mhurhangee/ep-ind-claims huggingface dataset:
A microwave ablation probe comprising a feedline 432) having an inner conductor, an outer conductor and a dielectric disposed there-between; an antenna 452); and a shaft (402, 445), the antenna and feedline disposed within the shaft; wherein the shaft comprises a metal portion and a ceramic portion, the ceramic portion extending axially to be at least coextensive with the antenna, and wherein the antenna includes: a helical arm being electrically connected to the outer conductor of the feedline at a junction point, the helical arm being co-axially disposed about the feedline and extending in a proximal direction from the junction; and a linear arm being electrically connected to the inner conductor of the feedline, the linear arm extending distally from a distal end of the feedline, wherein the linear arm further includes: a first portion surrounded by a dielectric, and a second portion free of dielectric, the second portion being distal to the first portion. a feedline 432) having an inner conductor, an outer conductor and a dielectric disposed there-between; an antenna 452); and a shaft (402, 445), the antenna and feedline disposed within the shaft; a helical arm being electrically connected to the outer conductor of the feedline at a junction point, the helical arm being co-axially disposed about the feedline and extending in a proximal direction from the junction; and a linear arm being electrically connected to the inner conductor of the feedline, the linear arm extending distally from a distal end of the feedline, wherein the linear arm further includes: a first portion surrounded by a dielectric, and a second portion free of dielectric, the second portion being distal to the first portion. a first portion surrounded by a dielectric, and a second portion free of dielectric, the second portion being distal to the first portion.
A map invoking method, conducted by a combined robot, including a self-moving robot combined to a functional module, wherein, in an uncombined mode, the self-moving robot works without the functional module, and in the uncombined mode, the self-moving robot generates two-dimensional map information of a working surface by scanning the working surface during a traversing walk and three-dimensional map information by collecting spatial height information above the working surface and by overlaying said spatial height information to the two-dimensional map information; the method comprising: invoking three-dimensional map information; calculating a plane map with a height L from the ground according to a body height of the combined robot and three-dimensional map information; planning a walking path according to the plane map; and conducting a walking operation along the walking path; wherein the combined robot further includes the functional module combined and connected on top of the self-moving robot; and a storage unit configured to store two-dimensional map information and the three-dimensional map information of a working region. invoking three-dimensional map information; calculating a plane map with a height L from the ground according to a body height of the combined robot and three-dimensional map information; planning a walking path according to the plane map; and conducting a walking operation along the walking path; wherein the combined robot further includes the functional module combined and connected on top of the self-moving robot; and a storage unit configured to store two-dimensional map information and the three-dimensional map information of a working region.
A device comprising a switch of a control unit for actuating an electric thermostat fitting, wherein the switch can be received in a bore in a lining element, e.g. of a washbasin or of a wall, in such a manner that it can be inspected, wherein the switch includes a switch body and a protruding disc, characterized in that the device comprises a pad, wherein the pad comprises a bore for receiving the switch body, wherein the switch with the switch body is mounted in the bore of the pad in such a manner that its disc rests on the pad, wherein the pad is secured in the bore of the lining element and wherein the pad brings about the securement of the switch in the bore of the lining element, in such a manner that it can be inspected, and the impermeability of the transition from the pad to the wall of the bore in the lining element.
Method for controlling a system for treating NOx present in an exhaust line of an internal combustion engine, said system including means for introducing into the exhaust line a reducing agent upstream from a catalyst for reducing NOx, characterized in that the efficiency of the treatment relatively to an obtained potential of maximum conversion of NOx is estimated if the ratio between the injected amount of reducing agent and the amount of NOx in the gases observes a given set value and if the mass of reducing agent stored in the catalyst observes a given storage set value, and said mass being estimated - on the basis of a basic mapping depending on the temperature of the exhaust gases and on the NO 2 /NO ratio of the NOx or - by integrating over time the storage rate of the ammonia injected into the line and the ammonia release rate by reaction of the NOx, by posing as boundary conditions that this mass cannot be less than 0, the release rate being estimated by assuming that the stoichiometric ratio R NH3/NOx of the NOx conversion reaction by ammonia depends on the NO 2 /NO ratio of the NOx in the following way: if R NO 2 / NO < 0.5 then R NH 3 / NOx = 1, else R NH 3 / NOx = 1 + 8 R NO 2 / NO − 0.50 / 1 + 6 * R NO 2 / NO − 0.50. - on the basis of a basic mapping depending on the temperature of the exhaust gases and on the NO 2 /NO ratio of the NOx or - by integrating over time the storage rate of the ammonia injected into the line and the ammonia release rate by reaction of the NOx, by posing as boundary conditions that this mass cannot be less than 0, the release rate being estimated by assuming that the stoichiometric ratio R NH3/NOx of the NOx conversion reaction by ammonia depends on the NO 2 /NO ratio of the NOx in the following way: if R NO 2 / NO < 0.5 then R NH 3 / NOx = 1, else R NH 3 / NOx = 1 + 8 R NO 2 / NO − 0.50 / 1 + 6 * R NO 2 / NO − 0.50.
A transmission method, comprising: determining, by a terminal device, a channel priority of a first channel; determining, by the terminal device, a transmission scheme of the first channel according to the channel priority of the first channel; and performing, by the terminal device, a receiving of the first channel using the determined transmission scheme, wherein the first channel is a downlink data channel; and determining, by a terminal device, the channel priority of the first channel comprises: determining, by the terminal device, the channel priority of the first channel according to downlink control information, DCI, sent from a network device, wherein the DCI is configured to schedule the receiving of the first channel, characterized in that determining, by the terminal device, the channel priority of the first channel according to DCI sent from the network device comprises: determining, by the terminal device, the channel priority of the first channel according to a scrambling sequence of a cyclic redundancy check, CRC, code of the DCI. determining, by a terminal device, a channel priority of a first channel; determining, by the terminal device, a transmission scheme of the first channel according to the channel priority of the first channel; and performing, by the terminal device, a receiving of the first channel using the determined transmission scheme, wherein the first channel is a downlink data channel; and determining, by a terminal device, the channel priority of the first channel comprises: determining, by the terminal device, the channel priority of the first channel according to downlink control information, DCI, sent from a network device, wherein the DCI is configured to schedule the receiving of the first channel,
A method for producing a refractory material based on magnesia or magnesia spinel with the following steps: 1.1 provision of a batch comprising 1.1.1 a first component made of at least one of the following materials: magnesia or magnesia spinel; 1.1.2 a second component comprising substances by means of which a binding phase comprising an AlN Polytypoid can be formed when temperature is applied; 1.2 application of temperature to the batch within a temperature range in which the second component forms a binding phase comprising an AlN polytypoid; wherein 1.3 the batch is exposed to pressure during the application of temperature in this temperature range. 1.1 provision of a batch comprising 1.1.1 a first component made of at least one of the following materials: magnesia or magnesia spinel; 1.1.2 a second component comprising substances by means of which a binding phase comprising an AlN Polytypoid can be formed when temperature is applied; 1.1.1 a first component made of at least one of the following materials: magnesia or magnesia spinel; 1.1.2 a second component comprising substances by means of which a binding phase comprising an AlN Polytypoid can be formed when temperature is applied; 1.2 application of temperature to the batch within a temperature range in which the second component forms a binding phase comprising an AlN polytypoid; wherein 1.3 the batch is exposed to pressure during the application of temperature in this temperature range.
A vehicle comprising: a system including a shell structure and a first buoyant material molded in the shape of the shell structure, wherein the system includes a cavity formed between the shell structure and the first buoyant material; and characterised in that the vehicle comprises a flexible container containing a second buoyant material, wherein the flexible container is provided in the cavity formed between the shell structure and the first buoyant material; wherein the second buoyant material is a syntactic wax or syntactic oil. a system including a shell structure and a first buoyant material molded in the shape of the shell structure, wherein the system includes a cavity formed between the shell structure and the first buoyant material; and characterised in that the vehicle comprises a flexible container containing a second buoyant material, wherein the flexible container is provided in the cavity formed between the shell structure and the first buoyant material; wherein the second buoyant material is a syntactic wax or syntactic oil.
A motor vehicle tailgate including a reinforced part for a motor vehicle, said reinforced part comprising a reinforcing element and an enclosure made from plastic overmolded on the reinforcing element, the enclosure defining at least part of an outer surface of the reinforced part, the reinforcing element including a body and a plurality of protuberances (34, 35) protruding from the body toward the outer surface, each protuberance (34, 35) being flush with said outer surface, characterized in that the body is made from metal, has a first large face and a second large face opposite the first large face, and has a plurality of through orifices, each emerging in the first large face and in the second large face, in that each protuberance (34, 35) is made from plastic overmolded on the body, is positioned at one of the emerging ends of one of the through orifices of the body and includes a segment filling in said one of the through orifices of the body, and in that an array of ribs, integral with the protuberances (34, 35), joins the protuberances (34, 35) to one another and extends along the first large face, and a stud which, integral with the ribs, is substantially at the center of the first large face and is not as high as each protuberance (34, 35).
A vertical take-off and landing aircraft comprising: a fuselage; at least one wing connected to the fuselage; a plurality of rotors connected to the at least one wing for providing lift for vertical take-off and landing of the aircraft; a plurality of proprotors connected to the at least one wing and tiltable between lift configurations for providing lift for vertical take-off and landing of the aircraft and propulsion configurations for providing forward thrust to the aircraft; and a plurality of booms mounted to the at least one wing, each boom mounting one rotor and one proprotor to the at least one wing; wherein the plurality of rotors are rearward of the at least one wing and the plurality of proprotors are forward of the at least one wing; characterised in that each rotor is mounted in a fixed position on a corresponding boom. a fuselage; at least one wing connected to the fuselage; a plurality of rotors connected to the at least one wing for providing lift for vertical take-off and landing of the aircraft; a plurality of proprotors connected to the at least one wing and tiltable between lift configurations for providing lift for vertical take-off and landing of the aircraft and propulsion configurations for providing forward thrust to the aircraft; and a plurality of booms mounted to the at least one wing, each boom mounting one rotor and one proprotor to the at least one wing; wherein the plurality of rotors are rearward of the at least one wing and the plurality of proprotors are forward of the at least one wing; characterised in that each rotor is mounted in a fixed position on a corresponding boom.
A rapid coupling comprising: a socket, a pipe nipple adapted to be inserted into the socket and having a first annular groove for locking the pipe nipple by means of a locking ring disposed within the socket, and a sleeve adapted to be slid onto the pipe nipple and having at its one end a formation adapted to be placed against the socket and at its other end an inner projection for engaging the first annular groove of the pipe nipple, wherein the pipe nipple has a second annular groove on the side remote the first annular groove, the second annular groove receiving the inner projection of the sleeve in the locked condition of the pipe nipple and the socket and in this condition being substantially covered by the sleeve, and wherein in the locked condition the formation abuts the socket. a socket, a pipe nipple adapted to be inserted into the socket and having a first annular groove for locking the pipe nipple by means of a locking ring disposed within the socket, and a sleeve adapted to be slid onto the pipe nipple and having at its one end a formation adapted to be placed against the socket and at its other end an inner projection for engaging the first annular groove of the pipe nipple, wherein the pipe nipple has a second annular groove on the side remote the first annular groove, the second annular groove receiving the inner projection of the sleeve in the locked condition of the pipe nipple and the socket and in this condition being substantially covered by the sleeve, and wherein in the locked condition the formation abuts the socket.
Process for preparing a diaryl carbonate from a dialkyl carbonate and an aryl alcohol comprising: (a) introducing dialkyl carbonate and aryl alcohol into a first reactive distillation column; (b) recovering from the first reactive distillation column a top stream comprising dialkyl carbonate and alkyl alcohol and a bottom stream comprising alkyl aryl carbonate, aryl alcohol and dialkyl carbonate; (c) introducing the bottom stream from the first reactive distillation column into a second reactive distillation column; (d) recovering from the second reactive distillation column a top stream comprising dialkyl carbonate and a bottom stream comprising alkyl aryl carbonate, diaryl carbonate and aryl alcohol; (e) introducing the bottom stream from the second reactive distillation column into a third reactive distillation column; and (f) recovering from the third reactive distillation column a top stream comprising aryl alcohol and a bottom stream comprising diaryl carbonate, wherein the top stream from the third reactive distillation column is recycled to the second reactive distillation column, wherein the first, second and third reactive distillation columns contain a catalyst, the bottom stream comprising diaryl carbonate from the third reactive distillation column additionally comprises catalyst, and said bottom stream is introduced into a fourth distillation column from which a top stream comprising diaryl carbonate and a bottom stream comprising catalyst and diaryl carbonate are recovered, wherein the top stream from the first reactive distillation column is introduced into a first distillation column from which a top stream comprising alkyl alcohol and a bottom stream comprising dialkyl carbonate are recovered, and the bottom stream from the first distillation column is recycled to the first reactive distillation column. (a) introducing dialkyl carbonate and aryl alcohol into a first reactive distillation column; (b) recovering from the first reactive distillation column a top stream comprising dialkyl carbonate and alkyl alcohol and a bottom stream comprising alkyl aryl carbonate, aryl alcohol and dialkyl carbonate; (c) introducing the bottom stream from the first reactive distillation column into a second reactive distillation column; (d) recovering from the second reactive distillation column a top stream comprising dialkyl carbonate and a bottom stream comprising alkyl aryl carbonate, diaryl carbonate and aryl alcohol; (e) introducing the bottom stream from the second reactive distillation column into a third reactive distillation column; and (f) recovering from the third reactive distillation column a top stream comprising aryl alcohol and a bottom stream comprising diaryl carbonate,
A vacuum pump comprising: a control unit configured to monitor and control a motor and a magnetic bearing (104,105,106), each being stored in a pump body; and a temperature-adjustment function unit configured to measure a temperature of a pump body by at least one temperature sensor (155,157) disposed in the pump body and further configured to control at least one heater or solenoid controlled valve based on the temperature, the temperature-adjustment function unit including a first terminal (303,305) capable of connecting or disconnecting the temperature sensor; and a second terminal (309,311) capable of connecting or disconnecting one of the heater and the solenoid controlled valve, the vacuum pump being characterised by further comprising a self-diagnosis unit capable of conducting a self-diagnosis of whether an input signal to the first terminal has been normally inputted or whether the signal has been normally outputted from the second terminal, wherein the temperature-adjustment function unit comprises: temperature determining means that has a dummy first load connected instead of the temperature sensor to the first terminal; and output means that has a dummy second load connected instead of one of the heater and the solenoid controlled valve to the second terminal. a control unit configured to monitor and control a motor and a magnetic bearing (104,105,106), each being stored in a pump body; and a temperature-adjustment function unit configured to measure a temperature of a pump body by at least one temperature sensor (155,157) disposed in the pump body and further configured to control at least one heater or solenoid controlled valve based on the temperature, the temperature-adjustment function unit including a first terminal (303,305) capable of connecting or disconnecting the temperature sensor; and a second terminal (309,311) capable of connecting or disconnecting one of the heater and the solenoid controlled valve, the vacuum pump being characterised by further comprising a self-diagnosis unit capable of conducting a self-diagnosis of whether an input signal to the first terminal has been normally inputted or whether the signal has been normally outputted from the second terminal, wherein the temperature-adjustment function unit comprises: temperature determining means that has a dummy first load connected instead of the temperature sensor to the first terminal; and output means that has a dummy second load connected instead of one of the heater and the solenoid controlled valve to the second terminal. temperature determining means that has a dummy first load connected instead of the temperature sensor to the first terminal; and output means that has a dummy second load connected instead of one of the heater and the solenoid controlled valve to the second terminal.
A needlestick prevention device for an injection needle carried by a needle-bearing member of a syringe, in which the device is formed as a one-piece moulding and comprises a first part adapted to be attached to the needle-bearing member and a second part providing a shield for the needle and pivotally movable relative to the first part to expose the needle for use, the device being adapted to adopt a first position in which the needle is protected for transport of the device prior to use, a second position in which the needle is exposed for filling of the syringe and injection, a third position in which the needle is protected after filling of the syringe but before injection and a fourth position in which the needle is locked in the device following injection, the shield having a transport recess and a locking recess connected by a gate device, the arrangement being such that in the third position the needle is in the transport recess and is able to move into the second position, and in the fourth position the needle moves through the gate device into the locking recess, with the gate device preventing movement out of the fourth position, characterised in that the gate device includes a first projection formed in the second part to define a partition between the transport recess and the locking recess and a second opposing projection defining a curved or labyrinthine path to the locking recess, such that the first projection curves across the centre line of the second part to form a stop for the third position, and its free end is recurved, and the second projection extends towards the locking recess with its free end angled outwardly, and spaced from the first projection.
Electroless shower toilet attachment having a self-cleaning device for the self-cleaning of a telescopic water outlet pipe of the electroless shower toilet attachment, wherein the self-cleaning device has a body and a cleaning water path; wherein a water flow passage is provided in the body; wherein a water exit end of the water flow passage is disposed on a base of the body; wherein the cleaning water path is connected to a water inlet end of the water flow passage; wherein the telescopic water outlet pipe is movable in a reciprocating manner between an initial position and a water outlet position, and on the front end of said water outlet pipe is provided with a water outlet opening; wherein the water outlet end of the water flow passage is disposed directly above the front end of the telescopic water outlet pipe when the telescopic outlet pipe is in the initial position; wherein a one-way valve is provided at the water inlet end of the water flow passage; and wherein the self-cleaning device furthermore comprises a pressure block which is disposed on a rear end of the telescopic water outlet pipe, characterized in that the water flow of the cleaning water path can open the one-way valve so as to supply the water to the water flow passage, and in that the pressure block for closing the water inlet end of the water flow passage is pressed against the one-way valve when the telescopic water outlet pipe reaches the water outlet position.