mhurhangee/ep-ind-claims huggingface dataset:
A fastener system comprising: a bushing having internal threads; a reduced shank bolt having external threads in a threaded region where when assembled the last internal thread prevents the reduced shank bolt from being removed from the bushing by contacting the first external threads; characterised by further comprising: a housing having an internal bore and a recessed bore region, the bushing being accepted in the internal bore; and a snap ring received in a snap ring relief of the bushing; and a flange, wherein the flange includes a flange relief, adapted to accept and scat the snap ring when the system is fully engaged; the recessed bore region receiving the assembled snap ring such that the bushing and snap ring may slide until the snap ring contacts the area where the internal bore and the recessed bore region meet, the snap ring thereby preventing the bushing from being removed from the housing and in which position the bushing and bolt are fully retracted into the recessed bore region. a bushing having internal threads; a reduced shank bolt having external threads in a threaded region where when assembled the last internal thread prevents the reduced shank bolt from being removed from the bushing by contacting the first external threads; characterised by further comprising: a housing having an internal bore and a recessed bore region, the bushing being accepted in the internal bore; and a snap ring received in a snap ring relief of the bushing; and a flange, wherein the flange includes a flange relief, adapted to accept and scat the snap ring when the system is fully engaged; the recessed bore region receiving the assembled snap ring such that the bushing and snap ring may slide until the snap ring contacts the area where the internal bore and the recessed bore region meet, the snap ring thereby preventing the bushing from being removed from the housing and in which position the bushing and bolt are fully retracted into the recessed bore region.
An orodispersible film comprising (i) a film forming polymer, wherein the film forming polymer is polyvinyl acetate, shellac, or a methacrylate copolymer, is a hydrophobic film forming polymer, and comprises about 19-95% by weight of the orodispersible film; (ii) a disintegrant, wherein the disintegrant is carboxymethylcellulose, or a salt thereof; and (iii) polyvinyl alcohol or hydroxypropylmethyl cellulose (HPMC).
A device for positioning vessels, with (a) a holder for vessels, comprising • a series of receptacles arranged on a circular line, for a circular ring-shaped vessel chain, • a central area, arranged within the series of receptacles, and having further receptacles for single vessels containing reagents, • and means for aligning, and with (b) a carrier for single vessels, which • comprises a holding plate in the form of a circular disc or of a part of a circular disc, which has holes for single vessels at certain positions, and which • has at least one further means for aligning the carrier to the means for aligning the holder in a certain position, wherein in this position, the holes are aligned to certain further receptacles, the remaining further receptacles are covered up by the holding plate, and single vessels filled with reaction liquid can be inserted into the holes and into the further receptacles aligned thereto. (a) a holder for vessels, comprising • a series of receptacles arranged on a circular line, for a circular ring-shaped vessel chain, • a central area, arranged within the series of receptacles, and having further receptacles for single vessels containing reagents, • and means for aligning, and with • a series of receptacles arranged on a circular line, for a circular ring-shaped vessel chain, • a central area, arranged within the series of receptacles, and having further receptacles for single vessels containing reagents, • and means for aligning, and with (b) a carrier for single vessels, which • comprises a holding plate in the form of a circular disc or of a part of a circular disc, which has holes for single vessels at certain positions, and which • has at least one further means for aligning the carrier to the means for aligning the holder in a certain position, wherein in this position, the holes are aligned to certain further receptacles, the remaining further receptacles are covered up by the holding plate, and single vessels filled with reaction liquid can be inserted into the holes and into the further receptacles aligned thereto. • comprises a holding plate in the form of a circular disc or of a part of a circular disc, which has holes for single vessels at certain positions, and which • has at least one further means for aligning the carrier to the means for aligning the holder in a certain position, wherein in this position, the holes are aligned to certain further receptacles, the remaining further receptacles are covered up by the holding plate, and single vessels filled with reaction liquid can be inserted into the holes and into the further receptacles aligned thereto.
An absorbent for the selective removal of hydrogen sulfide from a fluid stream comprising carbon dioxide and hydrogen sulfide, wherein the absorbent contains an aqueous solution, comprising: a) an amine or a mixture of amines of the general formula wherein R 1 is C 1 -C 5 -alkyl; R 2 is C 1 -C 5 -alkyl; R 3 is selected from hydrogen and C 1 -C 5 -alkyl; x is an integer from 2 to 10; and b) an ether or a mixture of ethers of the general formula; wherein R 4 is C 1 -C 5 -alkyl; and y is an integer from 2 to 10; wherein R 1 and R 4 are identical; wherein the mass ratio of b) to a) is from 0.08 to 0.5. a) an amine or a mixture of amines of the general formula wherein R 1 is C 1 -C 5 -alkyl; R 2 is C 1 -C 5 -alkyl; R 3 is selected from hydrogen and C 1 -C 5 -alkyl; x is an integer from 2 to 10; and b) an ether or a mixture of ethers of the general formula; wherein R 4 is C 1 -C 5 -alkyl; and y is an integer from 2 to 10; wherein R 1 and R 4 are identical; wherein the mass ratio of b) to a) is from 0.08 to 0.5. wherein R 4 is C 1 -C 5 -alkyl; and y is an integer from 2 to 10; wherein R 1 and R 4 are identical; wherein the mass ratio of b) to a) is from 0.08 to 0.5.
A method to communicate data to a mobile station based on maximum allowable resources across a plurality of radio block periods, comprising: receiving at a network capabilities information associated with a mobile station, the capabilities information indicating a maximum allowable cumulative quantity of resources that the mobile station is capable of processing across a quantity of radio block periods; and sending data to the mobile station, using all of the maximum allowable cumulative quantity of resources in one or more radio blocks, the one or more radio blocks being less than the quantity of radio block periods. receiving at a network capabilities information associated with a mobile station, the capabilities information indicating a maximum allowable cumulative quantity of resources that the mobile station is capable of processing across a quantity of radio block periods; and sending data to the mobile station, using all of the maximum allowable cumulative quantity of resources in one or more radio blocks, the one or more radio blocks being less than the quantity of radio block periods.
A vehicular charging system charging a vehicle-mounted power storage device, said vehicle including a vehicle driving motor operated by receiving electric power from said power storage device, and an internal combustion engine used together with said motor to drive the vehicle, said vehicular charging system comprising: a charger configured to be supplied with electric power from a power supply outside a vehicle to charge said power storage device (10-1 to 10-3); a sensor (14-1 to 14-3, 16-1 to 16-3) for detecting a state of charge of said power storage device; and a charging control device for controlling said charger, wherein said charging control device is configured to stop charging of said power storage device from outside said vehicle when a predetermined stop condition is satisfied during charging of said power storage device from outside said vehicle, said charging control device is configured to calculate a first value which is proportional to an amount of electric energy required to charge said power storage device from a present state of charge to an upper limit value of the state of charge of said power storage device, in consideration of charging efficiency of said charger, and is configured to calculate a second value which is proportional to an amount of consumed fuel corresponding to a distance that can be travelled using the electric energy required to charge said power storage device from said present state of charge to said upper limit value of the state of charge of said power storage device, said charging control device is configured to calculate said first and second values repeatedly, and said stop condition includes a condition that said first value becomes larger than said second value. a charger configured to be supplied with electric power from a power supply outside a vehicle to charge said power storage device (10-1 to 10-3); a sensor (14-1 to 14-3, 16-1 to 16-3) for detecting a state of charge of said power storage device; and a charging control device for controlling said charger, wherein said charging control device is configured to stop charging of said power storage device from outside said vehicle when a predetermined stop condition is satisfied during charging of said power storage device from outside said vehicle, said charging control device is configured to calculate a first value which is proportional to an amount of electric energy required to charge said power storage device from a present state of charge to an upper limit value of the state of charge of said power storage device, in consideration of charging efficiency of said charger, and is configured to calculate a second value which is proportional to an amount of consumed fuel corresponding to a distance that can be travelled using the electric energy required to charge said power storage device from said present state of charge to said upper limit value of the state of charge of said power storage device, said charging control device is configured to calculate said first and second values repeatedly, and said stop condition includes a condition that said first value becomes larger than said second value.
A method of controlling at least a first heating element (22; 22 i) to heat a first multi-resonant microresonator (10; 70) of an optoelectronic device, the first microresonator receiving K monochromatic input optical signals, K being an integer superior or equal to 1, the first microresonator comprising at least one first output (Drop) capable of supplying a first output optical signal (S Drop), the first microresonator having a first transfer function corresponding to the ratio of the power of the first output optical signal to the power of the monochromatic input optical signals according to temperature and having several first resonance peaks, wherein each first resonance peak comprises a rising side and a falling side according to the temperature, wherein a first sensor is capable of supplying a first measurement signal representative of at least part of a power of the first output optical signal, and wherein a first error signal equal to a difference between a first reference signal and the first measurement signal is determined, wherein, in a first mode, the first heating element is controlled by a first feedback loop (20; 20 i) to lead the first microresonator to operate at a first operating point on an initial first resonance peak among said first resonance peaks, said first operating point being a stable point of equilibrium of the first feedback loop in the first mode, a first control signal (C3; C3 i) for controlling the first heating element being determined in the first mode by the first feedback loop using a first regulation operation based on the first error signal and wherein, during a second mode, the first feedback loop is made diverging so that the first operating point no longer is a stable point of equilibrium of the first feedback loop, to lead the first microresonator to operate at a second operating point, said second operating point being a stable point of equilibrium of the first feedback loop in the second mode and no longer a stable point of equilibrium of the first feedback loop in the first mode, so that, during a subsequent first mode, the first microresonator is led to operate to a third operation point on a final first resonance peak among said first resonance peaks wherein the first final resonance peak is different than the initial first resonance peak, said third operating point being a stable point of equilibrium of the first feedback loop in the first mode, the first control signal for controlling the first heating element being determined during the second mode by the first feedback loop using a second regulation operation based on the first error signal, the second regulation operation being obtained by modifying the first regulation operation.
A fish passage of a barrier building in a flowing water, comprising: - a chamber including a first and a second lockable opening, wherein the first lockable opening connects the chamber with an upper water surface of the barrier building and the second lockable opening connects the chamber to a lower water surface of the barrier building; - a turbine with an inlet and an outlet; - a first intake which connects the upper water surface with the inlet of the turbine; - a first discharge, which connects the outlet of the turbine with the lower water surface; characterized by - a second intake which connects the chamber with the inlet of the turbine; and - a first switching unit which is adapted to optionally controllably release and block the second intake. - a chamber including a first and a second lockable opening, wherein the first lockable opening connects the chamber with an upper water surface of the barrier building and the second lockable opening connects the chamber to a lower water surface of the barrier building; - a turbine with an inlet and an outlet; - a first intake which connects the upper water surface with the inlet of the turbine; - a first discharge, which connects the outlet of the turbine with the lower water surface; - a second intake which connects the chamber with the inlet of the turbine; and - a first switching unit which is adapted to optionally controllably release and block the second intake.
A method comprising: receiving a plurality of input pixels to be encoded by an encoder, the encoder comprising a base layer quantizer and an enhancement layer quantizer; selecting a plurality of candidate sets of parameters for the BLQ, wherein the BLQ is a linear quantizer and each candidate set of BLQ parameters comprises a high-clipping output parameter ( C H) and a low-clipping output parameter ( C L) defining a BLQ output data range; for each candidate set of BLQ parameters: computing with the encoder a BLQ distortion value using a distortion metric for the BLQ based on the candidate set of BLQ parameters; wherein the distortion metric for the BLQ is based on a ratio of a BLQ input data range over the BLQ output data range; computing with the encoder an ELQ distortion value using a distortion metric for the ELQ based on the candidate set of BLQ parameters; computing a joint BLQ-ELQ distortion value based on the BLQ distortion value, the ELQ distortion value, and at least in part on a number of input pixels to be quantized by the ELQ; and selecting an output BLQ parameter set among the plurality of candidate sets, wherein the output BLQ parameter set comprises the candidate set for which a computed joint BLQ-ELQ distortion value is the smallest. receiving a plurality of input pixels to be encoded by an encoder, the encoder comprising a base layer quantizer and an enhancement layer quantizer; selecting a plurality of candidate sets of parameters for the BLQ, wherein the BLQ is a linear quantizer and each candidate set of BLQ parameters comprises a high-clipping output parameter ( C H) and a low-clipping output parameter ( C L) defining a BLQ output data range; for each candidate set of BLQ parameters: computing with the encoder a BLQ distortion value using a distortion metric for the BLQ based on the candidate set of BLQ parameters; wherein the distortion metric for the BLQ is based on a ratio of a BLQ input data range over the BLQ output data range; computing with the encoder an ELQ distortion value using a distortion metric for the ELQ based on the candidate set of BLQ parameters; computing a joint BLQ-ELQ distortion value based on the BLQ distortion value, the ELQ distortion value, and at least in part on a number of input pixels to be quantized by the ELQ; and computing with the encoder a BLQ distortion value using a distortion metric for the BLQ based on the candidate set of BLQ parameters; wherein the distortion metric for the BLQ is based on a ratio of a BLQ input data range over the BLQ output data range; computing with the encoder an ELQ distortion value using a distortion metric for the ELQ based on the candidate set of BLQ parameters; computing a joint BLQ-ELQ distortion value based on the BLQ distortion value, the ELQ distortion value, and at least in part on a number of input pixels to be quantized by the ELQ; and selecting an output BLQ parameter set among the plurality of candidate sets, wherein the output BLQ parameter set comprises the candidate set for which a computed joint BLQ-ELQ distortion value is the smallest.
A method for the parallel alignment of easily entangling screws of ferromagnetic material, which are suitable for wood, particle boards or screw anchors and referred to as wood screws below, for the subsequent or simultaneous aligned packaging into packaging containers by using an aligning apparatus that is provided in the desired manner and comprises a coil, which can be operated with an electric alternating or direct current and has an axis and a coil center, wherein the axis extends through a cavity of the coil, which is delimited toward the coil with a contour wall, and wherein closed magnetic field lines, which traverse the cavity parallel to the axis, are produced when the coil is acted upon with a current, with said method comprising the following steps: a) positioning a batch of wood screws to be processed at a location in the effective range of the producible magnetic field lines near the axis of the coil, wherein the location preferably is positioned higher than the coil center; b) applying a predefined current profile to the coil in order to produce magnetic field lines such that the wood screws swirl into the cavity due to the magnetic effect, in the process align parallel to one another lengthwise along the magnetic field lines and ultimately adhere on the contour wall in parallel alignment to one another; c) continuously lowering the current profile on the coil, wherein the wood screws move downward along the contour wall due to their own weight and preferably accumulate in this lowered position while their alignment is preserved; d) transporting away the aligned wood screws, preferably to a packaging station; wherein steps a) to d) are repeated until the method is interrupted and the next step a) can be carried out simultaneously with the last step d). a) positioning a batch of wood screws to be processed at a location in the effective range of the producible magnetic field lines near the axis of the coil, wherein the location preferably is positioned higher than the coil center; b) applying a predefined current profile to the coil in order to produce magnetic field lines such that the wood screws swirl into the cavity due to the magnetic effect, in the process align parallel to one another lengthwise along the magnetic field lines and ultimately adhere on the contour wall in parallel alignment to one another; c) continuously lowering the current profile on the coil, wherein the wood screws move downward along the contour wall due to their own weight and preferably accumulate in this lowered position while their alignment is preserved; d) transporting away the aligned wood screws, preferably to a packaging station;
Coolant, comprising at least one glycol water at least one azole derivative at least one ester of orthosilicic acid or alkoxy alkylsilane at least one tertiary amine bearing at least one 2-hydroxyethyl- or 2-hydroxypropyl-group at least one monocarboxylic acid optionally at least one silicophosphonate optionally at least one further coolant additive wherein - the molar ratio between tertiary amine and monocarboxylic acid is from 1: 0.1 to 1: 0.6 - components to are present in amounts so that the coolant exhibits an electrical conductivity of less than 50, preferably less than 45 μS/cm. at least one glycol water at least one azole derivative at least one ester of orthosilicic acid or alkoxy alkylsilane at least one tertiary amine bearing at least one 2-hydroxyethyl- or 2-hydroxypropyl-group at least one monocarboxylic acid optionally at least one silicophosphonate optionally at least one further coolant additive - the molar ratio between tertiary amine and monocarboxylic acid is from 1: 0.1 to 1: 0.6 - components to are present in amounts so that the coolant exhibits an electrical conductivity of less than 50, preferably less than 45 μS/cm.
A method for generating an aqueous-based leaching solution for precious metal, the method comprising: combining an iodide salt material, a carboxylic acid material, and water in an agitated tank, thereby producing a first mixture; passing the first mixture through an electrochemical cell, measuring an oxidation reduction potential of the first mixture exiting the electrochemical cell; charaterized in that; the electrochemical cell includes conductive diamond electrodes; and continuing to pass the first mixture through the electrochemical cell until the oxidation reduction potential is at least 540 mV standard hydrogen electrode. combining an iodide salt material, a carboxylic acid material, and water in an agitated tank, thereby producing a first mixture; passing the first mixture through an electrochemical cell, measuring an oxidation reduction potential of the first mixture exiting the electrochemical cell; charaterized in that; the electrochemical cell includes conductive diamond electrodes; and continuing to pass the first mixture through the electrochemical cell until the oxidation reduction potential is at least 540 mV standard hydrogen electrode.
Power supply system, especially for a floating vessel, comprising at least two segregated power sections (1a,1b), each constituting a main redundancy group, and each comprising at least one of a power generator adapted to generate an electrical power to a main switch board (4a,4b) and a power consumer, such as a propulsion unit, drawing power from said switch board, and a bus-tie connecting the main switch boards (4a,4b) of each redundancy group (1a,1b), the system also comprising at least two segregated directly powered thruster redundancy groups (2a,2b), each including a thruster drive, each being connected to the main switch board (4a,4b) of a corresponding one of the main redundancy groups (1a,1b), respectively, the thruster redundancy groups including AC/DC converter means and a DC interconnection (9,10) connecting the thruster redundancy groups thus proving a loop structure, the thruster redundancy groups being able to draw power from both main switchboards, characterised in that the power supply system includes at least one indirectly powered redundancy group being connected in said loop between said directly powered redundancy groups (2a,2b) with the DC interconnection (9,10) of said thruster redundancy groups.