mhurhangee/ep-ind-claims huggingface dataset:
Device for compacting a fiber strip on a spinning machine with a revolving compaction element that is supplied with suction air and is held on a housing, wherein the suction air is guided to the compaction element via a suction air duct, provided in the housing, with a first section and a second section, wherein the first section of the suction air duct is delimited by the compaction element, and a connection of the first section to a vacuum source is provided via the second section of the suction air duct, characterized in that an air duct that is independent of the suction air duct and has a first duct part, an indicator duct, and a second duct part is provided, wherein - the indicator duct is arranged between the first duct part and the second duct part and is at least partially transparent; - the first duct part is connected to the first section of the suction air duct; - the second duct part is connected to an opening in the housing to the environment; - an indicator element that is freely movable over the length of the indicator duct is provided in the indicator duct. - the indicator duct is arranged between the first duct part and the second duct part and is at least partially transparent; - the first duct part is connected to the first section of the suction air duct; - the second duct part is connected to an opening in the housing to the environment; - an indicator element that is freely movable over the length of the indicator duct is provided in the indicator duct.
Synthetic prosthesis for tissue reinforcement comprising: - a porous knit made from a monofilament of a synthetic biocompatible material, said knit defining two opposite faces, a first face and a second face, - a synthetic non porous biodegradable film comprising at least a copolymer of at least ε-caprolactone, said film covering at least part of said first face, - a synthetic biodegradable binder bonding said film to said first face, said binder comprising at least a polymer of ε-caprolactone, wherein said binder is present between said film and said first face under the form of a discontinuous layer, and wherein said second face of said porous knit is left open to cell colonization. - a porous knit made from a monofilament of a synthetic biocompatible material, said knit defining two opposite faces, a first face and a second face, - a synthetic non porous biodegradable film comprising at least a copolymer of at least ε-caprolactone, said film covering at least part of said first face, - a synthetic biodegradable binder bonding said film to said first face, said binder comprising at least a polymer of ε-caprolactone,
A card wire (100, 300, 400), comprising a rib portion (103, 303, 403) and a plurality of teeth (105, 305, 405) along the length of the rib portion (103, 303, 403), wherein the plurality of teeth (105, 305, 405) are inclined at an angle with respect to the rib portion (103, 303, 403), wherein the teeth have a front portion (107, 307, 407) and a back portion (109, 309, 409), wherein the front portion (107, 307, 407) is the inner portion of the tooth leaning towards the rib portion (103, 303, 403) and the back portion (109, 309, 409) is the outer portion of the tooth, wherein the front portion (107, 307, 407) and the back portion (109, 309, 409) of the tooth join a the tip of the tooth (111,311,411); wherein the teeth have a base segment (113, 313, 413), connecting the front portion (107, 307, 407) of a tooth to the back portion (109, 309, 409) of the preceding tooth; wherein the front portion (107, 307, 407) comprises at least two undercut segments (120, 130; 320, 330; 420, 430); a first undercut segment (120, 320, 420) and a second undercut segment (130, 330, 430); wherein the second undercut segment (130, 330, 430) is spaced further away from the tip of the tooth (111,311,411) than the first undercut segment (120, 320, 420); wherein each undercut segment (120, 130; 320, 330; 420, 430) has an undercut angle (α, β); wherein the undercut angle (α, β) is the minimum of the angles with the longitudinal direction of the card wire, of the tangents to each point of the part of the undercut segment going - when observed from the tip - inwards from the front portion (107, 307, 407); characterized in that the second undercut segment (130, 330, 430) has a larger undercut angle (β) than the first undercut segment (α).
A method for drying a plurality of pieces of wood, in particular construction wood, wherein the pieces of wood are heated using microwave radiation and are dried in this way, in the case of which method each piece of wood is subjected to the microwave radiation individually, and every piece of wood is heated by means of a plurality of microwave generators, wherein the microwave generators can be controlled individually and in sections, characterized in that air is extracted during or after heating a piece of wood and the moisture content of the air is determined thereby and a conclusion is drawn therefrom to the moisture content of the piece of wood.
A screen panel for mining and quarrying industries adapted to be mounted on a screen deck, including a screening surface formed on a reinforcing, wherein said screening surface, other than said apertures, are made of any one of or a combination of mild steel, stainless steel, rubber and/or polyurethane with or without steel reinforcing, said screening surface haying suitably designed apertures of desired shape for allowing materials of desired size to pass through, said apertures having a flaring design of hole shape thereby preventing clogging substantially, said reinforcing being an external steel reinforcing adapted to be mechanically fixed to said panel by button type fixing, characterised in that a plurality of button type projections are arranged along the reinforcing, which projections are to be received in complementary cavities arranged along the screen panel's periphery, whereby screening efficiency of said screen panel is substantially enhanced.
A composition comprising: a) a RNA polynucleotide comprising SEQ ID NO:1, SEQ ID NO:2 or SEQ ID NO:3; or b) a RNA polynucleotide comprising sequence having one, two or three nucleotide alterations in SEQ ID NO:1, SEQ ID NO:2 or SEQ ID NO:3; for use in a method of sensitizing an ovarian or uterine cancer in an individual to a platinum-based chemotherapy, the method comprising the step of administering to the individual an effective amount of the composition. a) a RNA polynucleotide comprising SEQ ID NO:1, SEQ ID NO:2 or SEQ ID NO:3; or b) a RNA polynucleotide comprising sequence having one, two or three nucleotide alterations in SEQ ID NO:1, SEQ ID NO:2 or SEQ ID NO:3;
A transmission device comprising: an RF power amplifier; an input signal detector configured to detect an input signal of the power amplifier; an output signal detector configured to detect an output signal of the power amplifier; a first power amplifier switch configured to switch ON or OFF the power amplifier; a monitor terminal; and an RF switch configured to select the input signal or the output signal of the power amplifier to be transmitted to the monitor terminal, in association with the first power amplifier switch being switched ON or OFF. an RF power amplifier; an input signal detector configured to detect an input signal of the power amplifier; an output signal detector configured to detect an output signal of the power amplifier; a first power amplifier switch configured to switch ON or OFF the power amplifier; a monitor terminal; and an RF switch configured to select the input signal or the output signal of the power amplifier to be transmitted to the monitor terminal, in association with the first power amplifier switch being switched ON or OFF.
Optical article comprising a polymer coating having an outer surface and a substrate with two main surfaces, at least one of which is covered by said polymer coating having an outer surface, said coating comprising a first superficial layer beneath the outer surface having a first refractive index n 1 and a second layer beneath the first superficial layer having a second refractive index n 2, said coating exhibiting antireflective properties due to the difference between refractive indexes n1 and n2 characterized in that n 2 < n 1 and the second layer has the lowest refractive index of said polymer coating, wherein said refractive index difference within the coating results from a plasma treatment of an initial polymer coating, through the outer surface, said plasma treatment is obtained by a radio frequency source with a surface power density ranging from 0.05 to 1.5 W/cm 2, and wherein the polymer coating comprises at least one epoxysilane polymer. wherein said refractive index difference within the coating results from a plasma treatment of an initial polymer coating, through the outer surface, said plasma treatment is obtained by a radio frequency source with a surface power density ranging from 0.05 to 1.5 W/cm 2, and wherein the polymer coating comprises at least one epoxysilane polymer.
A method for monitoring the compaction process of an asphalt layer to be compacted in road construction, comprising the steps: a) detecting the edges (26, 27) limiting the hot asphalt layer transversely to the road pathway by means of a temperature sensor arranged on a road roller compacting the asphalt layer; and b) dividing the detected asphalt layer into at least two width segments across the road pathway; in which d) the working operation of the road roller on the width segment is quantified by means of an operating parameter and stored; and e) the quantified working operation for each width segment is displayed for at least one past working interval. characterized in that the position of the road roller on the asphalt layer transversely to the road pathway is determined from the measurement of the temperature sensor and assigned to one of the width segments; a) detecting the edges (26, 27) limiting the hot asphalt layer transversely to the road pathway by means of a temperature sensor arranged on a road roller compacting the asphalt layer; and b) dividing the detected asphalt layer into at least two width segments across the road pathway; in which d) the working operation of the road roller on the width segment is quantified by means of an operating parameter and stored; and e) the quantified working operation for each width segment is displayed for at least one past working interval.
Method for producing, via rotational sintering, plastic moulded skins having different sub-areas, said method comprising the steps: a) heating a rotational sintering tool, b) melting a plastic powder onto the tool surface, c) forming a moulded skin on the tool surface, d) cooling the tool, and e) removing the plastic moulded skin, wherein, prior to the melting of the plastic powder in the heated rotational sintering tool, a coloured surface or the negative representation of a printed image is generated by applying a colour medium to the tool surface and, when the plastic powder is melted, the colour is transferred to the plastic moulded skin as a coloured surface or as the positive representation of the printed image, the colour being picked up by the plastic and irreversibly incorporated in the plastic, characterized in that the colour medium is applied to the tool surface by pad printing, is deaerated thereon and the colour is then transferred to the plastic moulded skin, wherein the solvent is evaporated from the colour medium on the hot tool surface and the colour remains in the form of pigments on the tool surface and, when the plastic powder is melted, is picked up by the plastic and is irreversibly incorporated in the plastic in the plastic moulded skin. a) heating a rotational sintering tool, b) melting a plastic powder onto the tool surface, c) forming a moulded skin on the tool surface, d) cooling the tool, and e) removing the plastic moulded skin, wherein, prior to the melting of the plastic powder in the heated rotational sintering tool, a coloured surface or the negative representation of a printed image is generated by applying a colour medium to the tool surface and, when the plastic powder is melted, the colour is transferred to the plastic moulded skin as a coloured surface or as the positive representation of the printed image, the colour being picked up by the plastic and irreversibly incorporated in the plastic, characterized in that the colour medium is applied to the tool surface by pad printing, is deaerated thereon and the colour is then transferred to the plastic moulded skin, wherein the solvent is evaporated from the colour medium on the hot tool surface and the colour remains in the form of pigments on the tool surface and, when the plastic powder is melted, is picked up by the plastic and is irreversibly incorporated in the plastic in the plastic moulded skin.
A method for wireless communications at a user equipment, UE, capable of communicating via first and second radio access technologies, RATs (102,104), the method comprising: initiating a call setup procedure for leaving a first Node B of the first RAT for a call on the second RAT; searching for a second Node B of the second RAT for setting up the call using information collected at the UE, wherein the information is used in a predefined order; and performing network acquisition operations with the second Node B. initiating a call setup procedure for leaving a first Node B of the first RAT for a call on the second RAT; searching for a second Node B of the second RAT for setting up the call using information collected at the UE, wherein the information is used in a predefined order; and performing network acquisition operations with the second Node B.
A system for monitoring and analyzing milk collection comprising: a computing device having an imaging component; and a milk collection device (100, 300) configured to enable breastpumping data collection through interaction with the imaging component of the computing device and a custom software application, wherein the computing device is configured to execute the custom software application, and wherein the custom software application configured to recognize a codification element (106, 306) associated with the milk collection device (100, 300) from an image generated by the imaging component to determine milk volume within the milk collection device. a computing device having an imaging component; and a milk collection device (100, 300) configured to enable breastpumping data collection through interaction with the imaging component of the computing device and a custom software application, wherein the computing device is configured to execute the custom software application, and wherein the custom software application configured to recognize a codification element (106, 306) associated with the milk collection device (100, 300) from an image generated by the imaging component to determine milk volume within the milk collection device.
A method of manufacturing a composite substrate including a piezoelectric layer and a support substrate, the method comprising: a step of performing ion implantation into a piezoelectric substrate; a step of bonding the piezoelectric substrate and the support substrate; a step of separating the bonded substrate, at an ion-implanted portion of the piezoelectric substrate, into the piezoelectric layer bonded to the support substrate and a remaining piezoelectric substrate after the step of bonding the piezoelectric substrate and the support substrate; and a step of diffusing Li into the piezoelectric layer after the separating step; characterised in that the method further comprises: a step, which is performed simultaneously with the step of diffusing Li into the piezoelectric layer, of increasing the temperature of the composite substrate to a temperature equal to or higher than the Curie temperature of the piezoelectric substrate, applying an electric field, and decreasing the temperature of the composite substrate to a temperature equal to or lower than the Curie temperature while the electric field is applied. a step of performing ion implantation into a piezoelectric substrate; a step of bonding the piezoelectric substrate and the support substrate; a step of separating the bonded substrate, at an ion-implanted portion of the piezoelectric substrate, into the piezoelectric layer bonded to the support substrate and a remaining piezoelectric substrate after the step of bonding the piezoelectric substrate and the support substrate; and a step of diffusing Li into the piezoelectric layer after the separating step; characterised in that the method further comprises: a step, which is performed simultaneously with the step of diffusing Li into the piezoelectric layer, of increasing the temperature of the composite substrate to a temperature equal to or higher than the Curie temperature of the piezoelectric substrate, applying an electric field, and decreasing the temperature of the composite substrate to a temperature equal to or lower than the Curie temperature while the electric field is applied.
A method of allocating radio resources in a radio access network for operating a plurality of devices, comprising the steps of: determining, by a first radio coordinator (100; 1400), a need for radio resources for each of a plurality of second radio coordinators (200; 1500) for assigning the radio resources to an associated device group (507; 508), wherein the plurality of devices are grouped into a plurality of device groups (507, 508), each device group (507; 508) being associated to one of the plurality of second radio coordinators (200; 1500), wherein every device of the plurality of device groups corresponding to a time-critical industrial automation application is associated with a common second radio coordinator of the plurality of second radio coordinators, wherein the step of determining the need for radio resources comprises receiving, by the first radio coordinator (100; 1400) from at least one of the plurality of second radio coordinators (200; 1500), a radio resource request, wherein the radio resource request is indicative of radio resources required by the at least one of the plurality of second radio coordinators (200; 1500) for assigning the radio resources to its associated device group (507; 508); allocating the radio resources to each of the plurality of second radio coordinators (200; 1500) by the first radio coordinator (100; 1400) based on the determined need for radio resources; and sending, to at least one of the plurality of second radio coordinators (200; 1500), an allocation message indicative of the allocated radio resources. determining, by a first radio coordinator (100; 1400), a need for radio resources for each of a plurality of second radio coordinators (200; 1500) for assigning the radio resources to an associated device group (507; 508), wherein the plurality of devices are grouped into a plurality of device groups (507, 508), each device group (507; 508) being associated to one of the plurality of second radio coordinators (200; 1500), wherein every device of the plurality of device groups corresponding to a time-critical industrial automation application is associated with a common second radio coordinator of the plurality of second radio coordinators, wherein the step of determining the need for radio resources comprises receiving, by the first radio coordinator (100; 1400) from at least one of the plurality of second radio coordinators (200; 1500), a radio resource request, wherein the radio resource request is indicative of radio resources required by the at least one of the plurality of second radio coordinators (200; 1500) for assigning the radio resources to its associated device group (507; 508); allocating the radio resources to each of the plurality of second radio coordinators (200; 1500) by the first radio coordinator (100; 1400) based on the determined need for radio resources; and sending, to at least one of the plurality of second radio coordinators (200; 1500), an allocation message indicative of the allocated radio resources.
A method of video coding used by a video coding system, the method comprising: receiving input data associated with a current block in a current picture, wherein the input data comprise pixel data to be encoded at an encoder side or compressed data at a decoder side, and wherein the current block comprises a luma block and a chroma block; if separate partition trees are allowed for the luma block and the chroma block, partitioning the luma block into one or more luma leaf blocks using a luma partition tree and partitioning the chroma block into one or more chroma leaf blocks using a chroma partition tree; if a cross-colour component prediction mode is allowed, determining whether to enable an Linear Model, LM, mode for a target chroma leaf block based on a first split type applied to an ancestor chroma node of the target chroma leaf block and a second split type applied to a corresponding ancestor luma node; and encoding or decoding the target chroma leaf block using the LM mode if the LM mode is enabled for the target chroma leaf block, wherein when the second split type corresponds to no split and the first split type corresponds to no split, quadtree, QT, split, horizontal binary tree, HorBT, split with no further split, or HorBT split followed by vertical binary tree, VerBT, split, the LM mode for the target chroma leaf block is enabled. receiving input data associated with a current block in a current picture, wherein the input data comprise pixel data to be encoded at an encoder side or compressed data at a decoder side, and wherein the current block comprises a luma block and a chroma block; if separate partition trees are allowed for the luma block and the chroma block, partitioning the luma block into one or more luma leaf blocks using a luma partition tree and partitioning the chroma block into one or more chroma leaf blocks using a chroma partition tree; if a cross-colour component prediction mode is allowed, determining whether to enable an Linear Model, LM, mode for a target chroma leaf block based on a first split type applied to an ancestor chroma node of the target chroma leaf block and a second split type applied to a corresponding ancestor luma node; and encoding or decoding the target chroma leaf block using the LM mode if the LM mode is enabled for the target chroma leaf block, wherein when the second split type corresponds to no split and the first split type corresponds to no split, quadtree, QT, split, horizontal binary tree, HorBT, split with no further split, or HorBT split followed by vertical binary tree, VerBT, split, the LM mode for the target chroma leaf block is enabled.