mhurhangee/ep-ind-claims huggingface dataset:
System adapted to the detection of cancer, the system comprising: a. a transmitter device structured to radiate a narrowband incident radiofrequency signal and irradiate a patient tissue, the transmitter device comprising at least one transmitting antenna, a transmitter, and a power supply; b. a receiving device comprising more than one receiving antenna, a receiver, a pre-processing module, and a power supply; and c. a data processing unit, configured to run algorithms which determine the presence of values below a threshold in the received signal associated with the presence of a cancer in the tissue under test, comprising a microprocessor (301; 104) and a display (302; 105); characterized in that the transmitter device and the receiving device are configured to operate at a frequency comprised between 2.3 GHz and 2.5 GHz. a. a transmitter device structured to radiate a narrowband incident radiofrequency signal and irradiate a patient tissue, the transmitter device comprising at least one transmitting antenna, a transmitter, and a power supply; b. a receiving device comprising more than one receiving antenna, a receiver, a pre-processing module, and a power supply; and c. a data processing unit, configured to run algorithms which determine the presence of values below a threshold in the received signal associated with the presence of a cancer in the tissue under test, comprising a microprocessor (301; 104) and a display (302; 105); characterized in that the transmitter device and the receiving device are configured to operate at a frequency comprised between 2.3 GHz and 2.5 GHz.
A fuel cell system comprising: a fuel cell; a combustor configured to combust a fuel and an oxidizing gas to supply a combustion gas to a cathode inlet of the fuel cell; a combustion fuel supply device configured to supply a fuel to the combustor; a combustion oxidizing gas supply device configured to supply an oxidizing gas to the combustor; an anode-discharged-gas discharge passage configured to discharge an anode discharged gas from an anode outlet of the fuel cell; a cathode-discharged-gas discharge passage configured to discharge a cathode discharged gas from a cathode outlet of the fuel cell; and a controller configured to control a supply of the fuel to the combustor by the combustion fuel supply device and a supply of the oxidizing gas to the combustor by the combustion oxidizing gas supply device, wherein the controller includes a post-stop-request combustor-supply control unit configured to execute the supply of the fuel and the supply of the oxidizing gas to the combustor after a request for stopping the fuel cell system, wherein the post-stop-request combustor-supply control unit adjusts a supply amount of a fuel such that a heat generation amount of combustion by the combustor becomes equal to or less than a heat dissipation of the fuel cell. a fuel cell; a combustor configured to combust a fuel and an oxidizing gas to supply a combustion gas to a cathode inlet of the fuel cell; a combustion fuel supply device configured to supply a fuel to the combustor; a combustion oxidizing gas supply device configured to supply an oxidizing gas to the combustor; an anode-discharged-gas discharge passage configured to discharge an anode discharged gas from an anode outlet of the fuel cell; a cathode-discharged-gas discharge passage configured to discharge a cathode discharged gas from a cathode outlet of the fuel cell; and a controller configured to control a supply of the fuel to the combustor by the combustion fuel supply device and a supply of the oxidizing gas to the combustor by the combustion oxidizing gas supply device, wherein the controller includes a post-stop-request combustor-supply control unit configured to execute the supply of the fuel and the supply of the oxidizing gas to the combustor after a request for stopping the fuel cell system, wherein the post-stop-request combustor-supply control unit adjusts a supply amount of a fuel such that a heat generation amount of combustion by the combustor becomes equal to or less than a heat dissipation of the fuel cell.
A yeast strain obtained by hybridizing a strain S1, which is the yeast strain deposited on 9 September 2015 at the National Collection of Microorganism Cultures (Collection Nationale de Cultures de Microorganismes -CNCM) -Institut Pasteur, 25 rue du docteur Roux F75724 Paris under number 1-5011, with a strain S2, which is the yeast strain deposited on 9 September 2015 at the National Collection of Microorganism Cultures (Collection Nationale de Cultures de Microorganismes -CNCM) - Institut Pasteur, 25 rue du docteur Roux F75724 Paris under number 1-5012, said yeast strain presenting, according to test A, the following characteristics: - fermentation kinetics from 15 to 22 days at a temperature of 24°C; and - resistance with an alcoholic strength of more than or equal to 15% v/v; and - a nitrogen requirement of less than or equal to 200ppm, wherein test A corresponds to an analysis of the fermentation activity of said yeast strain seeded in the amount of 2.10 6 CFU/ml on a synthetic must standardized by the International Organisation of Vine and Wine (Organisme International de la Vigne et du Vin - OIV) adjusted to 250g/l of fermentable sugars with an initial nitrogen concentration of 200ppm by fermenting at a constant temperature of 24°C. - fermentation kinetics from 15 to 22 days at a temperature of 24°C; and - resistance with an alcoholic strength of more than or equal to 15% v/v; and - a nitrogen requirement of less than or equal to 200ppm,
A radiator assembly for a base station antenna that has a central axis and two dipoles arranged in a crossed manner, where each of the dipoles includes two dipole arms, and each of the dipole arms has a radiating surface having an outer contour, wherein the radiator assembly further comprises an electrically conductive annular element that is mounted above the radiating surfaces, the annular element is configured to be closed circumferentially and has an inner contour which is compliant to an outer contour line for the combination of all four radiating surfaces, wherein the compliance is defined as: in a projection along the central axis on a projection plane perpendicular to the central axis, the inner contour of the annular element has a projected inner contour line which surrounds a first area; the outer contours of the radiating surfaces have respective projected outer contour lines (21, 22, 23, 24), wherein every two adjacent projected outer contour lines are connected through imaginary connecting lines (a, c, e, g), where each imaginary connecting line is a chord of a respective imaginary circular arc line, wherein each circular arc line is concentric with the central axis and has a radius that is 1/2 of a maximum radius of the projected outer contour lines (21, 22, 23, 24) of the radiating surfaces, where the projected outer contour lines (21, 22, 23, 24) and the connecting lines (a, c, e, g) together define a maximum outer contour line that is closed circumferentially and that surrounds a second area; characterized in that an overlapping area of the first area and the second area is 90% or more of a larger area of the first area and the second area. in a projection along the central axis on a projection plane perpendicular to the central axis, the inner contour of the annular element has a projected inner contour line which surrounds a first area; the outer contours of the radiating surfaces have respective projected outer contour lines (21, 22, 23, 24), wherein every two adjacent projected outer contour lines are connected through imaginary connecting lines (a, c, e, g), where each imaginary connecting line is a chord of a respective imaginary circular arc line, wherein each circular arc line is concentric with the central axis and has a radius that is 1/2 of a maximum radius of the projected outer contour lines (21, 22, 23, 24) of the radiating surfaces, where the projected outer contour lines (21, 22, 23, 24) and the connecting lines (a, c, e, g) together define a maximum outer contour line that is closed circumferentially and that surrounds a second area; characterized in that an overlapping area of the first area and the second area is 90% or more of a larger area of the first area and the second area.
An apparatus for managing software licenses for a plurality of computer nodes comprising computers (100, 200, 300) connected together in a peer-to-peer computer network, the apparatus comprising: a software license management controller comprising at least one processing unit (100, 200, 300) and at least one memory unit, wherein the at least one processing unit is configured to execute program code (720, 740, 750) stored in the at least one memory unit to cause the software license management controller to: store a set of fault tolerance rules for determining whether to operate in a fault tolerance mode of operation of license borrowing and a set of service licensing rules for determining whether to operate in a service licensing mode of operation of license borrowing; monitor a performance of the network while operating in a normal online mode of operation of license borrowing; determine, in response to an interruption in the network performance, whether to operate in the fault tolerance mode of operation of license borrowing or the service licensing mode of operation of license borrowing based on the performance of the network, the set of fault tolerance rules, and the set of service licensing rules; operate in the determined mode; monitor the performance of the network to determine whether to continue operation in the determined mode; and resume, in response to determination that operation in the determined mode is no longer needed, operation in the normal online mode of operation. store a set of fault tolerance rules for determining whether to operate in a fault tolerance mode of operation of license borrowing and a set of service licensing rules for determining whether to operate in a service licensing mode of operation of license borrowing; monitor a performance of the network while operating in a normal online mode of operation of license borrowing; determine, in response to an interruption in the network performance, whether to operate in the fault tolerance mode of operation of license borrowing or the service licensing mode of operation of license borrowing based on the performance of the network, the set of fault tolerance rules, and the set of service licensing rules; operate in the determined mode; monitor the performance of the network to determine whether to continue operation in the determined mode; and resume, in response to determination that operation in the determined mode is no longer needed, operation in the normal online mode of operation.
An airfoil for a turbine engine, the airfoil comprising pressure and suction sides (72, 74) extending in a radial direction from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip, wherein the airfoil has a relationship between a total chord length and a span position corresponding to a curve having an increasing total chord length from the 0% span position to a first peak, the first peak occurs in the range of 45-65% span position; characterised in that: the total chord length at the 0% span position is in the range of 20.8-26.7 cm (8.2-10.5 inches); the total chord length includes a maximum differential between the maximum and minimum chord lengths along the entire span in the range of 7.6-10.2 cm (3.0-4.0 inches); and the first peak is provided by a critical point in a range of 60-65% span position, a negative slope extends from the critical point to a second critical point in a range of 80-90% span position, a positive slope extends from the second critical point to the 100% span position, and the total chord length at the 100% span position is less than the total chord length at the first peak. the total chord length at the 0% span position is in the range of 20.8-26.7 cm (8.2-10.5 inches); the total chord length includes a maximum differential between the maximum and minimum chord lengths along the entire span in the range of 7.6-10.2 cm (3.0-4.0 inches); and the first peak is provided by a critical point in a range of 60-65% span position, a negative slope extends from the critical point to a second critical point in a range of 80-90% span position, a positive slope extends from the second critical point to the 100% span position, and the total chord length at the 100% span position is less than the total chord length at the first peak.
A steering wheel, comprising: a boss portion to be connected to a steering column; a grip portion to be gripped by a driver; and a spoke portion, which connects the boss portion and the grip portion to each other, the grip portion including: a synthetic resin layer molded by a synthetic resin; a cored bar; a flexible porous material layer disposed on an outer peripheral surface side of the cored bar; and a heater element disposed on an outer surface of the porous material layer, the porous material layer and the heater element being contained in the synthetic resin layer, characterized in that the porous material layer comprises gaps filled with synthetic resin so that the heater element and the porous material layer are fixed to the cored bar. a boss portion to be connected to a steering column; a grip portion to be gripped by a driver; and a spoke portion, which connects the boss portion and the grip portion to each other, the grip portion including: a synthetic resin layer molded by a synthetic resin; a cored bar; a flexible porous material layer disposed on an outer peripheral surface side of the cored bar; and a heater element disposed on an outer surface of the porous material layer, a synthetic resin layer molded by a synthetic resin; a cored bar; a flexible porous material layer disposed on an outer peripheral surface side of the cored bar; and a heater element disposed on an outer surface of the porous material layer, the porous material layer and the heater element being contained in the synthetic resin layer, characterized in that the porous material layer comprises gaps filled with synthetic resin so that the heater element and the porous material layer are fixed to the cored bar.
Twin crib comprising: - an upper frame comprising a first fixed portion and a second portion movable with respect to the first portion, - a lower frame connected to the upper frame and configured to support two mats, wherein each mat is adapted to support a child, - a casing made of flexible material and fixable to the upper frame, the casing having a bottom and an open opposite ceiling and at least one fixed rear wall and an opposite openable front wall, - a divider arranged between the two mats, the divider having hooking means at a lower edge, a rear edge and an opposite front edge, characterized in that - the openable front wall comprises a fixed portion supported by the lower frame and a movable portion connected to the second portion, - the hooking means are configured to respectively constrain the lower edge to the bottom, the rear edge to the fixed rear wall and the front edge to the fixed portion of the openable front wall. - an upper frame comprising a first fixed portion and a second portion movable with respect to the first portion, - a lower frame connected to the upper frame and configured to support two mats, wherein each mat is adapted to support a child, - a casing made of flexible material and fixable to the upper frame, the casing having a bottom and an open opposite ceiling and at least one fixed rear wall and an opposite openable front wall, - a divider arranged between the two mats, the divider having hooking means at a lower edge, a rear edge and an opposite front edge, characterized in that - the openable front wall comprises a fixed portion supported by the lower frame and a movable portion connected to the second portion, - the hooking means are configured to respectively constrain the lower edge to the bottom, the rear edge to the fixed rear wall and the front edge to the fixed portion of the openable front wall.
A gearbox for an irrigation system comprising: a housing; an output shaft; a worm gear within the housing; a bull gear within the housing and configured to be engaged with the worm gear and drive the output shaft; and characterized in that a diaphragm is positioned within the housing defining a first chamber fluidically sealed from a second chamber, and the diaphragm extends circumferentially around the entire output shaft, and the first chamber is configured for expansion and contraction and configured to be positioned inside the housing to regulate pressure within the housing; and a vent is configured to allow air to flow between the atmosphere and the first chamber. a housing; an output shaft; a worm gear within the housing; a bull gear within the housing and configured to be engaged with the worm gear and drive the output shaft; and characterized in that a diaphragm is positioned within the housing defining a first chamber fluidically sealed from a second chamber, and the diaphragm extends circumferentially around the entire output shaft, and the first chamber is configured for expansion and contraction and configured to be positioned inside the housing to regulate pressure within the housing; and a vent is configured to allow air to flow between the atmosphere and the first chamber.
A method for acquiring continuous physical signals comprising: inputting a voltage signal u representing a continuous physical signal; obtaining a sampled signal u k by sampling the voltage signal u through an analog sampling channel, wherein the sampling frequency is f Δh; obtaining a resample signal u j by resampling the sampled signal u k, wherein the resampling frequency f Δy is specified by its application; the method further comprising: performing digital low-pass filtering (6; 7, 8) on the sampled signal u k to obtain ũ k before the resampling; resampling the ũ k to obtain a resample signal ũ j; and storing resample signal ũ j and outputting it to the application terminal, characterised in that said digital low-pass filtering is an averaging algorithm (7, 8) with variable structure that: judging u k is in the steady state or in the transient state then giving a sign F, if F=1, u k is in the transient state, and if F=0, u k is in the steady state; when F=0, obtaining an average value u k by using the sampled signal u k; when F=1, the average value u k being an unreachable value of the sampled signal u k in practical application, resampling, obtain u j from u k, and eliminating the unreachable value in the u j as bad data after arriving at the application terminal; if F turns to 0 from 1, resetting the average value u k to zero and set k=1. inputting a voltage signal u representing a continuous physical signal; obtaining a sampled signal u k by sampling the voltage signal u through an analog sampling channel, wherein the sampling frequency is f Δh; obtaining a resample signal u j by resampling the sampled signal u k, wherein the resampling frequency f Δy is specified by its application; the method further comprising: performing digital low-pass filtering (6; 7, 8) on the sampled signal u k to obtain ũ k before the resampling; resampling the ũ k to obtain a resample signal ũ j; and storing resample signal ũ j and outputting it to the application terminal, performing digital low-pass filtering (6; 7, 8) on the sampled signal u k to obtain ũ k before the resampling; resampling the ũ k to obtain a resample signal ũ j; and storing resample signal ũ j and outputting it to the application terminal, judging u k is in the steady state or in the transient state then giving a sign F, if F=1, u k is in the transient state, and if F=0, u k is in the steady state; when F=0, obtaining an average value u k by using the sampled signal u k; when F=1, the average value u k being an unreachable value of the sampled signal u k in practical application, resampling, obtain u j from u k, and eliminating the unreachable value in the u j as bad data after arriving at the application terminal; if F turns to 0 from 1, resetting the average value u k to zero and set k=1.
An injection-molded article, comprising at least one metallocene-catalyzed polyethylene resin comprising at least two metallocene-catalyzed polyethylene fractions A and B, wherein the at least one metallocene-catalyzed polyethylene resin comprises from 42.0 % to at most 48.0 % by weight of polyethylene fraction A based on the total weight of the at least one metallocene-catalyzed polyethylene resin, wherein fraction A has a melt index MI2 of at least 100.0 g/10 min as determined according to ISO 1133, condition D, at 190 °C and under a load of 2.16 kg; and wherein the at least one metallocene-catalyzed polyethylene resin has a density of at least 0.940 g/cm 3 to at most 0.950 g/cm 3 as measured on pellets according to ISO 1183 at 23 °C; a melt index MI2 of at least 1.4 g/10 min to at most 2.5 g/10 min as measured on pellets according to ISO 1133, condition D, at 190 °C and under a load of 2.16 kg. from 42.0 % to at most 48.0 % by weight of polyethylene fraction A based on the total weight of the at least one metallocene-catalyzed polyethylene resin, wherein fraction A has a melt index MI2 of at least 100.0 g/10 min as determined according to ISO 1133, condition D, at 190 °C and under a load of 2.16 kg; and wherein the at least one metallocene-catalyzed polyethylene resin has a density of at least 0.940 g/cm 3 to at most 0.950 g/cm 3 as measured on pellets according to ISO 1183 at 23 °C; a melt index MI2 of at least 1.4 g/10 min to at most 2.5 g/10 min as measured on pellets according to ISO 1133, condition D, at 190 °C and under a load of 2.16 kg.
A vibrating densitometer comprising: a vibrating tube portion; a housing; and a spool body, with the spool body comprising: a driver configured to vibrate the vibrating tube portion with respect to the housing; at least one vibration sensor configured to detect vibrations of the vibrating tube portion; characterized in that the spool body further comprises: a core; a plurality of spines emanating distally from the core; at least one channel defined by the plurality of spines; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core. a vibrating tube portion; a housing; and a spool body, with the spool body comprising: a driver configured to vibrate the vibrating tube portion with respect to the housing; at least one vibration sensor configured to detect vibrations of the vibrating tube portion; characterized in that the spool body further comprises: a core; a plurality of spines emanating distally from the core; at least one channel defined by the plurality of spines; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core. a driver configured to vibrate the vibrating tube portion with respect to the housing; at least one vibration sensor configured to detect vibrations of the vibrating tube portion; characterized in that the spool body further comprises: a core; a plurality of spines emanating distally from the core; at least one channel defined by the plurality of spines; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core. a core; a plurality of spines emanating distally from the core; at least one channel defined by the plurality of spines; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core.