mhurhangee/ep-ind-claims huggingface dataset:
An all-in-one electrode stack unit comprising: a first electrode, a second electrode, and a separation layer interposed between the first electrode and the second electrode, wherein the separation layer is a photocured PSA (pressure sensitive adhesive) coating layer integrally formed on the first electrode, wherein the separation layer has a strength of 30 to 50 MPa, and an adhesive force to the second electrode of 70gf/20mm to 90gf/20mm, and wherein the first electrode, the separation layer, and the second electrode are laminated, wherein the photocured PSA coating layer is a polymer coating layer containing ceramic particles, wherein the photocured PSA coating layer is obtained by curing a PSA solvent-free ink containing: • 10 to 30% by weight of the ceramic particles, • 45 to 65% by weight of a monofunctional monomer, • 10 to 15% by weight of a polyfunctional monomer, • 5 to 10% by weight of an oligomer, and • 0.1 to 0.8% by weight of an initiator, wherein the monomers and oligomer are chosen from acrylate-based or epoxy-based monomers or oligomer, wherein the adhesive force is determined as described on p.12, wherein the strength is determined as described on p.12-13. a first electrode, a second electrode, and a separation layer interposed between the first electrode and the second electrode, wherein the separation layer is a photocured PSA (pressure sensitive adhesive) coating layer integrally formed on the first electrode, wherein the separation layer has a strength of 30 to 50 MPa, and an adhesive force to the second electrode of 70gf/20mm to 90gf/20mm, and wherein the first electrode, the separation layer, and the second electrode are laminated, wherein the photocured PSA coating layer is a polymer coating layer containing ceramic particles, wherein the photocured PSA coating layer is obtained by curing a PSA solvent-free ink containing: • 10 to 30% by weight of the ceramic particles, • 45 to 65% by weight of a monofunctional monomer, • 10 to 15% by weight of a polyfunctional monomer, • 5 to 10% by weight of an oligomer, and • 0.1 to 0.8% by weight of an initiator, • 10 to 30% by weight of the ceramic particles, • 45 to 65% by weight of a monofunctional monomer, • 10 to 15% by weight of a polyfunctional monomer, • 5 to 10% by weight of an oligomer, and • 0.1 to 0.8% by weight of an initiator, wherein the monomers and oligomer are chosen from acrylate-based or epoxy-based monomers or oligomer, wherein the adhesive force is determined as described on p.12, wherein the strength is determined as described on p.12-13.
Tool for developing brake systems for rail vehicles having a brake system comprising several brakes generating a braking action in different ways, the tool comprising: a read-in device capable of reading in a configuration of a rail vehicle, the configuration comprising vehicle parameters and brake system parameters of the rail vehicle; a simulation device capable of simulating braking processes of the rail vehicle on the basis of the configuration and taking into account braking condition parameters, wherein in the simulation a brake force distribution among the several brakes and a thermal loading of components of the brakes are taken into account, wherein the simulation device is capable of providing results of the simulation as result data; an outputting device capable of providing an output based on result data. a read-in device capable of reading in a configuration of a rail vehicle, the configuration comprising vehicle parameters and brake system parameters of the rail vehicle; a simulation device capable of simulating braking processes of the rail vehicle on the basis of the configuration and taking into account braking condition parameters, wherein in the simulation a brake force distribution among the several brakes and a thermal loading of components of the brakes are taken into account, wherein the simulation device is capable of providing results of the simulation as result data; an outputting device capable of providing an output based on result data.
A process for preparing particles having a hydrophobic material therein, said process comprising: providing an oil-in-water-in-oil (O/W/O) double emulsion comprising a first emulsion dispersed in a hydrophobic medium, said first emulsion comprising a hydrophobic phase dispersed in a hydrophilic phase, wherein the hydrophobic phase comprises the hydrophobic material and the hydrophilic phase comprises a precursor which is capable of reacting to form a non-fluid matrix; and reacting the precursor in the double emulsion to form the matrix in the form of the particles having the hydrophobic material therein; wherein the precursor is added prior to formation of the double emulsion and wherein the precursor is a ceramic precursor, whereby the particles are ceramic particles. providing an oil-in-water-in-oil (O/W/O) double emulsion comprising a first emulsion dispersed in a hydrophobic medium, said first emulsion comprising a hydrophobic phase dispersed in a hydrophilic phase, wherein the hydrophobic phase comprises the hydrophobic material and the hydrophilic phase comprises a precursor which is capable of reacting to form a non-fluid matrix; and reacting the precursor in the double emulsion to form the matrix in the form of the particles having the hydrophobic material therein; wherein the precursor is added prior to formation of the double emulsion and wherein the precursor is a ceramic precursor, whereby the particles are ceramic particles.
An air conditioner comprising: a first air conditioner coil assembly configured to cool air; a first condensate collection device including a tray (102, 502) configured to be mounted in a horizontal orientation below the first air conditioner coil assembly to collect condensate, and a lid (104, 504) configured to restrict air movement across the first air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the first air conditioner coil assembly; a second air conditioner coil assembly disposed below the first condensate collection device and configured to cool air; and a second condensate collection device including: a tray (102, 502) configured to be mounted in a horizontal orientation below the second air conditioner coil assembly to collect condensate; a lid (104, 504) configured to restrict air movement across the second air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the second air conditioner coil assembly. a first air conditioner coil assembly configured to cool air; a first condensate collection device including a tray (102, 502) configured to be mounted in a horizontal orientation below the first air conditioner coil assembly to collect condensate, and a lid (104, 504) configured to restrict air movement across the first air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the first air conditioner coil assembly; a second air conditioner coil assembly disposed below the first condensate collection device and configured to cool air; and a second condensate collection device including: a tray (102, 502) configured to be mounted in a horizontal orientation below the second air conditioner coil assembly to collect condensate; a lid (104, 504) configured to restrict air movement across the second air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the second air conditioner coil assembly. a tray (102, 502) configured to be mounted in a horizontal orientation below the second air conditioner coil assembly to collect condensate; a lid (104, 504) configured to restrict air movement across the second air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the second air conditioner coil assembly.
A composition for use in the treatment of an early disease state musculoskeletal fibroproliferative disorder, the composition comprising a therapeutic, prophylactic or progression-inhibiting effective amount of a TNF-α antagonist, wherein the disorder is characterized by the presence of indications of disease but in the absence of significant contracture.
A text-to-speech synthesis method comprising: receiving text; inputting the received text in a synthesiser, wherein the synthesiser comprises a prediction network that is configured to convert the received text into speech data having a speech attribute, wherein the speech attribute comprises emotion, intention, projection, pace, and/or accent; and outputting said speech data, wherein the method comprises pre-training the prediction network by: obtaining a first sub-dataset and a second sub-dataset, wherein the first sub-dataset and the second sub-dataset each comprise audio samples and corresponding text, and the speech attribute of the audio samples of the second sub-dataset is more pronounced than the speech attribute of the audio samples of the first sub-dataset; training a first model using the first sub-dataset until a performance metric reaches a first predetermined value; training a second model by further training the first model using the second sub-dataset until the performance metric reaches a second predetermined value; and selecting one of the trained models as the prediction network. receiving text; inputting the received text in a synthesiser, wherein the synthesiser comprises a prediction network that is configured to convert the received text into speech data having a speech attribute, wherein the speech attribute comprises emotion, intention, projection, pace, and/or accent; and outputting said speech data, wherein the method comprises pre-training the prediction network by: obtaining a first sub-dataset and a second sub-dataset, wherein the first sub-dataset and the second sub-dataset each comprise audio samples and corresponding text, and the speech attribute of the audio samples of the second sub-dataset is more pronounced than the speech attribute of the audio samples of the first sub-dataset; training a first model using the first sub-dataset until a performance metric reaches a first predetermined value; training a second model by further training the first model using the second sub-dataset until the performance metric reaches a second predetermined value; and selecting one of the trained models as the prediction network. obtaining a first sub-dataset and a second sub-dataset, wherein the first sub-dataset and the second sub-dataset each comprise audio samples and corresponding text, and the speech attribute of the audio samples of the second sub-dataset is more pronounced than the speech attribute of the audio samples of the first sub-dataset; training a first model using the first sub-dataset until a performance metric reaches a first predetermined value; training a second model by further training the first model using the second sub-dataset until the performance metric reaches a second predetermined value; and selecting one of the trained models as the prediction network.
Sensor system for a fluid system, in particular for a urea tank, comprising at least one fluid sensor and at least one suction tube with an inlet port for the fluid, wherein the system further comprises at least one debubbling sleeve for keeping gas bubbles off the fluid sensor, wherein the debubbling sleeve provides a receptacle for the fluid sensor, the receptacle being closed at least circumferentially around a bottom of the debubbling sleeve, wherein the debubbling sleeve comprises at least one through-opening (33, 49) in the region of the bottom, and wherein the at least one fluid sensor is arranged inside the debubbling sleeve, characterized in that the at least one suction tube protrudes through the at least one through-opening (33, 49) to an area outside the debubbling sleeve such that the inlet port is arranged outside the debubbling sleeve.
An air-conditioning management device, comprising: display means for displaying a management screen for management of operating states of an air conditioner; terminal communication means for communicating with a terminal device having a general web browser installed therein with a screen layout comprising a particular display field; storage means for storing web content data and air-conditioner data relating to the air conditioner; web server means for transmitting, in response to a request from the terminal device, the web content data via the terminal communication means to the terminal device; and management screen generation means for generating the management screen by synthesizing the air-conditioner data with screen data that is based on the web content data, and outputting the generated management screen to the display means, characterised in that the management screen generated by the management screen generation means has the screen layout of the general web browser installed in the terminal device but excludes said particular display field. display means for displaying a management screen for management of operating states of an air conditioner; terminal communication means for communicating with a terminal device having a general web browser installed therein with a screen layout comprising a particular display field; storage means for storing web content data and air-conditioner data relating to the air conditioner; web server means for transmitting, in response to a request from the terminal device, the web content data via the terminal communication means to the terminal device; and management screen generation means for generating the management screen by synthesizing the air-conditioner data with screen data that is based on the web content data, and outputting the generated management screen to the display means, characterised in that the management screen generated by the management screen generation means has the screen layout of the general web browser installed in the terminal device but excludes said particular display field.
A method for forming a patterned film, the method comprising: supplying a gas between photo-curable composition R on a substrate having alignment mark B and a mold having alignment mark A; bringing the photo-curable composition R into contact with the mold, thereby turning the photo-curable composition R into photo-curable composition R' in which the gas is dissolved; detecting light from the alignment mark A and the alignment mark B by irradiating the mold and the substrate with light a; aligning the alignment mark A with the alignment mark B according to the detected light; curing the photo-curable composition R' into a cured film by irradiating the photo-curable composition R' with light b having a different wavelength than the light a; and separating the cured film from the mold, wherein the gas satisfies the following Inequality: n M − n R ≤ n M − n R ′ wherein n R represents the refractive index of the photo-curable composition R at the wavelength of the light a, n R' represents the refractive index of the photo-curable composition R' at the wavelength of the light a, and n M represents the refractive index of the mold at the wavelength of the light a. supplying a gas between photo-curable composition R on a substrate having alignment mark B and a mold having alignment mark A; bringing the photo-curable composition R into contact with the mold, thereby turning the photo-curable composition R into photo-curable composition R' in which the gas is dissolved; detecting light from the alignment mark A and the alignment mark B by irradiating the mold and the substrate with light a; aligning the alignment mark A with the alignment mark B according to the detected light; curing the photo-curable composition R' into a cured film by irradiating the photo-curable composition R' with light b having a different wavelength than the light a; and separating the cured film from the mold, wherein the gas satisfies the following Inequality:
The monoclonal antibody produced by the hybridoma deposited under the DSM accession number No. ACC2887 in the international deposit authority Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH (DSMZ), Braunschweig, Germany.
Solar collector module comprising a plurality of mirror elements and comprising a support frame, wherein the mirror elements are fastened to the support frame via a number of fastening systems (20, 20'), wherein the or each fastening system (20, 20') provided in each case for connecting one of the mirror elements to the support frame in each case comprises a base plate provided for attachment to the mirror element, and comprises a casing portion that is provided for attachment to the support frame and that forms a receiving channel for a connecting body, which casing portion forms, together with the base plate, a receptacle for liquid adhesive, wherein the or each fastening system (20, 20') in each case comprises a buffer element (46, 46') provided for attachment between the casing portion and the base plate and made from a more elastic material than the material used for the base plate and/or casing portion.
A transmitter for transmitting payload data using Orthogonal Frequency Division Multiplexed (OFDM) symbols, the transmitter comprising a frame builder configured to receive the payload data to be transmitted and to receive signalling data for use in detecting and recovering the payload data at a receiver, and to form the payload data into data-units for transmission, a modulator configured to modulate a plurality of sub-carriers of one or more OFDM symbols with the signalling data and the payload data in accordance with a modulation scheme to provide for each of the plurality of sub-carriers a modulation symbol, a transforming circuit comprising a constellation rotator configured to receive the modulation symbols from the modulator and to rotate the phase of the modulation symbols in accordance with a predetermined rotation angle, an I/Q interleaver, which is configured to receive real and imaginary components of the rotated modulation symbols for each of the one or more sub-carriers of the one or more OFDM symbols and to interleave the real component of the modulation symbols differently to the imaginary component, and an I/Q re-combiner configured to recombine signal samples representing one or both of the real or imaginary components into the modulation symbols for transmission, wherein the frequency interleaved real component of the modulation symbols is recombined with the imaginary component to form modulation cells for mapping onto the resource elements of the one or more OFDM symbols to carry the signalling data and payload data, a prefixing circuit for prefixing a guard interval to the one or more OFDM symbols, a transmission circuit for transmitting the one or more OFDM symbols, and an error correction encoder configured to error correction encode data units, and a controller which is configured to control the error correction encoder, the modulator and the transmission circuit to transmit the data units of the payload data in accordance with a repeat request-type protocol, wherein an amount by which adjacent signal samples representing one or both of the real or imaginary components are separated from one another after the I/Q interleaver is determined as a function of physical resources of a wireless access interface which are allocated for transmitting, the wireless access interface providing a plurality of physical resource blocks, each providing frequency resources for one of the OFDM symbols, the wireless access interface being divided in time into a plurality of subframes each of the subframes providing physical resource elements within each physical resource block for transmitting the sub-carriers of the OFDM symbols, the I/Q interleaver is configured to interleave the real and imaginary components in time and frequency in the physical resources provided by at least two subframes and at least two physical resource blocks to provide a greatest possible separation of the real and imaginary components of the rotated modulation symbols, and the rotation angle applied by the constellation rotator is different for different re-transmissions.
A home appliance, comprising a main body configured to have a cavity, a door configured to open and close a front of the cavity, the door has an engaging structure and a hinge module configured to rotatably connect the door about the main body, a latch provided in the main body and engaged with or released from the engaging structure, wherein the latch have positions comprising a first basic position, a second basic position, and a third basic position, wherein the first basic position is a position in which the latch is engaged with the engaging structure to maintain a closed state of the door and allows the door to be opened and closed manually, wherein the second basic position is a position in which the latch is not engaged with the engaging structure, wherein the third basic position is a position in which the latch is engaged with the engaging structure to maintain a closed state of the door and the latch securely locks the door and does not allow the door to be opened manually, wherein the hinge module configured to apply a force to move the door in an opening direction thereof when the door is closed, and open the door when the latch is positioned to the second basic position. a latch provided in the main body and engaged with or released from the engaging structure, wherein the latch have positions comprising a first basic position, a second basic position, and a third basic position, wherein the first basic position is a position in which the latch is engaged with the engaging structure to maintain a closed state of the door and allows the door to be opened and closed manually, wherein the second basic position is a position in which the latch is not engaged with the engaging structure, wherein the third basic position is a position in which the latch is engaged with the engaging structure to maintain a closed state of the door and the latch securely locks the door and does not allow the door to be opened manually, wherein the hinge module configured to apply a force to move the door in an opening direction thereof when the door is closed, and open the door when the latch is positioned to the second basic position.
A process for producing an ether or sulfide compound having formula: R 1 - X - R 2; the process comprising contacting: (a) a first ether or sulfide compound having formula, R 1 - X - R 1; (b) a second ether or sulfide compound having formula, R 2 - X - R 2; and (c) a catalyst; to form a reaction mixture comprising the ether or sulfide compound having formula; wherein: each X independently is sulfur or oxygen; R 1 is a C 1 to C 18 substituted or unsubstituted, cycloalkyl group or linear or branched alkyl group; and R 2 is a C 1 to C 18 substituted or unsubstituted, cycloalkyl group or linear or branched alkyl group. (a) a first ether or sulfide compound having formula, R 1 - X - R 1; (b) a second ether or sulfide compound having formula, R 2 - X - R 2; and (c) a catalyst; each X independently is sulfur or oxygen; R 1 is a C 1 to C 18 substituted or unsubstituted, cycloalkyl group or linear or branched alkyl group; and R 2 is a C 1 to C 18 substituted or unsubstituted, cycloalkyl group or linear or branched alkyl group.