mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a stereoregular diblock polybutadiene composed of a polybutadiene block having a 1,4- cis structure and a polybutadiene block having a 1,2 syndiotactic structure, having the following formula: PB 1 -PB 2 wherein: - PB 1 corresponds to the polybutadiene block having a 1,4- cis structure; - PB 2 corresponds to the polybutadiene block having a 1,2 syndiotactic structure; having a content of 1,4- trans units lower than 3% molar, comprising: - subjecting 1,3-butadiene to total or partial stereospecific polymerization in the presence of a catalytic system comprising at least one complex of cobalt including at least one imine nitrogen, in order to obtain polybutadiene with a 1,4- cis living structure; - adding at least one monodentate aromatic phosphine and optionally 1,3-butadiene, and continuing said stereospecific polymerization, in order to obtain said stereoregular diblock polybutadiene composed of a polybutadiene block having a 1,4- cis structure and a polybutadiene block having a 1,2 syndiotactic structure. - PB 1 corresponds to the polybutadiene block having a 1,4- cis structure; - PB 2 corresponds to the polybutadiene block having a 1,2 syndiotactic structure; - subjecting 1,3-butadiene to total or partial stereospecific polymerization in the presence of a catalytic system comprising at least one complex of cobalt including at least one imine nitrogen, in order to obtain polybutadiene with a 1,4- cis living structure; - adding at least one monodentate aromatic phosphine and optionally 1,3-butadiene, and continuing said stereospecific polymerization, in order to obtain said stereoregular diblock polybutadiene composed of a polybutadiene block having a 1,4- cis structure and a polybutadiene block having a 1,2 syndiotactic structure.
A refrigerator door, comprising: an outer door (50, 150, 250, 350) defining the front of the door, wherein extending portions are formed on both sides of the outer door (50, 150, 250, 350) to be bent and extend by a predetermined length, the outer door (50, 150, 250, 350) formed to have a display accommodating portion (60, 160, 260, 360) defined by depressing its front by a predetermined size; a door liner (56, 156) defining a rear external appearance of the refrigerator door, the door liner (56, 156) being coupled to the extending portions of the outer door (50, 150, 250, 350), thus defining a predetermined space between the outer door (50, 150, 250, 350) and the door liner (56, 156); an insulating layer formed in a space between the outer door (50, 150, 250, 350) and the door liner (56, 156); a display portion (70, 170, 270, 370, 670) inserted into the display accommodating portion (60, 160, 260, 360); a front decoration (90, 190, 290, 390, 690) formed of a single sheet of transparent plate, positioned in front of the outer door (50, 150, 250, 350) to define the front of the refrigerator door; wherein the display portion (70, 170, 270, 370, 670) is attached to a rear of the front decoration (90, 190, 290, 390, 690); and wherein a rear surface of the front decoration (90, 190, 290, 390, 690) is colored with a color, and wherein the front decoration (90, 190, 290, 390, 690) has a transparent window (92, 192, 292, 393, 692) formed in a position corresponding to the display portion (70, 170, 270, 370, 670) for making it possible to observe the display portion (70, 170, 270, 370, 670). an outer door (50, 150, 250, 350) defining the front of the door, wherein extending portions are formed on both sides of the outer door (50, 150, 250, 350) to be bent and extend by a predetermined length, the outer door (50, 150, 250, 350) formed to have a display accommodating portion (60, 160, 260, 360) defined by depressing its front by a predetermined size; a door liner (56, 156) defining a rear external appearance of the refrigerator door, the door liner (56, 156) being coupled to the extending portions of the outer door (50, 150, 250, 350), thus defining a predetermined space between the outer door (50, 150, 250, 350) and the door liner (56, 156); an insulating layer formed in a space between the outer door (50, 150, 250, 350) and the door liner (56, 156); a display portion (70, 170, 270, 370, 670) inserted into the display accommodating portion (60, 160, 260, 360); a front decoration (90, 190, 290, 390, 690) formed of a single sheet of transparent plate, positioned in front of the outer door (50, 150, 250, 350) to define the front of the refrigerator door; wherein the display portion (70, 170, 270, 370, 670) is attached to a rear of the front decoration (90, 190, 290, 390, 690); and wherein a rear surface of the front decoration (90, 190, 290, 390, 690) is colored with a color, and wherein the front decoration (90, 190, 290, 390, 690) has a transparent window (92, 192, 292, 393, 692) formed in a position corresponding to the display portion (70, 170, 270, 370, 670) for making it possible to observe the display portion (70, 170, 270, 370, 670).
A plain journal bearing coupling a first component to a second component, the bearing comprising: a pin which passes through the first component and the second component; a clamping bush (31, 32) which surrounds the pin and has a cylindrical inner surface, a cylindrical outer surface and an end face (31d, 32c); and a clamping member (29a, 29b) which is mounted on the pin and provides a clamping force to urge the end face (31d, 32c) of the clamping bush (31, 32) into clamping engagement with the first component, wherein the bearing has a primary slip path between the outer surface of the clamping bush (31, 32) and the second component which is arranged to operate such that during normal operation of the bearing, when the first and second component (21, 22) rotate relative to each other, the second component and the clamping bush (31, 32 rotate relative to each other about the primary slip path and the clamping bush (31, 32) remains in clamping engagement with the first component such that the clamping bush (31, 32) rotates with the first component; and wherein the pin has a cylindrical outer surface which provides a subsidiary slip path which is arranged to operate such that during degraded operation of the bearing, when the first and second component (21, 22) rotate relative to each other and the coefficient of friction of the primary slip path has increased to overcome the clamping force, the pin and the clamping bush (31, 32) can rotate relative to each other about the subsidiary slip path. a pin which passes through the first component and the second component; a clamping bush (31, 32) which surrounds the pin and has a cylindrical inner surface, a cylindrical outer surface and an end face (31d, 32c); and a clamping member (29a, 29b) which is mounted on the pin and provides a clamping force to urge the end face (31d, 32c) of the clamping bush (31, 32) into clamping engagement with the first component, wherein the bearing has a primary slip path between the outer surface of the clamping bush (31, 32) and the second component which is arranged to operate such that during normal operation of the bearing, when the first and second component (21, 22) rotate relative to each other, the second component and the clamping bush (31, 32 rotate relative to each other about the primary slip path and the clamping bush (31, 32) remains in clamping engagement with the first component such that the clamping bush (31, 32) rotates with the first component; and wherein the pin has a cylindrical outer surface which provides a subsidiary slip path which is arranged to operate such that during degraded operation of the bearing, when the first and second component (21, 22) rotate relative to each other and the coefficient of friction of the primary slip path has increased to overcome the clamping force, the pin and the clamping bush (31, 32) can rotate relative to each other about the subsidiary slip path.
Drug delivery device for selecting and dispensing a number of user variable doses of a medicament, comprising a housing, a dose selector operable to set a dose by rotation relative to the housing, a number sleeve arranged within the housing, a drive sleeve which is rotationally constrained to the housing during dose setting and dose correcting and which is rotatable relative to the housing during dose dispensing, a piston rod coupled to the housing and to the drive sleeve, a drive spring arranged between the housing and the number sleeve, and a ratchet (43, 64) designed and arranged such that it is possible to overhaul the ratchet (43, 64) in both directions, however with a different resistance torque of the ratchet (43, 64), characterized in that the ratchet (43, 64) is operatively arranged between the drive sleeve and the number sleeve and that the ratchet (43, 64) comprises at least one clicker arm of one of the number sleeve and the drive sleeve and ratchet teeth of the other of the number sleeve and the drive sleeve, wherein the clicker arm and the ratchet teeth are arranged radially adjacently with the at least one clicker arm deflecting in a radial direction during relative rotation of the drive sleeve and the number sleeve.
A power conversion system comprising: a photovoltaic source configured to generate direct current power; a direct current to an alternating current single stage inverter 2. configured to convert the direct current power from the photovoltaic source to alternating current power for delivery to a power grid; a voltage sensor configured to obtain a voltage component of the alternating current power; a load balancing unit coupled to the single stage inverter; and a controller configured to: determine a maximum power point for the power conversion system; compute a difference between the voltage component of the alternating current power and a desired regulated grid voltage; use the difference between the voltage component of the alternating current power and the desired regulated grid voltage to generate a control signal for the single stage inverter to drive the voltage component of the alternating current power towards the regulated grid voltage; compute a power balance difference between a power demand from the power grid and an output power of the single stage inverter obtainable at the maximum power point; and control in real-time the load balancing unit based on the power balance difference. a photovoltaic source configured to generate direct current power; a direct current to an alternating current single stage inverter 2. configured to convert the direct current power from the photovoltaic source to alternating current power for delivery to a power grid; a voltage sensor configured to obtain a voltage component of the alternating current power; a load balancing unit coupled to the single stage inverter; and a controller configured to: determine a maximum power point for the power conversion system; compute a difference between the voltage component of the alternating current power and a desired regulated grid voltage; use the difference between the voltage component of the alternating current power and the desired regulated grid voltage to generate a control signal for the single stage inverter to drive the voltage component of the alternating current power towards the regulated grid voltage; compute a power balance difference between a power demand from the power grid and an output power of the single stage inverter obtainable at the maximum power point; and control in real-time the load balancing unit based on the power balance difference. determine a maximum power point for the power conversion system; compute a difference between the voltage component of the alternating current power and a desired regulated grid voltage; use the difference between the voltage component of the alternating current power and the desired regulated grid voltage to generate a control signal for the single stage inverter to drive the voltage component of the alternating current power towards the regulated grid voltage; compute a power balance difference between a power demand from the power grid and an output power of the single stage inverter obtainable at the maximum power point; and control in real-time the load balancing unit based on the power balance difference.
Compound, or its salts, for use in the treatment or prevention of cancer, wherein said compound is selected from: COOH-CHOH-(CH 2) 6 -(CH=CH-CH 2) 2 -(CH 2) 3 -CH 3 (182A1), COOH-CHOH-(CH 2) 6 -(CH=CH-CH 2) 3 -CH 3 (183A1), COOH-CHOH-(CH 2) 3 -(CH=CH-CH 2) 3 -(CH 2) 3 -CH 3 (183A2), COOH-CHOH-(CH 2) 2 -(CH=CH-CH 2) 4 -(CH 2) 3 -CH 3 (204A1), COOH-CHOH-(CH 2) 2 -(CH=CH-CH 2) 5 -CH 3 (205A1) and COOH-CHOH-CH 2 -(CH=CH-CH 2) 6 -CH 3 (226A1). COOH-CHOH-(CH 2) 6 -(CH=CH-CH 2) 2 -(CH 2) 3 -CH 3 (182A1), COOH-CHOH-(CH 2) 6 -(CH=CH-CH 2) 3 -CH 3 (183A1), COOH-CHOH-(CH 2) 3 -(CH=CH-CH 2) 3 -(CH 2) 3 -CH 3 (183A2), COOH-CHOH-(CH 2) 2 -(CH=CH-CH 2) 4 -(CH 2) 3 -CH 3 (204A1), COOH-CHOH-(CH 2) 2 -(CH=CH-CH 2) 5 -CH 3 (205A1) and COOH-CHOH-CH 2 -(CH=CH-CH 2) 6 -CH 3 (226A1).
A swashplate for a conveyor drum of the tobacco processing industry comprising an outer ring and an inner ring, wherein multiple, in particular more than three, spring connection bodies are provided between the inner ring and the outer ring in the circumferential direction, characterized in that the spring connection bodies are materially or integrally connected to the inner ring and/or to the outer ring.
A process for the manufacture of a sachet comprising at least two compartments (28, 29) in a form, fill and seal machine, said sachet manufactured by a process comprising: i. spooling outer weldable material (4,6) and inner partition weldable material into a sealing element (22, 23) wherein the weldable materials are flexible; ii. sealing the weldable materials in the longitudinal direction such that the innermost surfaces of the outer weldable materials are bonded to the inner partition weldable material to form at least two tubes superimposed on each other, iii. sealing said tubes along a lateral direction to form at least two compartments (28, 29); iv. injecting measured quantities of material comprising coagulating agent into one compartment and material comprising disinfection ingredient into the other compartment wherein the Ingredients together are suitable for purification of water; v. providing the tubes a second lateral seal to form a sachet with at least two compartments (28, 29); wherein the outer weldable material (4, 6) comprises a laminate having a thickness of at least 60 μm and comprising at least three layers selected from polymeric and aluminium foil layers and whereby the weldable materials are selected from impermeable laminates. i. spooling outer weldable material (4,6) and inner partition weldable material into a sealing element (22, 23) wherein the weldable materials are flexible; ii. sealing the weldable materials in the longitudinal direction such that the innermost surfaces of the outer weldable materials are bonded to the inner partition weldable material to form at least two tubes superimposed on each other, iii. sealing said tubes along a lateral direction to form at least two compartments (28, 29); iv. injecting measured quantities of material comprising coagulating agent into one compartment and material comprising disinfection ingredient into the other compartment wherein the Ingredients together are suitable for purification of water; v. providing the tubes a second lateral seal to form a sachet with at least two compartments (28, 29); wherein the outer weldable material (4, 6) comprises a laminate having a thickness of at least 60 μm and comprising at least three layers selected from polymeric and aluminium foil layers and whereby the weldable materials are selected from impermeable laminates.
An electronic device (100, 101, 301), comprising: a first battery (189, 310) having a first capacity; a second battery (189, 320) having a second capacity; a power management module (188, 330) configured to separately control a charging state of the first battery and the second battery; a memory; and a processor (120, 350) operably coupled to the power management module, wherein the processor (120, 350) is configured to: calculate (520, 720, 820) a first cycle about the charging state of the first battery and a second cycle about the charging state of the second battery, characterised in that the processor is further configured to: determine a reference operating voltage based on the first cycle and the second cycle, and when an operating voltage of the first battery is higher than the reference operating voltage and an operating voltage of the second battery is equal to or lower than the reference operating voltage, discharge the first battery until the operating voltage of the first battery becomes equal to the reference operating voltage. a first battery (189, 310) having a first capacity; a second battery (189, 320) having a second capacity; a power management module (188, 330) configured to separately control a charging state of the first battery and the second battery; a memory; and a processor (120, 350) operably coupled to the power management module, wherein the processor (120, 350) is configured to: calculate (520, 720, 820) a first cycle about the charging state of the first battery and a second cycle about the charging state of the second battery, characterised in that the processor is further configured to: determine a reference operating voltage based on the first cycle and the second cycle, and when an operating voltage of the first battery is higher than the reference operating voltage and an operating voltage of the second battery is equal to or lower than the reference operating voltage, discharge the first battery until the operating voltage of the first battery becomes equal to the reference operating voltage. determine a reference operating voltage based on the first cycle and the second cycle, and when an operating voltage of the first battery is higher than the reference operating voltage and an operating voltage of the second battery is equal to or lower than the reference operating voltage, discharge the first battery until the operating voltage of the first battery becomes equal to the reference operating voltage.
A method of performing a digital biological assay in an electrowetting on dielectric (EWOD) device (104,157,180,200), the method comprising the steps of: inputting a sample reservoir (202,220) containing biological entities and assay reagents into the EWOD device (104,157,180,200); partitioning the sample reservoir into partitions (204,224) for the digital biological assay by performing electrowetting operations with the EWOD device (104,157,180,200); measuring a volume of each partition (204,224); changing a condition of the partitions (204,224) to initiate the digital biological assay, wherein the changed condition results in the biological entities performing a biological process to generate a product substance; and performing the digital biological assay by the steps of: measuring a partition property and a volume of each partition (204,224) with respect to time and in real time, wherein the partition property is indicative of the product substance generated by the biological process of any biological entity or entities within a respective partition; determining a concentration of the product substance in each partition (204,224) based on the measured partition property and volume; and categorizing the partitions (204,224) by a number of biological entities contained in each partition based on the determined concentration of the product substance. inputting a sample reservoir (202,220) containing biological entities and assay reagents into the EWOD device (104,157,180,200); partitioning the sample reservoir into partitions (204,224) for the digital biological assay by performing electrowetting operations with the EWOD device (104,157,180,200); measuring a volume of each partition (204,224); changing a condition of the partitions (204,224) to initiate the digital biological assay, wherein the changed condition results in the biological entities performing a biological process to generate a product substance; and performing the digital biological assay by the steps of: measuring a partition property and a volume of each partition (204,224) with respect to time and in real time, wherein the partition property is indicative of the product substance generated by the biological process of any biological entity or entities within a respective partition; determining a concentration of the product substance in each partition (204,224) based on the measured partition property and volume; and categorizing the partitions (204,224) by a number of biological entities contained in each partition based on the determined concentration of the product substance. measuring a partition property and a volume of each partition (204,224) with respect to time and in real time, wherein the partition property is indicative of the product substance generated by the biological process of any biological entity or entities within a respective partition; determining a concentration of the product substance in each partition (204,224) based on the measured partition property and volume; and categorizing the partitions (204,224) by a number of biological entities contained in each partition based on the determined concentration of the product substance.
A method of selecting ions, the method comprising selecting ions corresponding to a target ion of interest by: separating analyte ions according to their ion mobility in a closed loop ion mobility separator; isolating first ions of the analyte ions within a first ion mobility drift time range that corresponds to the target ion of interest; storing the first ions in an ion trap arranged upstream of the closed-loop ion mobility separator; separating the first ions according to their ion mobility in the closed-loop ion mobility separator; isolating second ions of the first ions within a second ion mobility drift time range that corresponds to the target ion of interest; and storing the second ions in the ion trap. separating analyte ions according to their ion mobility in a closed loop ion mobility separator; isolating first ions of the analyte ions within a first ion mobility drift time range that corresponds to the target ion of interest; storing the first ions in an ion trap arranged upstream of the closed-loop ion mobility separator; separating the first ions according to their ion mobility in the closed-loop ion mobility separator; isolating second ions of the first ions within a second ion mobility drift time range that corresponds to the target ion of interest; and storing the second ions in the ion trap.