mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing an SEI-like film component additive, characterized by comprising the steps of: reacting an organic solution of lithium naphthalenide with a mixed solvent in an inert gas atmosphere to obtain a mixture containing an SEI-like film component additive, wherein, the mass ratio of the lithium naphthalenide in the organic solution of lithium naphthalenide to the mass of the mixed solvent is 2-8: 1, and the mixed solvent comprises an organic solvent for a battery electrolyte solution; drying the mixture in vacuum to obtain the SEI-like film component additive; wherein the mixed solvent is a mixture of ethylene carbonate, methyl ethyl carbonate, and dimethyl carbonate. reacting an organic solution of lithium naphthalenide with a mixed solvent in an inert gas atmosphere to obtain a mixture containing an SEI-like film component additive, wherein, the mass ratio of the lithium naphthalenide in the organic solution of lithium naphthalenide to the mass of the mixed solvent is 2-8: 1, and the mixed solvent comprises an organic solvent for a battery electrolyte solution; drying the mixture in vacuum to obtain the SEI-like film component additive; wherein the mixed solvent is a mixture of ethylene carbonate, methyl ethyl carbonate, and dimethyl carbonate.
A method in a first wireless access point using a first radio access technology, RAT, in a heterogeneous wireless network including the first wireless access point and a second wireless access point using a second RAT, the method comprising: determining one or more performance characteristics of traffic between a first client device and the first wireless access point using the first RAT and the second wireless access point using the second RAT; calculating one or more traffic indicators based on the performance characteristics of the traffic of the first client device, wherein the one or more traffic indicators comprises a first traffic indicator associated with assigned radio resources for the first client device, a second traffic indicator associated with preferred assignment of radio resources by the first client device, and a third traffic indicator based on a difference between values of the first traffic indicator and values of the second traffic indicator; and communicating at least one of the one or more traffic indicators to the second wireless access point, wherein the communicated traffic indicators are for use by the second wireless access point to schedule radio resources of the second RAT. determining one or more performance characteristics of traffic between a first client device and the first wireless access point using the first RAT and the second wireless access point using the second RAT; calculating one or more traffic indicators based on the performance characteristics of the traffic of the first client device, wherein the one or more traffic indicators comprises a first traffic indicator associated with assigned radio resources for the first client device, a second traffic indicator associated with preferred assignment of radio resources by the first client device, and a third traffic indicator based on a difference between values of the first traffic indicator and values of the second traffic indicator; and communicating at least one of the one or more traffic indicators to the second wireless access point, wherein the communicated traffic indicators are for use by the second wireless access point to schedule radio resources of the second RAT.
A solid unit oral pharmaceutical dosage form of saquinavir mesylate comprising from 60% to 80% micronized saquinavir mesylate based on the mesylate salt, from 4% to 8% of polyvinylpyrrolidone, 3% to 10% of a pharmaceutically acceptable disintegrant selected from croscarmellose sodium and crospovidone, and 3% to 10% of lactose monohydrate, wherein each percentage is of the kernel weight of the pharmaceutical dosage form.
Dishwasher, in particular household dishwasher, with a dishwasher cavity that can be closed off by a door, a receptacle for items to be washed arranged such that it can be displaced in the dishwasher cavity with a receive unit, wherein the receptacle for items to be washed can be displaced between a starting position and an end position, characterised by a transmit unit arranged on an inner side of the door for the inductive transfer of electrical energy to the receive unit, wherein the transmit unit on the inner side of the door and the receive unit on the receptacle for items to be washed are arranged relative to one another such that the electrical energy can be inductively transferred from the transmit unit to the receive unit when the door is in a closed position and the receptacle for items to be washed is in the starting position, and wherein arranged on the receptacle for items to be washed is a user interface, which is electrically and/or mechanically coupled to the receive unit.
Fluid dispenser comprising at least one fluid container and at least one metering unit connected or connectable to the fluid container, wherein the fluid container comprises at least one fluid level sensor (8, 20, 25), the fluid dispenser comprising a control unit, wherein the fluid level sensor (8, 20, 25) is configured to generate a signal at a predefined fluid level (B, C), wherein the control unit is configured to calculate a fluid level on basis of an input value indicative for the fluid level at a refill point of time, and a dispense value indicative for amounts of fluid dispensed since the refill point of time, wherein the control unit is configured to compare the signalled predefined fluid level (B, C) with the calculated fluid level value at the moment that the signal is generated to generate a correction factor in response to the signal of the sensor, characterised in that the correction factor is used for correcting an entered input amount with a next refill.
Installation for cooling cooling water-conducting copper pipes present in large electric generators cooled with hydrogen gas, with which installation, depending on the oxygen content of the cooling water, a minimum quantity of CO 2 -free air can be pumped into the cooling water cooling circuit at a high oxygen content or pure nitrogen N 2 at a low oxygen content, and whereby the critical air quantity proportion for the hydrogen H 2 contained in the cooling circuit can be kept outside the range of 4-75% H 2 in the air contained in the cooling water and thus outside the dangerous quantity ratio, with a connection to a stator cooling water system, wherein the system comprises a stator cooling water tank with outgoing pipe and riser pipe, and wherein the outgoing pipe leads the cooling water through pumps, heat exchangers, a filter and thereafter optionally through an ion exchanger back into the stator cooling water tank or into the cooling channels of a stator winding in a generator, and wherein the installation includes an air injection system with a control system, with measuring instruments for the continuous measurement of CO 2 in the incoming supply air and H 2 in the outgoing exhaust air, as well as a control unit with operating elements, wherein limit values can be entered for the CO 2 concentration as well as for the H 2 concentration, the air injection system being equipped with a valve on the plant side, via which oil- and dust-free air can be guided through the line and then through a pressure sensor and a flow meter, then through a CO 2 and H 2 O separation column, then via a second pressure sensor into a CO 2 analyser and via a plant-side valve via a line into the stator cooling water tank, and wherein the riser pipe is present, from which gas can be withdrawn via a plant-side valve by means of a pump with its pump impeller, which can be fed via an H 2 analyser and a valve into the pipe and via the valve back via the pipe into the stator cooling tank, and in that the control unit is an electronic control unit with input field and display, which belongs to the system as a control box, and by means of which the measurement data of all connected sensors and analysis devices of the installation can be evaluated, at least the CO 2 content of the injected air and the H 2 content in this riser pipe can be measured, and by means of which an acoustic and optical alarm can be emitted when an adjustable limit value is exceeded.
Process to prepare alkylaluminoxanes by reaction of alkylaluminium with a substituted allylic alcohol of the formula wherein each R1 and R2 independently are an aliphatic or aromatic hydrocarbon group, and R3, R4, and R5 each independently may be the same hydrocarbon group as R1 and R2 or a hydrogen atom in the presence of an inert organic solvent, wherein 0.1 to 0.8 molar equivalent of substituted allylic alcohol is used on 1 equivalent of alkylaluminium.
A method of selectively collecting a population of biological particles from a surface of a porous matrix comprising different biological particle populations, the method comprising for each different biological particle population to be collected: (a) applying sonic energy to an opposing area on a first surface of the porous matrix wherein the opposing area corresponds to an area on a second surface of the porous matrix wherein the area on the second surface comprises the population of biological particles, and (b) collecting biological particles of the population of biological particles from the area on the second surface into a liquid collection medium in contact with the area on the second surface, wherein the surface of the matrix with biological particles is disposed over a container that contains the liquid collection medium. (a) applying sonic energy to an opposing area on a first surface of the porous matrix wherein the opposing area corresponds to an area on a second surface of the porous matrix wherein the area on the second surface comprises the population of biological particles, and (b) collecting biological particles of the population of biological particles from the area on the second surface into a liquid collection medium in contact with the area on the second surface,
A method of sensing dispensation of a product from a storage device having an antenna, the method comprising the steps of: providing a first product with a first wireless tag within a service area of the antenna; establishing wireless communication between the first wireless tag and the antenna, wherein the step of establishing wireless communication includes: establishing a mesh network of wireless links amongst a plurality of wireless tags; and establishing a first wireless link between the first wireless tag of the first product and a first one of the plurality of wireless tags; and establishing a second wireless link between a second one of the plurality of wireless tags and the antenna; monitoring the wireless communication and a network topology of the mesh network, wherein monitoring the wireless communication comprises monitoring the first wireless link; and determining whether the first wireless tag of the first product was removed and returned to the storage device when the location of the first wireless tag in the topology has changed, while maintaining topology information in a way that temporarily removing the first wireless tag of the first product causes the links of the first wireless tag to be removed from the mesh network and replaced elsewhere in the topology such that spoofing the system by removing the first product, but not the first wireless tag, from the system can be detected. providing a first product with a first wireless tag within a service area of the antenna; establishing wireless communication between the first wireless tag and the antenna, wherein the step of establishing wireless communication includes: establishing a mesh network of wireless links amongst a plurality of wireless tags; and establishing a first wireless link between the first wireless tag of the first product and a first one of the plurality of wireless tags; and establishing a second wireless link between a second one of the plurality of wireless tags and the antenna; establishing a mesh network of wireless links amongst a plurality of wireless tags; and establishing a first wireless link between the first wireless tag of the first product and a first one of the plurality of wireless tags; and establishing a second wireless link between a second one of the plurality of wireless tags and the antenna; monitoring the wireless communication and a network topology of the mesh network, wherein monitoring the wireless communication comprises monitoring the first wireless link; and determining whether the first wireless tag of the first product was removed and returned to the storage device when the location of the first wireless tag in the topology has changed, while maintaining topology information in a way that temporarily removing the first wireless tag of the first product causes the links of the first wireless tag to be removed from the mesh network and replaced elsewhere in the topology such that spoofing the system by removing the first product, but not the first wireless tag, from the system can be detected.
A film comprising a blend of from 0.5 to 60 wt% of a polyalphaolefin and 40 to 99.5 wt% of a propylene-based elastomer, where the propylene-based polymer elastomer is a reactor blend of a first polymer component and a second polymer component, wherein the first polymer component comprises propylene and an α-olefin and has an α-olefin content R 1 of from greater than 5 to less than 30 wt% α-olefin, where the percentage by weight is based upon the total weight of the propylene-derived and α-olefin derived units of the first polymer component, and wherein the second polymer component comprises propylene and α-olefin and has an α-olefin content R 2 of from greater than 1 to less than 10 wt% α-olefin, where the percentage by weight is based upon the total weight of the propylene-derived and α-olefin derived units of the second polymer component, the α-olefin being selected from ethylene and C 4 -C 12 α-olefins, and where the polyalphaolefin has a kinematic viscosity at 100 °C of from 3 to 3000 cSt (as measured according to ASTM D445 at 100°C).
A fiber optic cable (110, 210, 310), comprising: a core assembly comprising: optical fibers (112, 214, 314); at least one tube (116, 212, 312) through each of which a plurality of said optical fibers (112, 214, 314) extend; and a jacket (124, 222, 332), characterized by a polymeric sleeve (118, 218, 320) surrounding the core assembly, wherein the polymeric sleeve (118, 218, 320) is continuous peripherally around the core assembly, forming a continuous closed loop when viewed in cross-section, and continuous lengthwise along a length of the cable that is at least 10 meters, wherein the polymeric sleeve (118, 218, 320) conforms to an exterior geometry of the core assembly, thereby limiting space for water to flow between the polymeric sleeve (118, 218, 320) and the core assembly; water-swellable powder (120, 220) partially embedded in the polymeric sleeve (118, 218, 320) such that particles of the water-swellable powder (120, 220) have a portion thereof submerged in the polymeric sleeve (118, 218, 320) passing partly through a surface plane of the polymeric sleeve (118, 218, 320) and another portion thereof exposed partially projecting away from the surface plane of the polymeric sleeve (118, 218, 320); and the jacket (124, 222, 332) surrounding the polymeric sleeve (118, 218, 320). a core assembly comprising: optical fibers (112, 214, 314); at least one tube (116, 212, 312) through each of which a plurality of said optical fibers (112, 214, 314) extend; and optical fibers (112, 214, 314); at least one tube (116, 212, 312) through each of which a plurality of said optical fibers (112, 214, 314) extend; and a jacket (124, 222, 332), characterized by a polymeric sleeve (118, 218, 320) surrounding the core assembly, wherein the polymeric sleeve (118, 218, 320) is continuous peripherally around the core assembly, forming a continuous closed loop when viewed in cross-section, and continuous lengthwise along a length of the cable that is at least 10 meters, wherein the polymeric sleeve (118, 218, 320) conforms to an exterior geometry of the core assembly, thereby limiting space for water to flow between the polymeric sleeve (118, 218, 320) and the core assembly; water-swellable powder (120, 220) partially embedded in the polymeric sleeve (118, 218, 320) such that particles of the water-swellable powder (120, 220) have a portion thereof submerged in the polymeric sleeve (118, 218, 320) passing partly through a surface plane of the polymeric sleeve (118, 218, 320) and another portion thereof exposed partially projecting away from the surface plane of the polymeric sleeve (118, 218, 320); and the jacket (124, 222, 332) surrounding the polymeric sleeve (118, 218, 320).
A light source module (21, 21 a, 21 b), comprising: a light source unit (1, 1a) including a plurality of light-emitting diodes (LEDs) electrically connected to each other; a characteristic setting unit for setting characteristic information on electrical characteristics of the LEDs; a rectifier; a first pin base having a first electrode and a second electrode; and a second pin base having a third electrode and a fourth electrode, wherein a direct current voltage supplied from a lighting apparatus is applied between the first electrode and the second electrode, such that a constant voltage is supplied to an anode side of the LEDs of the light source unit (1, 1a), and the characteristic setting unit is connected between the first electrode and the second electrode or between the third electrode and fourth electrode, characterized in that the rectifier (1 b) is connected between the first electrode and the second electrode and is formed of LEDs. a light source unit (1, 1a) including a plurality of light-emitting diodes (LEDs) electrically connected to each other; a characteristic setting unit for setting characteristic information on electrical characteristics of the LEDs; a rectifier; a first pin base having a first electrode and a second electrode; and a second pin base having a third electrode and a fourth electrode, wherein a direct current voltage supplied from a lighting apparatus is applied between the first electrode and the second electrode, such that a constant voltage is supplied to an anode side of the LEDs of the light source unit (1, 1a), and the characteristic setting unit is connected between the first electrode and the second electrode or between the third electrode and fourth electrode, characterized in that the rectifier (1 b) is connected between the first electrode and the second electrode and is formed of LEDs.
A pattern forming apparatus that forms a pattern on a substrate, the apparatus comprising: a processing unit configured to perform a process of obtaining a position of a mark provided on the substrate by using a template for obtaining the position of the mark by being applied to optical information of the mark, wherein the processing unit is configured to decide a parameter indicating a shape of the template by performing reinforcement learning which updates the parameter so as to increase a reward for an action of changing the parameter, and to obtain the position of the mark by using the decided parameter, wherein the reward is obtained using the optical information obtained for each of a plurality of substrates. a processing unit configured to perform a process of obtaining a position of a mark provided on the substrate by using a template for obtaining the position of the mark by being applied to optical information of the mark, wherein the processing unit is configured to decide a parameter indicating a shape of the template by performing reinforcement learning which updates the parameter so as to increase a reward for an action of changing the parameter, and to obtain the position of the mark by using the decided parameter, decide a parameter indicating a shape of the template by performing reinforcement learning which updates the parameter so as to increase a reward for an action of changing the parameter, and to obtain the position of the mark by using the decided parameter, wherein the reward is obtained using the optical information obtained for each of a plurality of substrates.
A method for heat inducible production of a R6K Rep protein dependent replication origin plasmid vector, comprising: a. cloning the plasmid replication regulating R6K Rep protein into an expression vector to create a P L - Rep protein expression cassette in which said R6K Rep protein is expressed under the control of the P L promoter and said P L promoter further comprises a OL1 mutation in which repressor binding to OL1 is altered by mutation in OL1; b. integrating said P L - Rep protein expression cassette into a host strain genome to create a P L - Rep protein host strain in which expression from the said P L - Rep protein expression cassette is repressed by a temperature sensitive lambda repressor expressed from the host strain genome; c. transforming said P L - Rep protein host strain with said R6K Rep protein dependent replication origin plasmid vector; d. isolating the resultant transformed bacterial cells; e. propagating said transformed bacterial cells at 25-32°C to maintain the said R6K Rep protein dependent plasmid vector at a basal copy number; and f. inducing said transformed bacterial cells at 37-42°C to increase copy number of said R6K Rep protein dependent plasmid vector. a. cloning the plasmid replication regulating R6K Rep protein into an expression vector to create a P L - Rep protein expression cassette in which said R6K Rep protein is expressed under the control of the P L promoter and said P L promoter further comprises a OL1 mutation in which repressor binding to OL1 is altered by mutation in OL1; b. integrating said P L - Rep protein expression cassette into a host strain genome to create a P L - Rep protein host strain in which expression from the said P L - Rep protein expression cassette is repressed by a temperature sensitive lambda repressor expressed from the host strain genome; c. transforming said P L - Rep protein host strain with said R6K Rep protein dependent replication origin plasmid vector; d. isolating the resultant transformed bacterial cells; e. propagating said transformed bacterial cells at 25-32°C to maintain the said R6K Rep protein dependent plasmid vector at a basal copy number; and f. inducing said transformed bacterial cells at 37-42°C to increase copy number of said R6K Rep protein dependent plasmid vector.