mhurhangee/patent-ind-claim-en huggingface dataset:
Fiber polymer composite comprising fibers of a first material selected from polypropylene fibers and a matrix material, the matrix material being in direct contact with at least some of the fibers, characterized in that the matrix material comprises 50% to 100% by weight based on the whole matrix material of an amorphous propene-rich poly-alpha-olefin based to an extend of > 50% by weight on propene as monomer, based on all monomers, having a melt viscosity at 190°C of less than 200 Pas, having a number average molecular weight M n of from 5000 to 35000 g/mol, having a weight average molecular weight M w of from 50000 to 150000 g/mol, having a glass transition temperature of from -45 to -20 °C, and having a softening point of from 95 to 125 °C, each determined by the methods specified in the description.
A device for monitoring a common mode voltage between a power conversion device and an energy storage device , the device comprising: an input end connected to a node between the energy storage device and the power conversion device; a voltage divider configured to divide a voltage applied to the input end; a comparator (413a, 413b; 413c1, 413c2, 413d1, 413d2) configured to compare an output of the voltage divider and a reference voltage (Vref1); and a controller configured to detect an abnormality in a voltage applied from the power conversion device to the energy storage device based on an output of the comparator; characterized in that the input end is provided with a terminal for measuring a voltage (Vp) of a cathode line and a terminal for measuring a voltage (Vn) of an anode line between the energy storage device and the power conversion device; wherein the voltage divider comprises a first voltage divider configured to divide the voltage of the cathode line and a second voltage divider configured to divide the voltage of the anode line; wherein the comparator comprises a first comparator (413a; 413c1) configured to compare the voltage obtained by dividing the voltage of the cathode line by the first voltage divider with the reference voltage, and a second comparator (413b; 413d1) configured to compare the voltage obtained by dividing the voltage of the anode line by the second voltage divider with the reference voltage; wherein the controller is configured to detect an abnormality based on the outputs of both comparators. an input end connected to a node between the energy storage device and the power conversion device; a voltage divider configured to divide a voltage applied to the input end; a comparator (413a, 413b; 413c1, 413c2, 413d1, 413d2) configured to compare an output of the voltage divider and a reference voltage (Vref1); and a controller configured to detect an abnormality in a voltage applied from the power conversion device to the energy storage device based on an output of the comparator; characterized in that the input end is provided with a terminal for measuring a voltage (Vp) of a cathode line and a terminal for measuring a voltage (Vn) of an anode line between the energy storage device and the power conversion device; wherein the voltage divider comprises a first voltage divider configured to divide the voltage of the cathode line and a second voltage divider configured to divide the voltage of the anode line; wherein the comparator comprises a first comparator (413a; 413c1) configured to compare the voltage obtained by dividing the voltage of the cathode line by the first voltage divider with the reference voltage, and a second comparator (413b; 413d1) configured to compare the voltage obtained by dividing the voltage of the anode line by the second voltage divider with the reference voltage; wherein the controller is configured to detect an abnormality based on the outputs of both comparators.
A system for a level sensor for an anesthetic vaporizer, comprising: a measurement tube including a float positioned therein, a bottom portion of the measurement tube coupled to a cap having a central opening; a retaining bracket coupled to a top portion surface of the measurement tube; an optical sensor housed within the retaining bracket, the optical sensor including a light source positioned to emit light toward an interior of the measurement tube and a light detector positioned to receive light from the interior of the measurement tube; and an optical window housed within the retaining bracket and coupled between the optical sensor and the interior of the measurement tube. a measurement tube including a float positioned therein, a bottom portion of the measurement tube coupled to a cap having a central opening; a retaining bracket coupled to a top portion surface of the measurement tube; an optical sensor housed within the retaining bracket, the optical sensor including a light source positioned to emit light toward an interior of the measurement tube and a light detector positioned to receive light from the interior of the measurement tube; and an optical window housed within the retaining bracket and coupled between the optical sensor and the interior of the measurement tube.
A first base station , by which coverage of a cell is to be changed by cell splitting, the first base station comprising: a message notifying unit configured to notify a second base station that the coverage of the cell is to be changed with the cell splitting by the first base station ; and a request receiving unit configured to receive a handover request transmitted by a second base station for a UE served by the second base station to hand over to a first cell in a process of the cell splitting, wherein the cell splitting comprises at least one second cell of the first base station being split from the first cell of the first base station and deployed, and the first cell being to be shrunk in coverage, the handover request comprises reestablishment cell information containing at least information on the second cell that is reestablished by the UE when the UE cannot finish the handover to the first cell. a message notifying unit configured to notify a second base station that the coverage of the cell is to be changed with the cell splitting by the first base station ; and a request receiving unit configured to receive a handover request transmitted by a second base station for a UE served by the second base station to hand over to a first cell in a process of the cell splitting, wherein the cell splitting comprises at least one second cell of the first base station being split from the first cell of the first base station and deployed, and the first cell being to be shrunk in coverage, the handover request comprises reestablishment cell information containing at least information on the second cell that is reestablished by the UE when the UE cannot finish the handover to the first cell.
A method for a lane change of a plurality of vehicles on a multi-lane road, the method comprising - controlling the vehicles to travel in a row in a first lane (L1), with a first of the vehicles in front of a second of the vehicles , - thereafter controlling the first vehicle so as to change lane to a second lane (L2) adjacent to the first lane (L1), - thereafter positioning the first vehicle in a first position (P1) in the second lane (L2), and positioning the second vehicle in a second position (P2) in the first lane (L1), the first position (P1) being less advanced in the direction of travel (M) than the second position (P2), and - thereafter controlling the second vehicle so as to change lane to the second lane (L2), and thereby move in front of the first vehicle , characterized in that controlling the vehicles to travel in a row in the first lane, comprises controlling the vehicles to form a string of platooning vehicles with vehicle-to-vehicle (V2V) communication based control, and during the step of controlling the vehicles to travel in a row in the first lane (L1), making a first determination, by means of at least one sensor on the second vehicle , whether it is safe for the first vehicle to change lane to the second lane (L2), and in that the step of controlling the first vehicle , so as to change lane to the second lane (L2), is made in dependence on the first determination. - controlling the vehicles to travel in a row in a first lane (L1), with a first of the vehicles in front of a second of the vehicles , - thereafter controlling the first vehicle so as to change lane to a second lane (L2) adjacent to the first lane (L1), - thereafter positioning the first vehicle in a first position (P1) in the second lane (L2), and positioning the second vehicle in a second position (P2) in the first lane (L1), the first position (P1) being less advanced in the direction of travel (M) than the second position (P2), and - thereafter controlling the second vehicle so as to change lane to the second lane (L2), and thereby move in front of the first vehicle , characterized in that controlling the vehicles to travel in a row in the first lane, comprises controlling the vehicles to form a string of platooning vehicles with vehicle-to-vehicle (V2V) communication based control, and during the step of controlling the vehicles to travel in a row in the first lane (L1), making a first determination, by means of at least one sensor on the second vehicle , whether it is safe for the first vehicle to change lane to the second lane (L2), and in that the step of controlling the first vehicle , so as to change lane to the second lane (L2), is made in dependence on the first determination.
Method, implemented by a first equipment (EQ_A), for establishing radiofrequency communication with at least one second equipment (EQ_B), the method comprising: a) transmitting a first message at a first transmission power (P1.A), said first transmission power (P1.A) being higher than a minimum target transmission power (P), b) receiving at least one second message from at least the second equipment (EQ_B), said second message being received at a second reception power (P2.A) and comprising a datum relating to a second transmission power (P2.B) of the second equipment (EQ_B), c) transmitting a third message at a third transmission power (P3.A) to the second equipment (EQ_B), said third transmission power (P3.A) being determined on the basis of the second reception power (P2.A) and of the second transmission power (P2.B). a) transmitting a first message at a first transmission power (P1.A), said first transmission power (P1.A) being higher than a minimum target transmission power (P), b) receiving at least one second message from at least the second equipment (EQ_B), said second message being received at a second reception power (P2.A) and comprising a datum relating to a second transmission power (P2.B) of the second equipment (EQ_B), c) transmitting a third message at a third transmission power (P3.A) to the second equipment (EQ_B), said third transmission power (P3.A) being determined on the basis of the second reception power (P2.A) and of the second transmission power (P2.B).
A method for transmitting, the method comprising: generating a first cyclic redundancy check, CRC, for a transport block of data; attaching the first CRC to the transport block of data; segmenting the transport block with the attached first CRC into one or more code blocks based on a size of the transport block of data with the attached first CRC; generating a second CRC for each of the one or more code blocks if a number of the one or more code blocks is greater than one; attaching the second CRC to each of the one or more code blocks; and encoding data bits of at least one of the one or more code blocks with the attached second CRC, wherein if the number of the one or more code blocks is one, the second CRC is not generated for any of the one or more code blocks. generating a first cyclic redundancy check, CRC, for a transport block of data; attaching the first CRC to the transport block of data; segmenting the transport block with the attached first CRC into one or more code blocks based on a size of the transport block of data with the attached first CRC; generating a second CRC for each of the one or more code blocks if a number of the one or more code blocks is greater than one; attaching the second CRC to each of the one or more code blocks; and encoding data bits of at least one of the one or more code blocks with the attached second CRC, wherein if the number of the one or more code blocks is one, the second CRC is not generated for any of the one or more code blocks.
A cooling apparatus comprising: a) a fan having a central axis and rotatable blades which connect to a fan ring at their tips, the fan ring having an inner diameter D2; b) a stationary cylindrical ring concentric about an axis and surrounding the fan ring; c) a Coanda ring which i) is concentric about said axis; ii) is adjacent the cylindrical ring; iii) comprises an inner surface of revolution about the axis, which surface has A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and d) a radial array of stator vanes which is i) concentric about the axis; characterised in that the radial array of stator vanes is located ii) adjacent to, and entirely downstream of the Coanda Ring. a) a fan having a central axis and rotatable blades which connect to a fan ring at their tips, the fan ring having an inner diameter D2; b) a stationary cylindrical ring concentric about an axis and surrounding the fan ring; c) a Coanda ring which i) is concentric about said axis; ii) is adjacent the cylindrical ring; iii) comprises an inner surface of revolution about the axis, which surface has A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and i) is concentric about said axis; ii) is adjacent the cylindrical ring; iii) comprises an inner surface of revolution about the axis, which surface has A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and d) a radial array of stator vanes which is i) concentric about the axis; characterised in that the radial array of stator vanes is located ii) adjacent to, and entirely downstream of the Coanda Ring. i) concentric about the axis; characterised in that the radial array of stator vanes is located ii) adjacent to, and entirely downstream of the Coanda Ring.
Turbine for a turbine engine, having a stator and a movable rotor , rotating around an axis (X), in relation to the stator , wherein the rotor comprises at least one disc , the radially outer periphery of which comprises cavities , wherein the rotor furthermore comprises blades each having a blade root axially engaged in a cavity of the disc so as to radially hold the blade on the disc , in which at least one of the blade roots has an axially flaring shape, with the corresponding cavity having a matching shape so as to axially lock the blade root in the cavity , in a first axially oriented direction (D1), wherein locking means lock the blade root in the cavity in a second axially oriented direction (D2), opposite the first direction (D1), characterised in that at least a portion of the blade root and of the cavity comprises an oblique side wall .
Three-mirror anastigmat telescope comprising a concave first mirror (M1), a convex second mirror (M2) and a concave third mirror (M3), the three mirrors being arranged so that the first mirror and the second mirror form, from an object at infinity, an intermediate image situated between the second mirror and the third mirror, the third mirror forming, from this intermediate image, a final image in the focal plane of the telescope, the surface of the concave third mirror (M3) being a φ-polynomial surface characterized in that the pupil (P) of the telescope is situated at the level of the first concave mirror.
A corrosion inhibitor formulation, comprising: a) a bis-quaternary ammonium salt of Formula I: wherein A is selected from O, NH, C(O), C(NH) or C(S); R 1 and R 2 are independently selected from C 1-3 alkyl or H; R 3 is C 1-16 alkyl, C 7-20 aralkyl or C 3-16 allyl; X - is selected from chloro, bromo, iodo, hydroxide, nitrate or sulphate; and n and m are independently 1 to 6; b) alkyldimethylbenzylammonium chloride; c) at least one fatty acid methyl ester; d) at least one viscosity reducing agent; and e) at least one solubilizing agent, wherein the bis-quaternary ammonium salt of Formula I to the at least one fatty acid methyl ester weight ratio is in a range of 1:3.7 - 1:5.7. a) a bis-quaternary ammonium salt of Formula I: wherein A is selected from O, NH, C(O), C(NH) or C(S); R 1 and R 2 are independently selected from C 1-3 alkyl or H; R 3 is C 1-16 alkyl, C 7-20 aralkyl or C 3-16 allyl; X - is selected from chloro, bromo, iodo, hydroxide, nitrate or sulphate; and n and m are independently 1 to 6; b) alkyldimethylbenzylammonium chloride; c) at least one fatty acid methyl ester; d) at least one viscosity reducing agent; and e) at least one solubilizing agent,
A wireless power transfer pad for wireless charging of a vehicle electrical storage system, the wireless power transfer pad comprising: an oscillating electromagnetic field generating device configured for transmitting energy to a wireless power receiver associated with the vehicle, a foreign object detection arrangement including a plurality of foreign object detection coils , and a solar panel arrangement including a photovoltaic substrate with a front side and a rear side , a front side electrode arrangement and a rear side electrode arrangement, wherein the foreign object detection coils are configured to function also as the front side electrode arrangement. an oscillating electromagnetic field generating device configured for transmitting energy to a wireless power receiver associated with the vehicle, a foreign object detection arrangement including a plurality of foreign object detection coils , and a solar panel arrangement including a photovoltaic substrate with a front side and a rear side , a front side electrode arrangement and a rear side electrode arrangement, wherein the foreign object detection coils are configured to function also as the front side electrode arrangement.
An adhesive composition, based on the total weight of the composition, comprising the following components in solid content percentage: (A) 10% to 50 % by weight of a first epoxy resin with a weight average molecular weight Mw of 8,000 g/mol or more; (B) 5% to 20% by weight of a second epoxy resin with a weight average molecular weight Mw of 200 to 6,000 g/mol; (C) 30% to 80% by weight of a hydroxyl terminated polyester or derivates thereof; (D) 0.1% to 2.5% by weight of a first curing agent capable of reacting with epoxy group, wherein the first curing agent is a latent curing agent which provides effective curing at elevated temperature, pressure, or both; and (E) 0.1% to 2.5% by weight of a second curing agent capable of reacting with hydroxyl group, wherein the second curing agent is an active curing agent which provides good adhesive cohesion and heat resistance upon curing at a relatively lower temperature; the sum of components of the composition is equal to 100% by weight. (A) 10% to 50 % by weight of a first epoxy resin with a weight average molecular weight Mw of 8,000 g/mol or more; (B) 5% to 20% by weight of a second epoxy resin with a weight average molecular weight Mw of 200 to 6,000 g/mol; (C) 30% to 80% by weight of a hydroxyl terminated polyester or derivates thereof; (D) 0.1% to 2.5% by weight of a first curing agent capable of reacting with epoxy group, wherein the first curing agent is a latent curing agent which provides effective curing at elevated temperature, pressure, or both; and (E) 0.1% to 2.5% by weight of a second curing agent capable of reacting with hydroxyl group, wherein the second curing agent is an active curing agent which provides good adhesive cohesion and heat resistance upon curing at a relatively lower temperature;
A system for producing steam, the system comprising: a boiler comprising a steam output ; a membrane filtration system in fluid communication with the steam output , the membrane filtration system comprising: a first membrane filter with a permeate side and an opposing retentate side , the membrane filter comprising: a separation membrane constructed to reject organic molecules, the separation membrane comprising: a separation layer ; and one or more support layers on the permeate side , characterized in that an organic molecule injection line is operatively connected to the boiler . a boiler comprising a steam output ; a membrane filtration system in fluid communication with the steam output , the membrane filtration system comprising: a first membrane filter with a permeate side and an opposing retentate side , the membrane filter comprising: a separation membrane constructed to reject organic molecules, the separation membrane comprising: a separation layer ; and one or more support layers on the permeate side , a separation layer ; and one or more support layers on the permeate side , characterized in that an organic molecule injection line is operatively connected to the boiler .
A method of controlling a temperature of a blade in a wind turbine system, comprising: setting a target temperature of the blade; inputting physical conditions of the blade and ambient conditions about the blade into a processor; outputting a minimum amount of energy to be provided to a heating element of the blade required to reach the target temperature by tailoring a function to be dependent on the physical conditions and ambient conditions such that the target temperature occurs at an end temperature line , where a the- heating curve for the blade plateaus; and adjusting the energy provided to the heating element to reach the target temperature. setting a target temperature of the blade; inputting physical conditions of the blade and ambient conditions about the blade into a processor; outputting a minimum amount of energy to be provided to a heating element of the blade required to reach the target temperature by tailoring a function to be dependent on the physical conditions and ambient conditions such that the target temperature occurs at an end temperature line , where a the- heating curve for the blade plateaus; and adjusting the energy provided to the heating element to reach the target temperature.
Olive oil enriched with oleanolic acid (OA) characterized in that the concentration of oleanolic acid, including the oleanolic acid naturally formed as glycosylated derivatives and esters, in said olive oil is comprised between 580 and 650 mg/kg wherein the olive oil is in the form of nanosuspension.