mhurhangee/ep-ind-claims huggingface dataset:
A microwave ablation system, comprising a microwave ablation probe having an elongated probe body and a radiating portion for emission of microwave energy at a distal portion of the probe body; and a cannula having a cannula body defining a lumen sized to receive the elongated probe body of the microwave ablation probe and a window portion (141, 142) at a distal portion of the cannula, the window portion being at least partially transparent to microwave energy; wherein the window portion of the cannula overlaps the radiating portion of the microwave ablation probe at the distal portion of the probe body when the elongated probe body is received in the lumen of the cannula. a microwave ablation probe having an elongated probe body and a radiating portion for emission of microwave energy at a distal portion of the probe body; and a cannula having a cannula body defining a lumen sized to receive the elongated probe body of the microwave ablation probe and a window portion (141, 142) at a distal portion of the cannula, the window portion being at least partially transparent to microwave energy; wherein the window portion of the cannula overlaps the radiating portion of the microwave ablation probe at the distal portion of the probe body when the elongated probe body is received in the lumen of the cannula.
A corrosion-inhibited fire retardant composition comprising: at least one fire retardant comprising an ammonium polyphosphate; at least one biopolymer having a weight average particle diameter less than 10 μm (microns); and a corrosion inhibiting system comprising at least one corrosion inhibiting compound selected from the group consisting of azoles, ferric pyrophosphate, ferrous oxalate, ferric citrate, ferrous sulfate, ferric ammonium citrate, ferric orthophosphate, ferric ammonium oxalate, ferric ammonium sulfate, ferric bromide, ferric sodium oxalate, ferric stearate, ferric sulfate, ferrous acetate, ferrous ammonium sulfate, ferrous bromide, ferrous gluconate, ferrous iodide, ferric acetate, ferric fluoroborate, ferric hydroxide, ferric oleate, ferrous fumarate, ferrous oxide, ferric lactate, ferric resinate, and any combination thereof; wherein said corrosion inhibiting system is present in an minor amount from 0.01% by weight to 10% by weight of said fire retardant composition to reduce corrosiveness of the fire retardant composition. at least one fire retardant comprising an ammonium polyphosphate; at least one biopolymer having a weight average particle diameter less than 10 μm (microns); and a corrosion inhibiting system comprising at least one corrosion inhibiting compound selected from the group consisting of azoles, ferric pyrophosphate, ferrous oxalate, ferric citrate, ferrous sulfate, ferric ammonium citrate, ferric orthophosphate, ferric ammonium oxalate, ferric ammonium sulfate, ferric bromide, ferric sodium oxalate, ferric stearate, ferric sulfate, ferrous acetate, ferrous ammonium sulfate, ferrous bromide, ferrous gluconate, ferrous iodide, ferric acetate, ferric fluoroborate, ferric hydroxide, ferric oleate, ferrous fumarate, ferrous oxide, ferric lactate, ferric resinate, and any combination thereof; wherein said corrosion inhibiting system is present in an minor amount from 0.01% by weight to 10% by weight of said fire retardant composition to reduce corrosiveness of the fire retardant composition.
A translucent thermoplastic composition comprising a matrix of a polycarbonate polymer in which are embedded polysiloxane domains with an average domain size between 20 and 45 nanometers, preferaby between 20 and 40 nanometers, wherein the composition comprises at least a first polycarbonate/poly(diorganosiloxane) copolymer having a first light transmittance and a first haze and a different, second polycarbonate/poly(diorganosiloxane) copolymer, having a second list transmittance and a second haze, wherein the first haze is not equal to the second haze and/or the first light transmittance is not equal to the second light transmittance and wherein the average domain size is determined by Transmission Electron Microscopy.
A controller comprising: input means for receiving a trajectory parameter signal comprising one or more parameters indicative of a trajectory (32, 38) of a vehicle, wherein the trajectory (32, 38) of the vehicle comprises an area between parallel tracks which project an area predicted to be occupied by the vehicle, and further wherein the one or more parameters indicative of the trajectory (32, 38) of the vehicle includes a radius of curvature of the trajectory (32, 38); and processing means arranged to set, in dependence on the one or more parameters including the radius of curvature of the trajectory (32, 38), a distance from the trajectory (32, 38) for a boundary of an alert zone (40, 44), where the alert zone boundary is, in use, determinative of the minimum distance from the trajectory (32, 38) below which a detected object will trigger an alert. input means for receiving a trajectory parameter signal comprising one or more parameters indicative of a trajectory (32, 38) of a vehicle, wherein the trajectory (32, 38) of the vehicle comprises an area between parallel tracks which project an area predicted to be occupied by the vehicle, and further wherein the one or more parameters indicative of the trajectory (32, 38) of the vehicle includes a radius of curvature of the trajectory (32, 38); and processing means arranged to set, in dependence on the one or more parameters including the radius of curvature of the trajectory (32, 38), a distance from the trajectory (32, 38) for a boundary of an alert zone (40, 44), where the alert zone boundary is, in use, determinative of the minimum distance from the trajectory (32, 38) below which a detected object will trigger an alert.
An analog quantity measuring method of counting output pulses from a length measuring sensor for measuring displacement of a probe of a cylinder gauge disposed in contact with an object to be measured, the method is characterized by comprising the steps of: 1) counting output pulses indicative for a displacement of the probe disposed in contact with the object to be measured and storing a first count value obtained by said counting as a minimum value Mi with i being an incremental variable; 2) counting output pulses indicative for a displacement of the probe disposed in contact with the object to be measured and obtaining a second count value; 3) comparing the second count value with the minimum value Mi of the count value and updating the minimum value Mi with the second count value if the second count value is smaller than the minimum value Mi, or if the second count value is greater than the minimum value Mi and the difference between the second count value and the minimum value Mi does not exceed a predetermined value; and 4) if the second count value is greater than the minimum value Mi and the difference between the second count value and the minimum value Mi exceeds the predetermined value, calculating an average value from all previously obtained minimum values Mi and setting the average value as a new minimum value; 5) returning to step 2. 1) counting output pulses indicative for a displacement of the probe disposed in contact with the object to be measured and storing a first count value obtained by said counting as a minimum value Mi with i being an incremental variable; 2) counting output pulses indicative for a displacement of the probe disposed in contact with the object to be measured and obtaining a second count value; 3) comparing the second count value with the minimum value Mi of the count value and updating the minimum value Mi with the second count value if the second count value is smaller than the minimum value Mi, or if the second count value is greater than the minimum value Mi and the difference between the second count value and the minimum value Mi does not exceed a predetermined value; and 4) if the second count value is greater than the minimum value Mi and the difference between the second count value and the minimum value Mi exceeds the predetermined value, calculating an average value from all previously obtained minimum values Mi and setting the average value as a new minimum value; 5) returning to step 2.
A pole designed to be inserted into the ground, said pole having a lower tapered segment at one end thereof, said lower tapered segment having double helical threads (18, 20) thereon, and an upper segment, wherein a first one of said double helical threads (18, 20) extends outwardly a first distance and a second one of said double helical threads (18, 20) extends outwardly a second distance, characterised in that said first distance is larger than said second distance, and said second helical thread is provided intermediate of said first helical thread.
A method performed in a first network node for determining a latency of a transmission link between the first network node and a second network node in a communications network, the method comprising: transmitting (303, 1101) an electromagnetic signal to the second network node over the transmission link as a first Frequency-Division Multiplexed, FDM, signal comprised in a first electromagnetic carrier also comprising payload data, receiving (305, 1102) the electromagnetic signal from the second network node over the transmission link, wherein the electromagnetic signal has been transmitted from the second network node as a second FDM signal comprised in a second electromagnetic carrier also comprising payload data, and determining (306, 1103) the latency of the transmission link based on a phase difference between the transmitted electromagnetic signal and the received electromagnetic signal. transmitting (303, 1101) an electromagnetic signal to the second network node over the transmission link as a first Frequency-Division Multiplexed, FDM, signal comprised in a first electromagnetic carrier also comprising payload data, receiving (305, 1102) the electromagnetic signal from the second network node over the transmission link, wherein the electromagnetic signal has been transmitted from the second network node as a second FDM signal comprised in a second electromagnetic carrier also comprising payload data, and determining (306, 1103) the latency of the transmission link based on a phase difference between the transmitted electromagnetic signal and the received electromagnetic signal.
A magnetic attraction toy, comprising a base, a cover body, a magnetic attraction member and a mounting frame, wherein the magnetic attraction member is connected with the mounting frame; the base and/or the cover body is provided with a limiting gap for accommodating the magnetic attraction member; the base is also provided with locating pillars; the mounting frame is provided with locating holes; when the locating holes sleeve the locating pillars, the cover body is covered on the base to stop the mounting frame in the base and to stop the magnetic attraction member in the limiting gap; the magnetic attraction toy is characterized that, the magnetic attraction member comprises a hollow iron tube and a magnet; the magnet is located in the iron tube; one end of the iron tube is provided with a first opening; the other end of the iron tube is provided with a second opening; the mounting frame comprises a first clamping piece and a second clamping piece; the first clamping piece is provided with a first connection end and a first clamping end; the second clamping piece is provided with a second connection end and a second clamping end; when the first clamping end is plugged to the first opening, and the second clamping end is plugged to the second opening, the first connection end is connected to the second connection end, so that the first clamping piece and the second clamping piece clamp the iron tube, and the magnetic attraction member and the mounting frame are combined into a whole; wherein the base is also provided with locating pillars; the mounting frame is provided with locating holes; when the locating holes sleeve the locating pillars, the cover body is covered on the base to stop the mounting frame in the base and to stop the magnetic attraction member in the limiting gap. the magnetic attraction toy is characterized that, the magnetic attraction member comprises a hollow iron tube and a magnet; the magnet is located in the iron tube; one end of the iron tube is provided with a first opening; the other end of the iron tube is provided with a second opening; the mounting frame comprises a first clamping piece and a second clamping piece; the first clamping piece is provided with a first connection end and a first clamping end; the second clamping piece is provided with a second connection end and a second clamping end; when the first clamping end is plugged to the first opening, and the second clamping end is plugged to the second opening, the first connection end is connected to the second connection end, so that the first clamping piece and the second clamping piece clamp the iron tube, and the magnetic attraction member and the mounting frame are combined into a whole; wherein the base is also provided with locating pillars; the mounting frame is provided with locating holes; when the locating holes sleeve the locating pillars, the cover body is covered on the base to stop the mounting frame in the base and to stop the magnetic attraction member in the limiting gap.
A composition for use in the treatment of Mycobacterium tuberculosis-infected individuals, the composition comprising a plurality of primary T cells, wherein the T cells are stimulated with anti-CD3 and anti-CD28 antibodies; wherein the stimulated T cells are transfected with one or more recombinant nucleic acid vectors comprising nucleic acids encoding the alpha chain and beta chain of a CD1b restricted T cell receptor; and wherein the alpha chain comprises SEQ ID NO: 2 and the beta chain comprises SEQ ID NO: 4.
An LED module comprising an LED (light-emitting diode) and a rotationally symmetrical, bowl-shaped collimator lens having an entrance aperture with a recess in which the LED is situated, said recess having an inner refractive wall terminating in a lens surface, and which collimator lens is also provided with an exit surface from which light generated by the LED emerges, said inner refractive wall at the entrance aperture includes a curved portion, and an outer reflective wall of said collimator lens is configured in accordance with the structure of said inner refractive wall to achieve substantial collimation of the light generated by the LED at the entrance aperture, characterized in that the surface of the inner refractive wall is configured using a Constant Magnification Prescription whereby the inner refractive wall and the outer reflective wall of said collimator lens are such that equal intervals of a polar-angle direction cosine in an input beam are mapped onto equal intervals of radial distance from the axis in an output beam.
Method for producing graphite materials, characterized in that the following steps are included: a) adding at least one catalyst which is effective for catalytic graphitization and is selected from at least one compound of oxides and carbides from the group comprising the elements iron, nickel, titanium, silicon and boron to form petroleum residues, coal tar pitch and/or residues from coal gasification, Fischer-Tropsch synthesis or coal hydrogenation in a delayed coker; b) producing a doped, green coke in the delayed coker, with the term doped being understood to mean that the coke contains homogeneously distributed catalyst; c) calcining the doped, green coke obtained from step b) at 1100-1400°C to form a doped, calcined coke; d) mechanically comminuting the doped, calcined coke; e) shaping a green body from the doped, calcined coke from step d) together with a binder additive and subsequently carbonizing the green body; f) graphitizing the carbonized green body from step e) at temperatures of greater than 2600°C, preferably greater than 2800°C, and particularly preferably greater than 3000°C, using the Acheson or Castner graphitization process or by means of continuous or batch powder graphitization of the powder from step d); g) grinding the body from step f). a) adding at least one catalyst which is effective for catalytic graphitization and is selected from at least one compound of oxides and carbides from the group comprising the elements iron, nickel, titanium, silicon and boron to form petroleum residues, coal tar pitch and/or residues from coal gasification, Fischer-Tropsch synthesis or coal hydrogenation in a delayed coker; b) producing a doped, green coke in the delayed coker, with the term doped being understood to mean that the coke contains homogeneously distributed catalyst; c) calcining the doped, green coke obtained from step b) at 1100-1400°C to form a doped, calcined coke; d) mechanically comminuting the doped, calcined coke; e) shaping a green body from the doped, calcined coke from step d) together with a binder additive and subsequently carbonizing the green body; f) graphitizing the carbonized green body from step e) at temperatures of greater than 2600°C, preferably greater than 2800°C, and particularly preferably greater than 3000°C, using the Acheson or Castner graphitization process or by means of continuous or batch powder graphitization of the powder from step d); g) grinding the body from step f).
A method (200, 300, 400) for use in a cellular access system in which there is at least one Radio Base Station, RBS, which controls the traffic to and from a cell in the system, and in which system there is at least one User Equipment, UE (130, 140), in the cell, in which system the RBS and the UE receive and transmit information between each other, so that one of them is a sending party and the other one is a receiving party, the method comprises the steps of: errors in messages (BSN 1, BSN 4) which are received are detected by the receiving party (120;130,140) by means of a first error detection method, and if errors are detected in received messages, the receiving party (120;130,140) requests the transmitting party to retransmit a message in which an error has been detected, the method (200, 30, 400) being characterized in that the receiving party stores the order in which retransmissions are requested, and compares the order in which retransmissions are requested to the order of received retransmissions, by means of which erroneous retransmissions are detected (270, 380, 470) by the receiving party without the aid of the first error detection method, following which the receiving party (120; 130, 140) requests a retransmission from the transmitting party of the erroneous retransmission.
A modular top drive for construction of a wellbore, comprising: a rail; a motor unit movably connected to the rail, including: a first body; and a drive motor having a stator connected to the first body; and a bracket (5,6) for holding a tool (1c,1d,1s) configured to be torsionally connected to the motor unit, said bracket movable relative to the rail between a standby position and a connection position; wherein, in use, a tool seated on a fork of the bracket is aligned with the motor unit in the connection position and clear of the motor unit in the standby position. a rail; a motor unit movably connected to the rail, including: a first body; and a drive motor having a stator connected to the first body; and a first body; and a drive motor having a stator connected to the first body; and a bracket (5,6) for holding a tool (1c,1d,1s) configured to be torsionally connected to the motor unit, said bracket movable relative to the rail between a standby position and a connection position; wherein, in use, a tool seated on a fork of the bracket is aligned with the motor unit in the connection position and clear of the motor unit in the standby position.
A method for creating a map by a moving robot, the method comprising: collecting sensor data by a sensor of the moving robot; creating a map based on the sensor data; performing image processing of the map: - to distinguish between regions in the map, wherein the regions that are distinguished include a first region (701, 901) which is an empty space, a second region (702, 902) in which an obstacle is detected by the sensor, and a third region (703, 903) that has not been sensed by the sensor, and - to identify at least one boundary line (F1, F2, F3) between the first and the third regions (701, 901, 703, 903); selecting an optimal boundary line of the at least one boundary line (F1, F2, F3), wherein selecting the optimal boundary line includes determining respective cost values for the at least one boundary line based on first information which is sensed when traveling to one of the least one boundary line and second information which is regarding a distance to the one of the at least one boundary line, and selecting, as the optimal boundary line, one of the at least one boundary line having a highest cost value of the cost values; determining a path toward the optimal boundary line and moving along the path; and updating the map based on additional sensor data collected while moving along the path. collecting sensor data by a sensor of the moving robot; creating a map based on the sensor data; performing image processing of the map: - to distinguish between regions in the map, wherein the regions that are distinguished include a first region (701, 901) which is an empty space, a second region (702, 902) in which an obstacle is detected by the sensor, and a third region (703, 903) that has not been sensed by the sensor, and - to identify at least one boundary line (F1, F2, F3) between the first and the third regions (701, 901, 703, 903); - to distinguish between regions in the map, wherein the regions that are distinguished include a first region (701, 901) which is an empty space, a second region (702, 902) in which an obstacle is detected by the sensor, and a third region (703, 903) that has not been sensed by the sensor, and - to identify at least one boundary line (F1, F2, F3) between the first and the third regions (701, 901, 703, 903); selecting an optimal boundary line of the at least one boundary line (F1, F2, F3), wherein selecting the optimal boundary line includes determining respective cost values for the at least one boundary line based on first information which is sensed when traveling to one of the least one boundary line and second information which is regarding a distance to the one of the at least one boundary line, and selecting, as the optimal boundary line, one of the at least one boundary line having a highest cost value of the cost values; determining a path toward the optimal boundary line and moving along the path; and updating the map based on additional sensor data collected while moving along the path.