mhurhangee/ep-ind-claims huggingface dataset:
A method for the blow moulding of containers wherein, after having been conditioned thermally along a transport path in the area of a heating section, a preform made of thermoplastic material is moulded in a blow mould by the action of blowing pressure to form the container, characterised in that - during the action of the blowing pressure, the container is blown with an actual outline which differs from a desired outline of the container such that the actual outline of the container essentially takes the desired outline after having been demoulded and shrunken back, wherein the inner outline of the blow mould is, at least in certain regions, formed such that it differs from a desired curve of the outer outline of the container. - during the action of the blowing pressure, the container is blown with an actual outline which differs from a desired outline of the container such that the actual outline of the container essentially takes the desired outline after having been demoulded and shrunken back, wherein the inner outline of the blow mould is, at least in certain regions, formed such that it differs from a desired curve of the outer outline of the container.
A storage battery management device to be provided in battery unit (23-1, 23-M) in a storage battery system, to manage the battery unit, the storage battery system including battery units (23-1, 23-M) and a power adjustment device connected to the battery units (23-1, 23-M) via respective contactors and connected to a main circuit, the battery units each including battery cells (31-1, 31-24) and the storage battery management device, the storage battery management device comprising: a minimum value determination unit that acquires a maximum cell voltage and a minimum cell voltage of the battery cells (31-1, 31-24) of each of the battery units (23-1, 23-M), and determines a minimum value from the minimum cell voltage of one of the battery units which exhibits a difference equal to or less than a certain value between a maximum cell voltage and a minimum cell voltage; and a controller that sets the minimum value of the minimum cell voltage determined by the minimum value determination unit as a cell balance target voltage, and controls a voltage of the battery cells of the battery unit to match the cell balance target voltage. a minimum value determination unit that acquires a maximum cell voltage and a minimum cell voltage of the battery cells (31-1, 31-24) of each of the battery units (23-1, 23-M), and determines a minimum value from the minimum cell voltage of one of the battery units which exhibits a difference equal to or less than a certain value between a maximum cell voltage and a minimum cell voltage; and a controller that sets the minimum value of the minimum cell voltage determined by the minimum value determination unit as a cell balance target voltage, and controls a voltage of the battery cells of the battery unit to match the cell balance target voltage.
A method for quantitative polymerase chain reaction (qPCR), the method comprising combining a nucleic acid with a polymerase chain reaction mixture to form a sample, the polymerase chain reaction mixture comprising a thermostable polymerase, at least one primer oligonucleotide, and a first and a second double stranded DNA (dsDNA) binding dye, the first dsDNA binding dye is V11-02190 and the second dsDNA binding dye is selected from V11-03001, Eva Green@, or LC Green@, performing the polymerase chain reaction on the sample to amplify the nucleic acid, to result in an amplified dsDNA, the polymerase chain reaction comprising subjecting the sample to a plurality of temperature cycles, each cycle further comprising exposing the sample to light at a wavelength absorbed by each of the dsDNA binding dyes and detecting a fluorescent emission intensity from the dsDNA binding dyes where the intensity is proportional to the quantity of amplified nucleic acid in the sample, where the dsDNA binding dyes have substantially similar excitation and emission spectra such that each of the two dsDNA binding dyes can be excited, and their resulting emissions detected, simultaneously. combining a nucleic acid with a polymerase chain reaction mixture to form a sample, the polymerase chain reaction mixture comprising a thermostable polymerase, at least one primer oligonucleotide, and a first and a second double stranded DNA (dsDNA) binding dye, the first dsDNA binding dye is V11-02190 and the second dsDNA binding dye is selected from V11-03001, Eva Green@, or LC Green@, performing the polymerase chain reaction on the sample to amplify the nucleic acid, to result in an amplified dsDNA, the polymerase chain reaction comprising subjecting the sample to a plurality of temperature cycles, each cycle further comprising exposing the sample to light at a wavelength absorbed by each of the dsDNA binding dyes and detecting a fluorescent emission intensity from the dsDNA binding dyes where the intensity is proportional to the quantity of amplified nucleic acid in the sample, where the dsDNA binding dyes have substantially similar excitation and emission spectra such that each of the two dsDNA binding dyes can be excited, and their resulting emissions detected, simultaneously.
Locking head for telescopic cylinder of a crane jib comprising a plurality of telescopic sections, which has the following features: a) Actuating elements (4, 5) for actuating the locking of successive telescope sectionsare mounted in a housing; b) The actuating elements (4, 5) each comprise a rack portion (19, 20) or are connected to one; c) A positioning means is provided for moving the actuating elements (4, 5) simultaneously; d) A drive element is provided for driving the positioning means; e) Two cylinder bolts (17, 18) are movable by translation in the housing, for locking the locking head with a telescope section; f) A bolt drive which is movable by translation is provided for actuating the cylinder bolts (17, 18); g) The actuating elements (4, 5) cannot be moved simultaneously with the cylinder bolts (17, 18), characterised in that the positioning means is formed by two pinion shafts (21, 22) each of which engages with a rack portion (19, 20) of an actuating element (4, 5) and on the other hand with rack portions (23, 24) of the common drive element, the drive element being arranged between the pinion shafts (21, 22). a) Actuating elements (4, 5) for actuating the locking of successive telescope sectionsare mounted in a housing; b) The actuating elements (4, 5) each comprise a rack portion (19, 20) or are connected to one; c) A positioning means is provided for moving the actuating elements (4, 5) simultaneously; d) A drive element is provided for driving the positioning means; e) Two cylinder bolts (17, 18) are movable by translation in the housing, for locking the locking head with a telescope section; f) A bolt drive which is movable by translation is provided for actuating the cylinder bolts (17, 18); g) The actuating elements (4, 5) cannot be moved simultaneously with the cylinder bolts (17, 18),
An optical fiber connector assembly, comprising a ferrule and an optical fiber, wherein the ferrule is sleeved on the optical fiber; wherein the optical fiber connector assembly comprises an inner jacket element, and an outer jacket element; wherein the inner jacket element is sleeved on one end of the ferrule; the outer jacket element is sleeved on the inner jacket element and the ferrule; one end of the outer jacket element is slideably connected to the inner jacket element; wherein an inner wall of an other end of the outer jacket element is provided with a bump, wherein the bump is a cylindrical bump; wherein the ferrule comprises a buckling elastic piece, wherein the buckling elastic piece is fixed to one end of the ferrule away from the inner jacket element and the buckling elastic piece extends towards the inner jacket element; and characterized in that: wherein an inner wall of said other end of the outer jacket element is further provided with a wedge block disposed along the circumferential direction of the outer jacket element; where the wedge block is configured to press the buckling elastic piece when the outer jacket element is in a first position;wherein the optical fiber connector assembly further comprises dust cap,wherein the dust cap comprises a first chute; wherein the dust cap is latched over the optical fiber connector assembly, if the outer jacket element is rotated, the wedge block presses the buckling elastic piece lower to insert the ferrule into the connector assembly receiving cavity, wherein the bump of an optical fiber connector assembly slides into the first chute of the connector assembly dust cap; wherein the outer jacket element is rotated, the bump slides to a rear end of the first chute and the wedge block is detached from the buckling elastic piece and the buckling elastic piece snaps in the first notch. wherein an inner wall of said other end of the outer jacket element is further provided with a wedge block disposed along the circumferential direction of the outer jacket element; where the wedge block is configured to press the buckling elastic piece when the outer jacket element is in a first position;wherein the optical fiber connector assembly further comprises dust cap,wherein the dust cap comprises a first chute; wherein the dust cap is latched over the optical fiber connector assembly, if the outer jacket element is rotated, the wedge block presses the buckling elastic piece lower to insert the ferrule into the connector assembly receiving cavity, wherein the bump of an optical fiber connector assembly slides into the first chute of the connector assembly dust cap; wherein the outer jacket element is rotated, the bump slides to a rear end of the first chute and the wedge block is detached from the buckling elastic piece and the buckling elastic piece snaps in the first notch.
A flat panel speaker comprising: a flat panel; a plurality of vibrators (21, 22) that are disposed on a back surface of the flat panel and cause the flat panel to vibrate; and a vibration controlling member fixed to the back surface of the flat panel and partitions the back surface of the flat panel into a first partition region including a first vibration point and a second partition region including a second vibration point, wherein, on the back surface of the flat panel, a position contacting a first vibrator among the plurality of vibrators is the first vibration point and a position contacting a second vibrator, different from the first vibrator, among the plurality of vibrators is the second vibration point, wherein the first partition region and the second partition region define a separate closed area by the vibration controlling member on the back surface of the flat panel, respectively. a flat panel; a plurality of vibrators (21, 22) that are disposed on a back surface of the flat panel and cause the flat panel to vibrate; and a vibration controlling member fixed to the back surface of the flat panel and partitions the back surface of the flat panel into a first partition region including a first vibration point and a second partition region including a second vibration point, wherein, on the back surface of the flat panel, a position contacting a first vibrator among the plurality of vibrators is the first vibration point and a position contacting a second vibrator, different from the first vibrator, among the plurality of vibrators is the second vibration point, wherein the first partition region and the second partition region define a separate closed area by the vibration controlling member on the back surface of the flat panel, respectively.
A pressure sensing display module, having a display area and a wiring area surrounding a periphery of the display area, the pressure sensing display module comprising: a force sensitive unit provided in the wiring area, wherein the force sensitive unit is a force sensitive resistor; a display unit provided corresponding to the display area, wherein information generated by the display unit is displayed on the display area; a first substrate and a second substrate, wherein the force sensitive unit is located between the first substrate and the second substrate, light emitted by the display unit goes through the second substrate and the first substrate sequentially; a spacer layer located between the first substrate and the second substrate, wherein the spacer layer comprises a hollow area corresponding to the display area, the force sensitive unit is located on a side of the second substrate adjacent to the first substrate, and a thickness of the spacer layer is greater than a thickness of the force sensitive unit; wherein the first substrate is provided with an ink shielding layer on a side thereof adjacent to the second substrate, the ink shielding layer corresponds to the force sensitive unit and is configured to shield the force sensitive unit; wherein a sum of the thickness of the force sensitive unit and a thickness of the ink shielding layer is less than the thickness of the spacer layer, and a gap is formed between the force sensitive unit and the ink shielding layer. a force sensitive unit provided in the wiring area, wherein the force sensitive unit is a force sensitive resistor; a display unit provided corresponding to the display area, wherein information generated by the display unit is displayed on the display area; a first substrate and a second substrate, wherein the force sensitive unit is located between the first substrate and the second substrate, light emitted by the display unit goes through the second substrate and the first substrate sequentially; a spacer layer located between the first substrate and the second substrate, wherein the spacer layer comprises a hollow area corresponding to the display area, the force sensitive unit is located on a side of the second substrate adjacent to the first substrate, and a thickness of the spacer layer is greater than a thickness of the force sensitive unit; wherein the first substrate is provided with an ink shielding layer on a side thereof adjacent to the second substrate, the ink shielding layer corresponds to the force sensitive unit and is configured to shield the force sensitive unit; wherein a sum of the thickness of the force sensitive unit and a thickness of the ink shielding layer is less than the thickness of the spacer layer, and a gap is formed between the force sensitive unit and the ink shielding layer.
A station (130, 140) comprising: circuitry (1710; 1730) which, in operation, is configured to negotiate Wake-Up Radio, WUR, parameters with an access point, AP, and switch from WUR mode suspend to WUR mode by initiating and completing a WUR mode setup frame exchange; and a transmitter which, in operation, is configured to transmit a WUR mode setup frame to an the AP in the WUR mode setup frame exchange, wherein the circuitry (1720; 1730) is configured to maintain WUR parameters negotiated with the AP after entering the WUR mode suspend from the WUR mode, wherein the circuitry (1710; 1730) is configured to switch from WUR mode suspend to WUR mode after negotiation of WUR power management service, wherein an action type field of a WUR mode element contained in the WUR mode setup frame is configured to indicate that the station (130, 140) enters the WUR mode, characterized in that the WUR mode element is used to negotiate a first set of parameters related to WUR operation, and the station (130, 140) further comprises a receiver which, in operation, is configured to receive a beacon frame containing a WUR operation element which contains a second set of parameters necessary to support WUR operation, wherein each of the parameters in the first set is different from each of the parameters in the second set. circuitry (1710; 1730) which, in operation, is configured to negotiate Wake-Up Radio, WUR, parameters with an access point, AP, and switch from WUR mode suspend to WUR mode by initiating and completing a WUR mode setup frame exchange; and a transmitter which, in operation, is configured to transmit a WUR mode setup frame to an the AP in the WUR mode setup frame exchange, wherein the circuitry (1720; 1730) is configured to maintain WUR parameters negotiated with the AP after entering the WUR mode suspend from the WUR mode, wherein the circuitry (1710; 1730) is configured to switch from WUR mode suspend to WUR mode after negotiation of WUR power management service, wherein an action type field of a WUR mode element contained in the WUR mode setup frame is configured to indicate that the station (130, 140) enters the WUR mode, characterized in that the WUR mode element is used to negotiate a first set of parameters related to WUR operation, and the station (130, 140) further comprises a receiver which, in operation, is configured to receive a beacon frame containing a WUR operation element which contains a second set of parameters necessary to support WUR operation, wherein each of the parameters in the first set is different from each of the parameters in the second set.
A system for controlling downforce on at least one of a plurality of tires on a vehicle, the vehicle having at least one forward axle and at least one rearward axle spaced apart from the forward axle, each axle having at least one right tire and at least one left tire, an axle downforce adjustment mechanism configured to adjust the downforce of at least one tire, the system comprising: a sensor attached to the vehicle configured to detect vehicle turns; a vehicle axle control unit; wherein said sensor is configured to send a sensor signal to the vehicle axle control unit; wherein the vehicle axle control unit is configured to use the sensor signal to determine if the vehicle is turning; characterized in that upon determining that the vehicle is turning, the vehicle axle control unit is configured to send a control signal to the axle downforce adjustment mechanism to reduce the downforce of at least one of the tires. a sensor attached to the vehicle configured to detect vehicle turns; a vehicle axle control unit; wherein said sensor is configured to send a sensor signal to the vehicle axle control unit; wherein the vehicle axle control unit is configured to use the sensor signal to determine if the vehicle is turning; characterized in that upon determining that the vehicle is turning, the vehicle axle control unit is configured to send a control signal to the axle downforce adjustment mechanism to reduce the downforce of at least one of the tires.
A method of performing a basophil analysis with an automated hematology analyzer, the method comprising: (a) diluting a sample of whole blood containing a plurality of basophils and lymphocytes with a reagent, wherein the reagent includes a red blood cell lysing agent and a cell membrane permeable, nucleic acid binding fluorescent dye; (b) incubating the diluted blood sample of step (a) for an incubation period of less than about 30 seconds, at a temperature ranging from about 30°C to about 50°C; (c) delivering the incubated sample from step (b) to a flow cell in the hematology analyzer; (d) exciting the incubated sample from step (c) with an excitation source as the incubated sample traverses the flow cell; (e) collecting a plurality of light scatter signals and a fluorescence emission signal from the excited sample; (f) prior to performing a basophil analysis, screening for nuclei-containing events comprising white blood cells (WBCs) and nucleated red blood cells (nRBCs) to eliminate interference from unlysed RBCs and RBC fragments by means of the fluorescent dye and a fluorescence trigger, wherein the fluorescence trigger is set between fluorescence emission signals from RBCs and fluorescence emission signals from WBCs and nRBCs; and (g) performing a basophil cluster analysis on the nuclei-containing events of step (f) based on all the signals collected in step (e). (a) diluting a sample of whole blood containing a plurality of basophils and lymphocytes with a reagent, wherein the reagent includes a red blood cell lysing agent and a cell membrane permeable, nucleic acid binding fluorescent dye; (b) incubating the diluted blood sample of step (a) for an incubation period of less than about 30 seconds, at a temperature ranging from about 30°C to about 50°C; (c) delivering the incubated sample from step (b) to a flow cell in the hematology analyzer; (d) exciting the incubated sample from step (c) with an excitation source as the incubated sample traverses the flow cell; (e) collecting a plurality of light scatter signals and a fluorescence emission signal from the excited sample; (f) prior to performing a basophil analysis, screening for nuclei-containing events comprising white blood cells (WBCs) and nucleated red blood cells (nRBCs) to eliminate interference from unlysed RBCs and RBC fragments by means of the fluorescent dye and a fluorescence trigger, wherein the fluorescence trigger is set between fluorescence emission signals from RBCs and fluorescence emission signals from WBCs and nRBCs; and (g) performing a basophil cluster analysis on the nuclei-containing events of step (f) based on all the signals collected in step (e).
A pharmaceutical composition comprising a recombinant adeno-associated virus carrying nucleic acid sequence encoding a retinitis pigmentosa GTPase regulator (RPGR) gene product, under the control of regulatory sequences which express the gene product-in photoreceptor cells, wherein the nucleic acid sequence is SEQ ID NO: 1, or a codon optimized sequence thereof.
A pneumatic system operation control device configured to variably control a rotational speed of an electric motor for driving an air compressor so that a supply pressure to a terminal device becomes constant using a measurement value of a discharge pressure of the air compressor and a measurement value of the supply pressure to the terminal device, the pneumatic system operation control device comprising a measurement value storage unit configured to store the discharge pressure measurement value and the supply pressure measurement value; the pneumatic system operation control device characterized by further comprising: an air piping network model input unit configured to receive an air piping network model composed of data for calculating air flow in an air piping network, the air piping network being a path for supplying compressed air from the air compressor to the terminal device, and the air piping network model includes data defining connection relationship between the equipment constituting the air piping network, data defining attributes of appliance, and data for calculating the discharge pressure of the air compressor; an air piping network model storage unit configured to store the air piping network model; a terminal device flow rate calculation unit configured to calculate an air flow rate supplied to the terminal device using the discharge pressure measurement value, the supply pressure measurement value, and the air piping network model; a terminal device flow rate storage unit configured to store the air flow rate; a control set value calculation unit configured to calculate an updating value for a control set value using a control set value for variably controlling the rotational speed of the electric motor for driving the air compressor, the air flow rate and the air piping network model; a control set value storage unit configured to store the updating value, and a control set value updating command value generation unit configured to generate a command value for updating a control set value for variably controlling the rotational speed of the electric motor for driving the air compressor using the updating value.