mhurhangee/ep-ind-claims huggingface dataset:
An electrode manufacturing facility comprising: a dryer; a solvent collection device causing an organic solvent contained in an exhaust gas expelled from the dryer to dissolve into water to collect the organic solvent; a first pipe for sending the exhaust gas expelled from the dryer to the solvent collection device; an outside air inlet pipe for introducing outside air and sending the air to the dryer; a heat exchanger configured to exchange heat between the first pipe and the outside air inlet pipe; and a second pipe, being connected to a pipe to which the exhaust gas after having passed through the solvent collection device is expelled and to a portion of the outside air inlet pipe that is upstream of the heat exchanger, for sending at least a portion of the exhaust gas after having passed through the solvent collection device to the outside air inlet pipe, wherein: the dryer includes: a drying furnace; a heater for heating the air supplied through the outside air inlet pipe and supplying the air into the drying furnace; and a conveyor device conveying a sheet-shaped current collector coated with a mixture slurry in which electrode active material particles are dispersed in an organic solvent, along a predetermined conveyance passage in the drying furnace. a dryer; a solvent collection device causing an organic solvent contained in an exhaust gas expelled from the dryer to dissolve into water to collect the organic solvent; a first pipe for sending the exhaust gas expelled from the dryer to the solvent collection device; an outside air inlet pipe for introducing outside air and sending the air to the dryer; a heat exchanger configured to exchange heat between the first pipe and the outside air inlet pipe; and a second pipe, being connected to a pipe to which the exhaust gas after having passed through the solvent collection device is expelled and to a portion of the outside air inlet pipe that is upstream of the heat exchanger, for sending at least a portion of the exhaust gas after having passed through the solvent collection device to the outside air inlet pipe, wherein: the dryer includes: a drying furnace; a heater for heating the air supplied through the outside air inlet pipe and supplying the air into the drying furnace; and a conveyor device conveying a sheet-shaped current collector coated with a mixture slurry in which electrode active material particles are dispersed in an organic solvent, along a predetermined conveyance passage in the drying furnace. a drying furnace; a heater for heating the air supplied through the outside air inlet pipe and supplying the air into the drying furnace; and a conveyor device conveying a sheet-shaped current collector coated with a mixture slurry in which electrode active material particles are dispersed in an organic solvent, along a predetermined conveyance passage in the drying furnace.
A hydraulic line between a master cylinder and a slave cylinder, in particular in the form of a release mechanism secured to the cover, wherein at least one means for an actuating pressure acting on said slave cylinder via said master cylinder when a clutch pedal is actuated is integrated in the hydraulic line, wherein the means is configured in the form of a pressure intensifier, wherein the pressure intensifier has a first connection (21.2) to the master cylinder and a second connection (21.2) to the slave cylinder and wherein an actuating pressure of the master cylinder can be reduced by means of a piston to a lower actuating pressure acting on the slave cylinder when a clutch pedal is actuated, characterised in that the piston is integrated in a housing which has the first connection (21.1) to the master cylinder and has the second connection (21.2) to the slave cylinder and in that the piston is arranged to be axially displaceable in the housing and has two different large active areas, wherein a first active area is arranged on the side of the master cylinder and a second active area, which is larger than the first active area, is arranged on the side of the slave cylinder, so that the pressure intensifier reduces the actuating pressure to the pressure while simultaneously increasing the active area on the slave cylinder, and in that the pressure intensifier has a venting means that leads from the slave cylinder side to the master cylinder side and in that the venting means is formed by at least one closable gap between the piston and the housing, so that a material flow from the slave cylinder side to the master cylinder side that ensures ventilation can be realised when the clutch pedal is not actuated, such that air rises from the slave cylinder side via the gap in the direction of the master cylinder side, and in that, when the clutch is actuated, the gap is sealed, whereby the master and slave cylinder sides are separated into two systems.
An isolated polypeptide having cellobiohydrolase activity selected from the group consisting of: (a) a polypeptide having at least 90% sequence identity to amino acids 19 to 455 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 90% sequence identity to nucleotides 55 to 603, 668 to 1235, 1311 to 1507 of SEQ ID NO: 1 or the cDNA sequence thereof; and (c) a fragment of the polypeptide of (a) or (b) that has cellobiohydrolase activity. (a) a polypeptide having at least 90% sequence identity to amino acids 19 to 455 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 90% sequence identity to nucleotides 55 to 603, 668 to 1235, 1311 to 1507 of SEQ ID NO: 1 or the cDNA sequence thereof; and (c) a fragment of the polypeptide of (a) or (b) that has cellobiohydrolase activity.
Motor vehicle lock comprising a locking mechanism which includes a rotary latch with a rotary latch mouth and a pawl, operating lever means, an electric drive motor designed to operate the locking mechanism and/or the operating lever means and a box-shaped lock housing in which the locking mechanism, the operating lever means and the electric drive motor are accommodated, wherein on one of its side edges the box-shaped lock housing has a slit-like recess which extends in the direction of the centre of the lock housing, wherein an insertion cover has a receiving pocket which on one side edge has an access opening and which on the side edge opposite the access opening has a slit extending in the direction of the centre of the receiving pocket, wherein the lock housing at least in sections is arranged inserted with the slit-like recess at the front through the access opening into the receiving pocket of the insertion cover in such a way that the rotary latch mouth can be swivelled into both the slit-like recess of the lock housing as well as into the slit of the receiving pocket to fix a closing part of the motor vehicle, wherein the lock housing has a motor mounting space, for bearing the electric drive motor, which is arranged on the side of the lock housing opposite the slit-like recess, wherein the motor mounting space comprises at least two bearing points (28a, 28b) for bearing the drive motor and in the direction of the slit-like recess comprises a through opening for introducing the electric drive motor into the motor mounting space characterised in that the insertion cover comprises a motor receiving chamber which is designed to be open for introducing the electric drive motor into the motor receiving chamber in a direction facing away from the slit, wherein the motor mounting space and the motor receiving chamber surround the electric drive motor.
Hydraulic submarine clamping cylinder, having a differential cylinder whose piston head space can be filled with pressurized liquid for the purpose of applying a clamping force, wherein the piston head space is delimited by a piston, to which a piston rod is fastened, and having elasticity for long-term maintenance of a clamping force, wherein the elasticity can be transmitted by the pressurized liquid, confined within the piston head space, from there directly to the piston rod via the piston, wherein the elasticity is generated by means of a fluid spring which is formed by a volume filled with a gas, characterized in that the volume is arranged in a bladder accumulator which is connected to the piston head space and which is received in an extension of the piston head space.
Method for tracing communication or power cables, characterised in that during the manufacture of a cable, a marking support (2; 12) is inserted into the latter, said support (2; 12) bearing, regularly distributed lengthwise along the cable, a marking that bears information of which an identification portion is repeated in said length of the cable and of which another iterative portion (3b, 3c; 13b, 13c) is different for each marking zone and allows for the identification of said zone, and in that during an installation of a portion of cable in a network, information concerning the iterative portion (3b, 3c; 13b, 13c) is read on this support, as well as information concerning the identification portion in the vicinities of the ends of said portion and this information (3a, 3b, 3c; 13b, 13c) is memorised in a database (8; 18) that lists the various portions of cable of the network by associating them with their physical position in the latter, said database (8; 18) being queried later using marking information read on the support, in order to retrieve the physical assignment position in the network of the cable portion.
A copper/ceramic bonded body formed by bonding a copper member, which is formed of copper or a copper alloy, and a ceramic member, wherein a ratio D1/D0 is 0.60 or less, D0 being an average crystal grain size of the entire copper member, D1 being an average crystal grain size of the copper member at a position 50 μm from a bonding surface with the ceramic member, D0 and D1 being obtained by observing a cross-section of the copper member along a laminating direction.
A training device for training tracheal suctioning, the training device comprising: a tracheal core adapted to be arranged within a tracheal, nasal or oral cavity of a medical training simulator, said tracheal core being coupled to and forming a duct for ventilation air with the airways of the simulator; and an insert adapted to be inserted into the core, the insert forming a reservoir for simulated mucus, said insert providing access for a suction hose to said reservoir.
A signal processing apparatus comprising: a control data generation unit configured to generate control data, which is for controlling frequency modulation to a carrier signal using digital data to be transmitted, and for suppressing a time average of a fluctuation amount of a frequency modulation amount more than it would be suppressed in a case in which the frequency modulation to the carrier signal is controlled using the digital data; a frequency modulation unit configured to perform the frequency modulation to the carrier signal on the basis of the control data generated by the control data generation unit; and a transmission unit configured to transmit, as a transmission signal, the carrier signal to which the frequency modulation is performed by the frequency modulation unit, wherein the control data generation unit comprises: an edge detection unit configured to detect an edge at which a value of the digital data is changed; and an edge data generation unit configured to generate, as the control data, edge data indicating a position of the edge detected by the edge detection unit at a time interval shorter than a time interval of the edge in the digital data. a control data generation unit configured to generate control data, which is for controlling frequency modulation to a carrier signal using digital data to be transmitted, and for suppressing a time average of a fluctuation amount of a frequency modulation amount more than it would be suppressed in a case in which the frequency modulation to the carrier signal is controlled using the digital data; a frequency modulation unit configured to perform the frequency modulation to the carrier signal on the basis of the control data generated by the control data generation unit; and a transmission unit configured to transmit, as a transmission signal, the carrier signal to which the frequency modulation is performed by the frequency modulation unit, wherein the control data generation unit comprises: an edge detection unit configured to detect an edge at which a value of the digital data is changed; and an edge data generation unit configured to generate, as the control data, edge data indicating a position of the edge detected by the edge detection unit at a time interval shorter than a time interval of the edge in the digital data. an edge detection unit configured to detect an edge at which a value of the digital data is changed; and an edge data generation unit configured to generate, as the control data, edge data indicating a position of the edge detected by the edge detection unit at a time interval shorter than a time interval of the edge in the digital data.
A turbine engine comprising: a compressor; a combustor; a turbine, a gas flowpath passing consecutively through the compressor, combustor, and turbine; and an inlet member along the gas flowpath upstream of the compressor, wherein the inlet member comprises a unitarily-formed single piece combination of: a three dimensional lattice portion; and a nose cap body surrounding the lattice portion, characterised in that: the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm. a compressor; a combustor; a turbine, a gas flowpath passing consecutively through the compressor, combustor, and turbine; and an inlet member along the gas flowpath upstream of the compressor, wherein the inlet member comprises a unitarily-formed single piece combination of: a three dimensional lattice portion; and a nose cap body surrounding the lattice portion, characterised in that: the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm. a three dimensional lattice portion; and a nose cap body surrounding the lattice portion, characterised in that: the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm. the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm.
A method for subtracting background light from an exposure value of a first pixel in an imaging array, said first pixel receiving a reflection of a spot from a scenery illuminated by a periodically pulsed pattern of distinct spots, said periodically pulsed pattern comprising in alternation an illuminated phase and a non-illuminated phase, the method comprising: - accumulating in said first pixel a charge in proportion to a first quantity of incident light, received in said first pixel while detecting said spot during a predetermined amount of time; and - decreasing said charge in proportion to a second quantity of incident light received during said predetermined amount of time in absence of said spot; wherein said second quantity of incident light comprises light received, during said accumulating, in a second pixel of said pixel array, said second pixel being at a sufficient distance from said first pixel so as not to be illuminated by said spot. - accumulating in said first pixel a charge in proportion to a first quantity of incident light, received in said first pixel while detecting said spot during a predetermined amount of time; and - decreasing said charge in proportion to a second quantity of incident light received during said predetermined amount of time in absence of said spot;
An acrylic emulsion pressure-sensitive adhesive composition comprising a copolymer which is prepared by emulsion polymerization of a monomer mixture comprising a (meth)acrylic acid ester-based monomer, a vinyl-based monomer, and an unsaturated carboxylic acid-based monomer in the presence of a polymeric emulsifier which is represented by the following Chemical Formula 1 and has a degree of hydration of 75 % to 99 %, represented by the following Equation 1, and a number average molecular weight, determined by gel permeation chromatography as indicated in the experimental section, of 1,000 g/mol to 8,000 g/mol: Degree of hydration = m/ m + n ∗ 100, wherein, in Chemical Formula 1 and Equation 1, m and n represent the number of moles of repeating units constituting the polymer.
A system for proliferation of stem cells in vitro in repositories or cellular cultures laboratories, by local application of an extremely low frequency magnetic field comprised by a generator for producing a sinusoidal non harmonic extremely low frequency current signal, and at least a resonating medium conected connected to the generator, wherein, the generator provides a constant sinusoidal non harmonic extremely low frequency current signal which has a value IRMS= 0,195 A, one predetermined frequency chosen substantially from the range between 7.65 Hz and 7.75 Hz, and an induction of the said magnetic field substantially which has a value BRM s = 0.75 mT at a distance of 3 mm from the solenoid surface of the resonating medium, with harmonics substantially inferior to 0,2%, comprising: a quartz oscillator which generates a rectangular signal, initially of a high precision frequency, which is successively divided through an first integrated circuit at the output of which a desired frequency between 3 and 30 Hz is obtained, and through a 8 order Butterworth filter-type integrated circuit by means of which the rectangular signal is converted into a sinusoidal signal, and an multistage signal attenuator to provide only a current value to determine an induction in the range from 0.25mT-2mT, each stage of the attenuator leading to an increase by 0.25mT of the induction of the magnetic field obtained at an emitter of the resonating medium and wherein at least one resonance medium operably connected to the generator, comprises at least a coil member having number of loops wounded about an emitter made of paramagnetic material, the resonance medium being subjected to said current signal which has the one predetermined optimal frequency chosen substantially from the range between 7.65 Hz and 7.75 Hz, and, the induction of the said magnetic field substantially has a value B RMS 0.75 mT at a distance of 3 mm from the solenoid surface of the resonating medium, with harmonics substantially inferior to 0,2%; a quartz oscillator which generates a rectangular signal, initially of a high precision frequency, which is successively divided through an first integrated circuit at the output of which a desired frequency between 3 and 30 Hz is obtained, and through a 8 order Butterworth filter-type integrated circuit by means of which the rectangular signal is converted into a sinusoidal signal, and an multistage signal attenuator to provide only a current value to determine an induction in the range from 0.25mT-2mT, each stage of the attenuator leading to an increase by 0.25mT of the induction of the magnetic field obtained at an emitter of the resonating medium and wherein
A medical device assembly, comprising: an implant (102; 220) having a support portion and an arm portion; a dilator; a first suture having a first portion coupled to the arm portion of the implant and a second portion coupled to the dilator; and a second suture having a first portion coupled to the arm portion of the implant and a second portion coupled to the dilator; and further comprising: a sleeve, the sleeve being coupled to the dilator, the sleeve defining a cavity, at least a portion of the arm portion of the implant being disposed within the cavity defined by the sleeve, at least a portion of the first suture being disposed within the cavity defined by the sleeve, at least a portion of the second suture being disposed within the cavity of the sleeve; the sleeve comprising openings through which the first and/or the second suture (110, 112) extend such that portions of the first and/or second suture (110, 112) are outside of the sleeve. an implant (102; 220) having a support portion and an arm portion; a dilator; a first suture having a first portion coupled to the arm portion of the implant and a second portion coupled to the dilator; and a second suture having a first portion coupled to the arm portion of the implant and a second portion coupled to the dilator;
A method for adjusting a widget on a terminal interface of a terminal device, the method comprises: acquiring, by an acquisition module of the terminal device, a size value of the widget on the terminal interface after switching a grid configuration of the terminal interface from a first grid configuration to a second grid configuration having a unit grid size different to the first grid configuration; determining, by a determination module of the terminal device, the number of grid units occupied by the widget according to size values of respective grids in the second grid configuration, such that the size value of the widget is not changed or is adapted to the size values of respective grids in the second grid configuration after switching the grid configuration of the terminal interface from the first grid configuration to the second grid configuration; adjusting, by an adjusting module of the terminal device, the widget's location on the terminal interface according to the number of grid units occupied by the widget if the widget is located on the terminal interface, and adjusting, by the adjusting module, a displayed grid attribute of the widget according to the number of grid units occupied by the widget if the widget is not located on the terminal interface. acquiring, by an acquisition module of the terminal device, a size value of the widget on the terminal interface after switching a grid configuration of the terminal interface from a first grid configuration to a second grid configuration having a unit grid size different to the first grid configuration; determining, by a determination module of the terminal device, the number of grid units occupied by the widget according to size values of respective grids in the second grid configuration, such that the size value of the widget is not changed or is adapted to the size values of respective grids in the second grid configuration after switching the grid configuration of the terminal interface from the first grid configuration to the second grid configuration; adjusting, by an adjusting module of the terminal device, the widget's location on the terminal interface according to the number of grid units occupied by the widget if the widget is located on the terminal interface, and adjusting, by the adjusting module, a displayed grid attribute of the widget according to the number of grid units occupied by the widget if the widget is not located on the terminal interface.