre-plasma phase, a plasma phase, and a channel phase; and adjusting the delivery of energy to the tissue region based on the phase state. a first longitudinal member and a second longitudinal member configured to be located near a tissue region; an energy source coupled to the first longitudinal member and the second longitudinal member; a measuring device (124-n) configured to measure at least one characteristic of the tissue region; and an energy controller coupled to the energy source and the measuring device (124-n), the energy controller comprising a processor coupled to a memory and configured to execute programmed instructions stored in the memory, comprising: initiating a delivery of energy to the tissue region from the energy source; said processor being configured for receiving one or more items of data from the measuring device (124-n) based on the delivery of energy to the tissue region; determining a phase state of tissue ablation in the tissue region based on the one or more items of data during formation of a channel in the tissue region, wherein the phase state during the formation of the channel in the tissue region comprises a pre-plasma phase, a plasma phase, and a channel phase; and adjusting the delivery of energy to the tissue region based on the phase state. initiating a delivery of energy to the tissue region from the energy source; said processor being configured for receiving one or more items of data from the measuring device (124-n) based on the delivery of energy to the tissue region; determining a phase state of tissue ablation in the tissue region based on the one or more items of data during formation of a channel in the tissue region, wherein the phase state during the formation of the channel in the tissue region comprises a pre-plasma phase, a plasma phase, and a channel phase; and adjusting the delivery of energy to the tissue region based on the phase state.
Hydroelectric generator adapted to be installed in a water course, having a semi-submerged rotor, comprising a fixed platform, rotor means (3, 13) for the conversion of kinetic energy of a fluid in electric energy, characterized by comprising adjusting means (4, 4B, 5, 6) to adjust the position of the rotor means (3, 13), said adjusting means (4, 4B, 5, 6) to adjust the position being constrained to said fixed platform, and moving, in a controlled way, said rotor means (3, 13) with respect to said fixed platform with at least two degrees of freedom; a first degree of freedom to change at least the orientation of the axis of the rotor of said rotor means (3, 13) with respect to the main flow direction of the water in said water course, and a second degree of freedom to adjust the ratio between the volume of the rotor portion of said rotor means (3, 13) submerged in said fluid and the volume of the rotor portion not submerged in said fluid.
Method for machining a casing for a turbo engine, wherein a) at least one blank part for the casing is positioned in a tooling fixture, b) the at least one blank part is mechanically stressed by at least one locally applied force (F1, F2, F3, F4, F5, F6, F7) through at least one deformation device into a predetermined stress status, the tooling fixture maintaining the stress status in the at least one blank part, wherein the mechanical stressing of the at least one blank part is determined by a data processing unit using input data from finite element models, isothermal models or thermal models and / or using input data obtained from predetermined data, in particular experimental data, theoretical analysis and/or simulation data conducted with and / or obtained from with the casing of the turbo engine, and wherein the data processing unit is used to control the movement of the deformation device; c) the at least one blank part in the stress state is subjected to a machining process, d) the stress status is released after the completion of the machining process so that the machined part takes on the shape determined by the internal stress without the at least one locally applied force (F1, F2, F3, F4, F5, F6, F7). a) at least one blank part for the casing is positioned in a tooling fixture, b) the at least one blank part is mechanically stressed by at least one locally applied force (F1, F2, F3, F4, F5, F6, F7) through at least one deformation device into a predetermined stress status, the tooling fixture maintaining the stress status in the at least one blank part, wherein the mechanical stressing of the at least one blank part is determined by a data processing unit using input data from finite element models, isothermal models or thermal models and / or using input data obtained from predetermined data, in particular experimental data, theoretical analysis and/or simulation data conducted with and / or obtained from with the casing of the turbo engine, and wherein the data processing unit is used to control the movement of the deformation device; c) the at least one blank part in the stress state is subjected to a machining process, d) the stress status is released after the completion of the machining process so that the machined part takes on the shape determined by the internal stress without the at least one locally applied force (F1, F2, F3, F4, F5, F6, F7).
Polyarylene sulfide comprising an arylene sulfide repeat unit and an arylene disulfide repeat unit, wherein the weight ratio of the arylene sulfide repeat unit: arylene disulfide repeat unit is 1: 0.0001 to 1: 0.05, wherein the degree of dispersion as defined by weight average molecular weight to number average molecular weight is 2.0 to 4.0.
A grid-dependent power limiter system for reducing pole-slipping, said system comprising: a power limiter configured to: receive a phase locked loop error signal and a terminal grid voltage feedback signal; generate a power command signal based on the phase locked loop error signal and the terminal grid voltage feedback signal; a power regulator coupled to said power limiter, said power regulator configured to: receive the power command signal; generate a real current command signal based at least partially on the power command signal; and transmit the real current command signal to a controller. a power limiter configured to: receive a phase locked loop error signal and a terminal grid voltage feedback signal; generate a power command signal based on the phase locked loop error signal and the terminal grid voltage feedback signal; a power regulator coupled to said power limiter, said power regulator configured to: receive the power command signal; generate a real current command signal based at least partially on the power command signal; and transmit the real current command signal to a controller. receive a phase locked loop error signal and a terminal grid voltage feedback signal; generate a power command signal based on the phase locked loop error signal and the terminal grid voltage feedback signal; a power regulator coupled to said power limiter, said power regulator configured to: receive the power command signal; generate a real current command signal based at least partially on the power command signal; and transmit the real current command signal to a controller. receive the power command signal; generate a real current command signal based at least partially on the power command signal; and transmit the real current command signal to a controller.
Automated high-precision plunger pump for volumes under a microlitre, comprising a housing and a pump head which defines a work chamber having a common or separate inlet and outlet openings, wherein the volume of the work chamber is variable by an axially movable plunger which can be introduced into it, the plunger is axially movable by a threaded spindle or a spindle nut which is located in threaded engagement on the threaded spindle, and the threaded spindle and/or the spindle nut is rotationally drivable, characterised in that the other one is designed to be rotationally lockable by means of a clutch. a housing and a pump head which defines a work chamber having a common or separate inlet and outlet openings, wherein the volume of the work chamber is variable by an axially movable plunger which can be introduced into it, the plunger is axially movable by a threaded spindle or a spindle nut which is located in threaded engagement on the threaded spindle, and the threaded spindle and/or the spindle nut is rotationally drivable, characterised in that the other one is designed to be rotationally lockable by means of a clutch.
A titanium dioxide scaffold, wherein at least part of the surface of said titanium dioxide scaffold is provided with a hydrogel coating comprising at least one biologically active substance, wherein said titanium dioxide scaffold is obtainable or obtained by a method comprising the steps of: a) providing a titanium dioxide scaffold, b) providing a polymer solution comprising a biologically active substance(s) and about 1-10 % w/v of a polymer having a molecular weight (M w) of 1 000-1 000 000 g/mol, to at least part of said titanium dioxide scaffold and then centrifuging the titanium dioxide scaffold, c) effecting gelation of the polymer provided to the titanium dioxide scaffold in step b); and d) optionally drying the titanium dioxide scaffold, wherein steps b) and c) optionally are repeated at least once. a) providing a titanium dioxide scaffold, b) providing a polymer solution comprising a biologically active substance(s) and about 1-10 % w/v of a polymer having a molecular weight (M w) of 1 000-1 000 000 g/mol, to at least part of said titanium dioxide scaffold and then centrifuging the titanium dioxide scaffold, c) effecting gelation of the polymer provided to the titanium dioxide scaffold in step b); and d) optionally drying the titanium dioxide scaffold,
Method for operating a textile machine with a multiple number of similar work stations, - whereas, with the assistance of the work stations during the normal operation of the same, yarn is produced or is rewound from a delivery coil onto a receiver coil, and - whereas normal operation is initiated at the individual work stations after a stop of the textile machine, or is interrupted at certain time intervals by a service operation in the form of a piecing process, a service operation in the form of a tube changing process or a service operation in the form of a yarn joining process, characterized in that at least one of the specified service operations is subdivided into several partial sequences, and that a pending partial sequence is carried out independently of the other partial sequences of the corresponding service operation, if the required energy resources for carrying out the pending partial sequence are available. - whereas, with the assistance of the work stations during the normal operation of the same, yarn is produced or is rewound from a delivery coil onto a receiver coil, and - whereas normal operation is initiated at the individual work stations after a stop of the textile machine, or is interrupted at certain time intervals by a service operation in the form of a piecing process, a service operation in the form of a tube changing process or a service operation in the form of a yarn joining process,
A mounting structure of a tap handle comprising a body in round tubular shape, a valve core and a handle, wherein the handle comprises a ball-head connection part and is arranged on an end portion of a first end of the body, the valve core is located in the body, the ball-head connection part rotates around a first axis to toggle the valve core to open and close, and the first axis is vertical to an axis of the body, characterized in that the mounting structure of the tap handle further comprises: a first limiting sleeve, the first limiting sleeve being clamped to the inner wall of the body by coaxial relative rotation, and an inner wall surface of the first limiting sleeve being provided with an arc surface matched with the ball-head connection part; a second limiting sleeve, the second limiting sleeve being coaxially arranged on the end portion of the first end of the body and clamping the ball-head connection part between the second limiting sleeve and the first limiting sleeve; the second limiting sleeve being detachably and fixedly connected to an inner wall of the body and preventing the first limiting sleeve from separating from the inner wall of the body in the relative rotation by establishing a rotation stopping connection relationship between the second limiting sleeve and the first limiting sleeve.
Safety system for an inductive power transfer system for transferring power to a vehicle on a surface of a route, wherein the primary unit comprises at least one primary winding for generating an electromagnetic primary field for the inductive power transfer, wherein a charging surface of the route is assigned to the primary winding, wherein the safety system comprises at least one inductive sensing system, wherein the inductive sensing system comprises multiple detection windings wherein the multiple detection windings are arranged in an array structure, wherein the array structure covers the charging surface at least partially, characterized in that the inductive sensing system comprises at least one excitation winding (12, 12a, 12b) for generating an excitation field which is receivable by the detection windings.
A method for transmitting a broadcast signal, the method comprising: generating at least one first link layer packet including input packets, the input packets including service data for a broadcast service; generating at least one second link layer packet including link layer signaling information; physical processing the at least one first link layer packet and the at least one second link layer packet; and transmitting the broadcast signal including the at least one physical processed first link layer packet and the physical processed at least one second link layer packet, wherein generating the at least one first link layer packet comprises performing selective header compression on the input packets, wherein when the input packets are Transport Stream, TS, packets, the at least one first link layer packet includes a header (t107010, t107020; t108010, t108020; t109010, t109020) and a payload having TS packets, wherein the header includes a packet type field (Type) for identifying that the input packets included in the payload are TS packets, a number field (Count) for identifying a number of TS packets included in the payload and a flag field (NDPI; OP) for identifying whether an additional header is present in the at least one first link layer packet, wherein the additional header includes information to identifying whether the header compression is performed on the TS packets when the flag field (NDPI; OP) identifies that the additional header is present, and wherein said header compression comprises a header deletion process. generating at least one first link layer packet including input packets, the input packets including service data for a broadcast service; generating at least one second link layer packet including link layer signaling information; physical processing the at least one first link layer packet and the at least one second link layer packet; and transmitting the broadcast signal including the at least one physical processed first link layer packet and the physical processed at least one second link layer packet, wherein generating the at least one first link layer packet comprises performing selective header compression on the input packets, wherein when the input packets are Transport Stream, TS, packets, the at least one first link layer packet includes a header (t107010, t107020; t108010, t108020; t109010, t109020) and a payload having TS packets, wherein the header includes a packet type field (Type) for identifying that the input packets included in the payload are TS packets, a number field (Count) for identifying a number of TS packets included in the payload and a flag field (NDPI; OP) for identifying whether an additional header is present in the at least one first link layer packet, wherein the additional header includes information to identifying whether the header compression is performed on the TS packets when the flag field (NDPI; OP) identifies that the additional header is present, and wherein said header compression comprises a header deletion process.
An accelerator system able to accelerate high currents of proton beams at energies higher than 0.3 MeV comprising: a dc accelerating structure having an accelerating tube, wherein the accelerating tube comprises a plurality of conducting electrodes separated from each other by insulating rings, the accelerating tube configured to provide an accelerating electric field to accelerate the proton beam; a high voltage, high current power supply providing accelerating voltage to said accelerating structure; a proton ion source having a beam extraction aperture, wherein the proton ion source provides 5 mA or more of proton beam while releasing less than 3 SCCM of neutral hydrogen gas through the beam extracting aperture; a vacuum chamber, which connects the proton ion source to the accelerating structure; a vacuum pump connected to the vacuum chamber; an aperture having a diameter smaller than the diameter of the interior of the electrodes of the accelerating tube and placed at the entrance of the accelerating structure downstream of the vacuum pump connected to the vacuum chamber; and a dipole analyzing magnet located between the proton ion source and the accelerating tube, wherein the field configuration of the dipole analyzing magnet prevents ions other than protons produced by the proton ion source to reach the accelerating structure. a dc accelerating structure having an accelerating tube, wherein the accelerating tube comprises a plurality of conducting electrodes separated from each other by insulating rings, the accelerating tube configured to provide an accelerating electric field to accelerate the proton beam; a high voltage, high current power supply providing accelerating voltage to said accelerating structure; a proton ion source having a beam extraction aperture, wherein the proton ion source provides 5 mA or more of proton beam while releasing less than 3 SCCM of neutral hydrogen gas through the beam extracting aperture; a vacuum chamber, which connects the proton ion source to the accelerating structure; a vacuum pump connected to the vacuum chamber; an aperture having a diameter smaller than the diameter of the interior of the electrodes of the accelerating tube and placed at the entrance of the accelerating structure downstream of the vacuum pump connected to the vacuum chamber; and a dipole analyzing magnet located between the proton ion source and the accelerating tube, wherein the field configuration of the dipole analyzing magnet prevents ions other than protons produced by the proton ion source to reach the accelerating structure.
A backup circuit disposed between a digital circuit including a storage circuit and a power supply terminal (T IN, T GND) for supplying power to said digital circuit, said backup circuit comprising a backup capacitor for supplying a backup voltage to said digital circuit when the power is cut off, thereby holding information stored in said storage circuit, characterized in that said backup circuit includes one MOS transistor (MOS1, MOS2) or a series connection of plural MOS transistors (MOS1, MOS2), wherein the MOS transistor is formed by a standard CMOS process, disposed between said power supply terminal (T IN, T GND) and said backup capacitor, and configured to serve as a resistor when the power is normally supplied to said power supply terminal and as a diode each operating with a forward direction thereof defined as the direction from said digital circuit toward said power supply terminal when the power is cut off, wherein the forward voltage of the single MOS transistor or the combined forward voltage of the series-connected plural MOS transistors (MOS1, MOS2) when operating as diode is higher than the voltage required in the storage circuit for maintaining information.