mhurhangee/patent-ind-claim-en huggingface dataset:
Process for treating at least one inner face (B, C; 5) of a container (R, F, 6, 13, 50), wherein said inner face is internally covered, at least in part, with a sol-gel layer, and said layer is treated by laser radiation , characterized in that , said layer being a pigmented layer that reacts to laser radiation , the sol-gel layer is applied (step 11) by spraying or stamping said layer on a precise defined zone arranged to contain a pattern and the pattern is developed by interaction between the sol-gel and UV laser radiation specifically programmed as a function of said pattern to be revealed, the UV laser radiation being emitted by a device comprising an optic with a long focal distance allowing a depth of field of greater than 1 mm ± 20%.
A binder for a nonaqueous electrolyte secondary battery electrode, containing an acrylic crosslinked polymer or salt thereof, wherein in the acrylic crosslinked polymer, a component (a), which is an ethylenically unsaturated carboxylic acid monomer, constitutes 40% to 90% by weight, and a component (b), which is an ethylenically unsaturated monomer lacking carboxyl groups and having an SP value of 9.0 to 12.5 (cal/cm 3 ) 1/2 of the homopolymer, constitutes 10% to 60% by weight of the total constituent monomers, and a ratio of monomers having acryloyl groups of the total constituent monomers is 70% by weight or more, wherein the SP value of the homopolymer is measured according to the description.
A pharmaceutical composition comprising: a plurality of immediate release beads, each immediate release bead comprising at least one amphetamine salt and an optional binder layered onto or incorporated into an inert core; a plurality of delayed release beads, each delayed release bead comprising an amphetamine core and a delayed release coating layered over the amphetamine core, the amphetamine core comprising at least one amphetamine salt layered onto or incorporated into an inert core, and the delayed release coating comprising at least one pH-dependent enteric polymer being a copolymer of methacrylic acid and ethyl acrylate and an optional excipient; and a plurality of delayed sustained release beads, each delayed sustained release bead comprising an amphetamine core, a sustained release coating layered over the amphetamine core, and a delayed release coating layered over the sustained release coating, the amphetamine core comprising at least one amphetamine salt layered onto or incorporated into an inert core, the sustained release coating comprising ethyl cellulose, and the delayed release coating comprising at least one pH-dependent enteric polymer being a copolymer of methacrylic acid, methyl methacrylate, and methyl acrylate and an optional excipient; wherein the pharmaceutical composition has a d-amphetamine T max from 7.9 hours to 8.8 hours after administration of a 30 mg dose of the pharmaceutical composition to a fasting human subject. a plurality of immediate release beads, each immediate release bead comprising at least one amphetamine salt and an optional binder layered onto or incorporated into an inert core; a plurality of delayed release beads, each delayed release bead comprising an amphetamine core and a delayed release coating layered over the amphetamine core, the amphetamine core comprising at least one amphetamine salt layered onto or incorporated into an inert core, and the delayed release coating comprising at least one pH-dependent enteric polymer being a copolymer of methacrylic acid and ethyl acrylate and an optional excipient; and a plurality of delayed sustained release beads, each delayed sustained release bead comprising an amphetamine core, a sustained release coating layered over the amphetamine core, and a delayed release coating layered over the sustained release coating, the amphetamine core comprising at least one amphetamine salt layered onto or incorporated into an inert core, the sustained release coating comprising ethyl cellulose, and the delayed release coating comprising at least one pH-dependent enteric polymer being a copolymer of methacrylic acid, methyl methacrylate, and methyl acrylate and an optional excipient; wherein the pharmaceutical composition has a d-amphetamine T max from 7.9 hours to 8.8 hours after administration of a 30 mg dose of the pharmaceutical composition to a fasting human subject.
Cyclonic valve for cleaning pumps for transferring high density powders of any type, comprising at least one inlet duct for introducing a flow (F) of cleaning fluid, at least one flow dividing element adapted for dividing the flow in inlet (F) into a plurality of flows (Fa, Fb, Fc, Fd), and at least one flow orienter comprising an upper surface (11a, 11'a), associated with the lower portion of the flow dividing element , and comprising means for deviating and orienting in space said plurality of flows (Fa, Fb, Fc, Fd) so as to give each of said flows (Fa, Fb, Fc, Fd) a tangential motion component with respect to the direction of said flows, and then convey said flows into one or more ducts towards the device to be cleaned, so as to generate a single cleaning flow in outlet having helical motion.
An electronic apparatus comprising: a voice receiver configured to receive a voice of a speaker; and a processor configured to: perform a predetermined operation, obtain a recognition result by applying a voice recognition process to the voice received in the voice receiver during the predetermined operation, select at least one correction model corresponding to the performed operation among a plurality of correction models respectively provided according to a plurality of operations, identify whether the obtained recognition result matches at least one previously defined pseudo recognition result of the at least one selected correction model, and perform control based on a standard recognition result previously defined corresponding to the at least one pseudo recognition result, based on the obtained recognition result matching the pseudo recognition result previously defined corresponding to the predetermined operation. a voice receiver configured to receive a voice of a speaker; and a processor configured to: perform a predetermined operation, obtain a recognition result by applying a voice recognition process to the voice received in the voice receiver during the predetermined operation, select at least one correction model corresponding to the performed operation among a plurality of correction models respectively provided according to a plurality of operations, identify whether the obtained recognition result matches at least one previously defined pseudo recognition result of the at least one selected correction model, and perform control based on a standard recognition result previously defined corresponding to the at least one pseudo recognition result, based on the obtained recognition result matching the pseudo recognition result previously defined corresponding to the predetermined operation. perform a predetermined operation, obtain a recognition result by applying a voice recognition process to the voice received in the voice receiver during the predetermined operation, select at least one correction model corresponding to the performed operation among a plurality of correction models respectively provided according to a plurality of operations, identify whether the obtained recognition result matches at least one previously defined pseudo recognition result of the at least one selected correction model, and perform control based on a standard recognition result previously defined corresponding to the at least one pseudo recognition result, based on the obtained recognition result matching the pseudo recognition result previously defined corresponding to the predetermined operation.
A method of storing secret data in a device comprising a secure element coupled to a non-volatile memory, the method comprising: deriving, by the secure element, a first cryptographic key by decrypting and authenticating cryptographic key data with a key that is hardwired into the secure element; writing, by the secure element, the first cryptographic key in the non-volatile memory; decrypting and authenticating, by the secure element, first secret data using the first cryptographic key to form second secret data; and, then, rendering the true value of the first cryptographic key unreadable by irreversibly changing at least a portion of the first cryptographic key by changing the state of at least one bit of the first cryptographic key and then locking the stored first cryptographic key to prevent further changes. deriving, by the secure element, a first cryptographic key by decrypting and authenticating cryptographic key data with a key that is hardwired into the secure element; writing, by the secure element, the first cryptographic key in the non-volatile memory; decrypting and authenticating, by the secure element, first secret data using the first cryptographic key to form second secret data; and, then, rendering the true value of the first cryptographic key unreadable by irreversibly changing at least a portion of the first cryptographic key by changing the state of at least one bit of the first cryptographic key and then locking the stored first cryptographic key to prevent further changes.
An electrocaloric module (10; 310), comprising a housing ; an electrocaloric element in the housing, the electrocaloric element comprising an electrocaloric film , a first electrode on a first surface of the electrocaloric film, and a second electrode on a second surface of the electrocaloric film; a first thermal connection configured to connect to a first thermal flow path between the electrocaloric element and a heat sink ; a second thermal connection configured to connect to a second thermal flow path between the electrocaloric element and a heat source ; and a power connection connected to the electrodes configured to connect to a power source; characterized by an embedded electronic component configured to perform an ancillary or secondary function associated with generation or transfer of heat energy so as to not be directly involved in the generation or transmission of heat energy, wherein the embedded electronic component is selected from a resistor, a diode, a Zener diode, an inductor, a capacitor, a piezoelectric element, a current sensor, a fusible link, or interdigitated electrodes. a housing ; an electrocaloric element in the housing, the electrocaloric element comprising an electrocaloric film , a first electrode on a first surface of the electrocaloric film, and a second electrode on a second surface of the electrocaloric film; a first thermal connection configured to connect to a first thermal flow path between the electrocaloric element and a heat sink ; a second thermal connection configured to connect to a second thermal flow path between the electrocaloric element and a heat source ; and a power connection connected to the electrodes configured to connect to a power source; characterized by an embedded electronic component configured to perform an ancillary or secondary function associated with generation or transfer of heat energy so as to not be directly involved in the generation or transmission of heat energy, wherein the embedded electronic component is selected from a resistor, a diode, a Zener diode, an inductor, a capacitor, a piezoelectric element, a current sensor, a fusible link, or interdigitated electrodes.
A method of wireless communications by a user equipment, UE, comprising: receiving radio resource control, RRC, signaling of at least one parameter indicating whether or how to perform rate matching for processing a physical downlink shared channel, PDSCH, associated with a first quasi co-location, QCL, association and transmitted from a first transmission reception point, TRP, that potentially collides with one or more non-zero power, NZP, reference signals, RS, associated with a second QCL association and transmitted from a second TRP, wherein each NZP RS is transmitted on one or more NZP resources within a NZP RS resource set, and wherein the signaling comprises a semi-static configuration of a list that indicates, for each of a plurality of cell-identifiers, IDs, or QCL associations, whether or how to perform rate matching for NZP RS transmitted from that cell-ID or QCL association; and processing the PDSCH transmission, wherein the processing comprises deciding whether or how to perform rate matching around the NZP RS based on the signaling. receiving radio resource control, RRC, signaling of at least one parameter indicating whether or how to perform rate matching for processing a physical downlink shared channel, PDSCH, associated with a first quasi co-location, QCL, association and transmitted from a first transmission reception point, TRP, that potentially collides with one or more non-zero power, NZP, reference signals, RS, associated with a second QCL association and transmitted from a second TRP, wherein each NZP RS is transmitted on one or more NZP resources within a NZP RS resource set, and wherein the signaling comprises a semi-static configuration of a list that indicates, for each of a plurality of cell-identifiers, IDs, or QCL associations, whether or how to perform rate matching for NZP RS transmitted from that cell-ID or QCL association; and processing the PDSCH transmission, wherein the processing comprises deciding whether or how to perform rate matching around the NZP RS based on the signaling.
An audio encoder for encoding an audio signal, wherein the audio signal is represented in a spectral domain, wherein the audio encoder comprises: a spectral envelope encoder configured for determining a spectral envelope of the audio signal and for encoding the spectral envelope, and a spectral sample encoder configured for encoding a plurality of spectral samples of the audio signal, wherein the spectral sample encoder is configured to estimate an estimated bitrate needed for encoding for each spectral sample of one or more spectral samples of the plurality of spectral samples depending on the spectral envelope, and wherein the spectral sample encoder is configured to encode each spectral sample of the plurality of spectral samples, depending on the estimated bitrate needed for encoding for the one or more spectral samples, according to a first coding rule or according to a second coding rule being different from the first coding rule, wherein the second coding rule comprises using an entropy codec and conducting quantization, and wherein the first coding rule comprises using dithered coding; and wherein the spectral sample encoder is configured to encode the one or more spectral samples using dithered coding, if the estimated bitrate is smaller than or equal to a threshold value; and wherein the spectral sample encoder is configured to encode the one or more spectral samples using entropy coding and conducting quantization, if the estimated bitrate is greater than the threshold value. a spectral envelope encoder configured for determining a spectral envelope of the audio signal and for encoding the spectral envelope, and a spectral sample encoder configured for encoding a plurality of spectral samples of the audio signal, wherein the spectral sample encoder is configured to estimate an estimated bitrate needed for encoding for each spectral sample of one or more spectral samples of the plurality of spectral samples depending on the spectral envelope, and wherein the spectral sample encoder is configured to encode each spectral sample of the plurality of spectral samples, depending on the estimated bitrate needed for encoding for the one or more spectral samples, according to a first coding rule or according to a second coding rule being different from the first coding rule, wherein the second coding rule comprises using an entropy codec and conducting quantization, and wherein the first coding rule comprises using dithered coding; and wherein the spectral sample encoder is configured to encode the one or more spectral samples using dithered coding, if the estimated bitrate is smaller than or equal to a threshold value; and wherein the spectral sample encoder is configured to encode the one or more spectral samples using entropy coding and conducting quantization, if the estimated bitrate is greater than the threshold value.
A process for manufacturing a battery module including electric cells positioned in a potting compound, wherein a potting composition is poured into a battery case, the potting composition comprising a first component comprising an isocyanate reactive compound and water, a second component comprising an isocyanate compound, and a flame retardant component in an amount from 15 wt.% to 60 wt.% based on the total weight of the potting composition, wherein the flame retardant is liquid between 25 °C and 35 °C; wherein the battery case comprises electric cells, and the potting composition is poured around the electric cells, wherein the potting composition settles at a level height around the electric cells before the potting composition hardens to form a potting compound which is a foam, and wherein the height of the potting compound at various locations is within 20 percent of one another when measured from the bottom of the potting compound to the top of the potting compound. a potting composition is poured into a battery case, the potting composition comprising a first component comprising an isocyanate reactive compound and water, a second component comprising an isocyanate compound, and a flame retardant component in an amount from 15 wt.% to 60 wt.% based on the total weight of the potting composition, wherein the flame retardant is liquid between 25 °C and 35 °C; a first component comprising an isocyanate reactive compound and water, a second component comprising an isocyanate compound, and a flame retardant component in an amount from 15 wt.% to 60 wt.% based on the total weight of the potting composition, wherein the flame retardant is liquid between 25 °C and 35 °C; wherein the battery case comprises electric cells, and the potting composition is poured around the electric cells, wherein the potting composition settles at a level height around the electric cells before the potting composition hardens to form a potting compound which is a foam, and wherein the height of the potting compound at various locations is within 20 percent of one another when measured from the bottom of the potting compound to the top of the potting compound.
Pillar for a vehicle, comprising a roof portion , a floor portion , a left side portion and a right side portion , at least the roof portion and side portions being formed by at least two profiles comprising at least one flat longitudinal face, the profiles being laterally attached to one another by said flat longitudinal face and the cross sections of the profiles extending in opposite directions from said flat longitudinal faces wherein said flat longitudinal faces of the profiles are arranged perpendicular to the direction of forward movement of the vehicle, characterized in that the profiles are tubular, the cross section of the profiles being preferably square or rectangular, and said tubular profiles being attached to one another on the widest side of said tubular parts if the cross section is rectangular and in that the roof portion and side portions are formed by a single inverted U-shaped segment or by two bent, inverted L-shaped segments (2a.1, 2a.2) attached to one another at one end.
A flexible brachytherapy device for application on a wound site in a body, the device comprising: a bioresorbable carrier matrix structure comprising a plurality of radio-isotope particles , the bioresorbable carrier matrix structure configured to degrade, when implanted at the wound site, at a rate such that the bioresorbable carrier matrix structure has a half-life that is longer than a half-life of the plurality of radio-isotope particles such that activity from the plurality of radio-isotope particles is localised to the wound site, wherein the bioresorbable carrier matrix structure has opposite first surface and second surface ; a hydrophilic substrate located adjacent to the first surface of the bioresorbable carrier matrix structure , wherein the hydrophilic substrate is configured to adhere to the wound site, the hydrophilic substrate configured to degrade, when implanted at the wound site, at a rate faster than the bioresorbable carrier matrix structure to prevent migration of the device during the half-life of the plurality of radio-isotope particles ; and a hydrogel substrate located adjacent to the second surface of the bioresorbable carrier matrix structure , the hydrogel substrate configured to shield radioactivity and to degrade at a rate such that the hydrogel substrate has a half-life that is longer than the half-life of the plurality of radio-isotope particles , wherein the plurality of radio-isotope particles are elements in compound molecules of calcium phosphate. a bioresorbable carrier matrix structure comprising a plurality of radio-isotope particles , the bioresorbable carrier matrix structure configured to degrade, when implanted at the wound site, at a rate such that the bioresorbable carrier matrix structure has a half-life that is longer than a half-life of the plurality of radio-isotope particles such that activity from the plurality of radio-isotope particles is localised to the wound site, wherein the bioresorbable carrier matrix structure has opposite first surface and second surface ; a hydrophilic substrate located adjacent to the first surface of the bioresorbable carrier matrix structure , wherein the hydrophilic substrate is configured to adhere to the wound site, the hydrophilic substrate configured to degrade, when implanted at the wound site, at a rate faster than the bioresorbable carrier matrix structure to prevent migration of the device during the half-life of the plurality of radio-isotope particles ; and a hydrogel substrate located adjacent to the second surface of the bioresorbable carrier matrix structure , the hydrogel substrate configured to shield radioactivity and to degrade at a rate such that the hydrogel substrate has a half-life that is longer than the half-life of the plurality of radio-isotope particles , wherein the plurality of radio-isotope particles are elements in compound molecules of calcium phosphate.
An oral hygiene tablet comprising: an abrasive that is glycine, wherein the glycine has an average (Mv) particle size of 50 μm to 90 μm, and one or more of a binder, bulking agent, a disintegrant, a glidant, a lubricant, a surfactant, a sweetener, and a flavoring agent. an abrasive that is glycine, wherein the glycine has an average (Mv) particle size of 50 μm to 90 μm, and one or more of a binder, bulking agent, a disintegrant, a glidant, a lubricant, a surfactant, a sweetener, and a flavoring agent.
A method of handling a device-to-device, D2D, signal and a device-to-cellular, D2C, signal for a first communication device, the method comprising: communicating with a second communication device according to a D2D communication ; communicating with a network according to a D2C communication ; and transmitting one of the D2D signal and the D2C signal in a subframe, wherein the D2D signal and the D2C signal are transmitted to the second communication device and the network, respectively ; characterized in that the D2D communication and the D2C communication follow a downlink, DL, timing and an uplink, UL, timing, respectively. communicating with a second communication device according to a D2D communication ; communicating with a network according to a D2C communication ; and transmitting one of the D2D signal and the D2C signal in a subframe, wherein the D2D signal and the D2C signal are transmitted to the second communication device and the network, respectively ; characterized in that the D2D communication and the D2C communication follow a downlink, DL, timing and an uplink, UL, timing, respectively.