mhurhangee/ep-ind-claims huggingface dataset:
A method for converting a time frame of a multichannel audio signal into output audio content comprising audio objects, metadata comprising a spatial position for each audio object, and bed channels, wherein the multichannel audio signal comprises a plurality of channels in a first configuration, each channel in the first configuration having a predetermined position pertaining to a loudspeaker setup and defined in a predetermined coordinate system, the method comprising the steps of: a) receiving the time frame of the multichannel audio signal, characterized in that the method further comprises b) extracting at least one audio object from the time frame of the multichannel audio signal, the audio object being extracted from a specific subset of the plurality of channels, and for each audio object of the at least one audio object: c) estimating a spatial position of the audio object, d) based on the spatial position of the audio object, estimating a risk that a rendered version of the audio object in channels in the first configuration will be rendered in channels with predetermined positions differing from the predetermined positions of the specific subset of the plurality of channels from which the object was extracted, e) determining whether the risk exceeds a threshold, and f) upon determining that the risk does not exceed the threshold, include the audio object and metadata comprising the spatial position of the audio object in the output audio content. a) receiving the time frame of the multichannel audio signal, characterized in that the method further comprises b) extracting at least one audio object from the time frame of the multichannel audio signal, the audio object being extracted from a specific subset of the plurality of channels, and for each audio object of the at least one audio object: c) estimating a spatial position of the audio object, d) based on the spatial position of the audio object, estimating a risk that a rendered version of the audio object in channels in the first configuration will be rendered in channels with predetermined positions differing from the predetermined positions of the specific subset of the plurality of channels from which the object was extracted, e) determining whether the risk exceeds a threshold, and f) upon determining that the risk does not exceed the threshold, include the audio object and metadata comprising the spatial position of the audio object in the output audio content.
Container for a tobacco related product, comprising at least one storage compartment for storing the tobacco related product; at least one closure element for providing controlled access to the storage compartment; a first adhesive element comprising an adhesive layer and a cover layer disposed on the adhesive layer; and a second adhesive element comprising a release layer, wherein the cover layer is configured for lowering the adhesive strength of the adhesive layer such that the first adhesive element is generally non-tacky, and wherein the first adhesive element is configured for specifically and selectively adhering to a release layer of the second adhesive element.
A slat connecting system for a roll-up truck bed cover comprising an array (2;55) of a plurality of contiguously arranged elongated slats (1;40;40') and a plurality of flexible elongated seal members (3;3'), wherein the elongated slats (1;40;40') are pivotably hinged together, wherein an elongated slat (1;40; 40') comprises a main slat body having a first elongated edge and an opposite second elongated edge, a first elongated hinge member (4;42;56) is provided in the vicinity of the first elongated edge along its length, and a second elongated hinge member is provided in the vicinity of the second elongated edge along its length, the first elongated hinge member (4;42;56) of a slat (1;40;40') of the array (2;55) of the plurality of contiguously arranged elongated slats (1;40;40') is configured for being pivotably interconnected to the second elongated hinge member of the adjacent slat (1;40;40') of said array (2;55), characterised in that the first elongated hinge member (4;42;56) has a first coupling groove member (12;41;41') having a first groove opening (13;43) facing away from the second elongated hinge member, the first coupling groove member (12;41;41') extends into a coupling hook having a hook opening facing towards the second elongated hinge member, and wherein the first coupling groove member (12;41;41') is closer to the main slat body than the coupling hook, the first coupling groove member (12;41;41') is disposed at least partly laterally retracted from the first elongated edge below the main slat body and accommodates a part of the flexible elongated seal member (3;3') which extends between adjacent slats (1;40;40').
An electrical apparatus enclosure assembly comprising, in a preparation configuration, an electrical apparatus enclosure having sealable outlet means (1, 8) adapted to allow partial evacuation of the enclosure, and sealable inlet means (2, 9) adapted to allow partial filling of the enclosure with a liquid; and comprising, in a use configuration, the electrical apparatus enclosure comprising the liquid, an electrical apparatus located within the enclosure, and the electrical apparatus enclosure assembly further comprises a saturated vapour from the liquid, wherein the liquid has a vapour pressure at operating temperatures of the electrical apparatus and the saturated vapour enhances electrical isolation of the electrical apparatus and provides convective cooling thereof, characterised in that, in the use configuration, the electrical apparatus enclosure is partially evacuated and the inlet means (2, 9) and the outlet means (1, 8) are hermetically sealed.
A component for a gas turbine engine, comprising: an outer surface bounding a hot gas path of the gas turbine engine; a cooling passage configured to deliver a cooling airflow therethrough, including: a passage wall located opposite the outer surface to define a component thickness; a plurality of protrusions arranged in a plurality of protrusion rows and located along the passage wall, each protrusion having a protrusion height extending from the passage wall and a protrusion streamwise width extending along the passage wall in a flow direction of the cooling airflow through the cooling passage; and a plurality of cooling holes extending from the passage wall to the outer surface, characterised in that each cooling hole of the plurality of cooling holes having a cooling hole inlet at the passage wall located in a protrusion wake region downstream of an associated protrusion of the plurality of protrusions; characterised in that a ratio of protrusion streamwise spacing to protrusion diameter is 2.5 or less. an outer surface bounding a hot gas path of the gas turbine engine; a cooling passage configured to deliver a cooling airflow therethrough, including: a passage wall located opposite the outer surface to define a component thickness; a plurality of protrusions arranged in a plurality of protrusion rows and located along the passage wall, each protrusion having a protrusion height extending from the passage wall and a protrusion streamwise width extending along the passage wall in a flow direction of the cooling airflow through the cooling passage; and a plurality of cooling holes extending from the passage wall to the outer surface, characterised in that each cooling hole of the plurality of cooling holes having a cooling hole inlet at the passage wall located in a protrusion wake region downstream of an associated protrusion of the plurality of protrusions; characterised in that a ratio of protrusion streamwise spacing to protrusion diameter is 2.5 or less. a passage wall located opposite the outer surface to define a component thickness; a plurality of protrusions arranged in a plurality of protrusion rows and located along the passage wall, each protrusion having a protrusion height extending from the passage wall and a protrusion streamwise width extending along the passage wall in a flow direction of the cooling airflow through the cooling passage; and a plurality of cooling holes extending from the passage wall to the outer surface, characterised in that each cooling hole of the plurality of cooling holes having a cooling hole inlet at the passage wall located in a protrusion wake region downstream of an associated protrusion of the plurality of protrusions; characterised in that a ratio of protrusion streamwise spacing to protrusion diameter is 2.5 or less.
A recombinant host cell for manufacturing a protein of interest, wherein the host cell is engineered to underexpress at least one polynucleotide encoding a KO protein having an amino acid sequence as shown in SEQ ID NO: 10, 11, or 12 or a homologue thereof compared to the host cell prior to genetic manipulation to achieve underexpression, wherein underexpression is achieved by knocking-out the polynucleotide encoding the KO protein or a homologue thereof from the genome of said host cell, disrupting the polynucleotide encoding the KO protein or a homologue thereof in the host cell, disrupting a promoter which is operably linked with said polynucleotide encoding the KO protein or a homologue thereof, replacing the promoter which is operably linked with said polynucleotide encoding the KO protein or a homologue thereof with another promoter which has lower promoter activity, or disrupting expression control sequences of the KO protein or a homologue thereof, such as ribosomal binding sites, transcriptional start and stop sequences, translational start and stop sequences, and enhancer or activator sequences, wherein the homologue has at least 35% sequence identity to an amino acid sequence as shown in SEQ ID NO: 10 or 11 or at least 40% sequence identity to an amino acid sequence as shown in SEQ ID NO: 12.
A microelectromechanical pressure sensor structure that comprises a planar base, side walls and a diaphragm plate, wherein the side walls extend as a circumference to a first distance away from the planar base; the diaphragm plate has a planar inner surface that extends on top of the side walls, and an outer surface opposite the inner surface on the diaphragm plate; the planar base, the side walls and the diaphragm plate are attached to each other; a top edge of inner surfaces of the side walls forms a periphery of a rotationally symmetrical or oblong diaphragm, a nominal thickness of the diaphragm equals to the distance from the inner surface to the outer surface of the diaphragm plate at the periphery of the diaphragm; the outer surface of the diaphragm plate includes a planar surface part that includes a periphery of a rotationally symmetrical or oblong recess within the periphery of the diaphragm, a depth of which extends parallel to the side walls and is less than the nominal thickness of the diaphragm; the diaphragm has a length and a width in the plane of the inner surface, wherein the length is in a direction of the longest extent of the diaphragm, and the width is in a direction perpendicular to the direction of the length in the inner surface, characterized in that a width of the recess on a planar surface part of the outer surface extends parallel to the direction of the width of the diaphragm, and the width of the recess is 0.4 to 0.7 times the width of the diaphragm and in that the diaphragm plate is a monolayer structure. the side walls extend as a circumference to a first distance away from the planar base; the diaphragm plate has a planar inner surface that extends on top of the side walls, and an outer surface opposite the inner surface on the diaphragm plate; the planar base, the side walls and the diaphragm plate are attached to each other; a top edge of inner surfaces of the side walls forms a periphery of a rotationally symmetrical or oblong diaphragm, a nominal thickness of the diaphragm equals to the distance from the inner surface to the outer surface of the diaphragm plate at the periphery of the diaphragm; the outer surface of the diaphragm plate includes a planar surface part that includes a periphery of a rotationally symmetrical or oblong recess within the periphery of the diaphragm, a depth of which extends parallel to the side walls and is less than the nominal thickness of the diaphragm; the diaphragm has a length and a width in the plane of the inner surface, wherein the length is in a direction of the longest extent of the diaphragm, and the width is in a direction perpendicular to the direction of the length in the inner surface, characterized in that a width of the recess on a planar surface part of the outer surface extends parallel to the direction of the width of the diaphragm, and the width of the recess is 0.4 to 0.7 times the width of the diaphragm and in that the diaphragm plate is a monolayer structure.
Barrier system with a plurality of posts, wherein a post comprises a section secured to a base plate, and two or more rails (6, 7, 8) attached to the posts and wherein one or more of the posts are provided with a weakened zone in the section to enable deformation in a predetermined way, wherein the weakened zone comprises at least one slot in the length direction of the section and wherein the system comprises at least a first and a second rail attached to the posts with the first rail below the upper end of the slot and with the second rail positioned above the upper end of the slot.
A method of fabricating an organic light emitting device, comprising: (a) depositing a first organic layer over a first electrode; (b) depositing a second organic layer (351, 352, 353) over and in physical contact with the first organic layer, wherein the second organic layer (351, 352, 353) comprises a small molecule emissive material, the second organic layer (351, 352, 353) is a patterned layer deposited by solution processing, the first organic layer is insoluble in the solution used to deposit the second organic layer (351, 352, 353), and the first organic layer comprises a cross-linked material; (c) depositing a second electrode over the second organic layer (351, 352, 353); and (d) depositing a third organic layer over the first electrode prior to depositing the first organic layer wherein the second organic layer (351, 352, 353) is deposited via ink-jet printing and comprises three distinct small molecule emissive materials, patterned into three distinct regions (351, 352, 353) capable of emitting first, second and third spectra of light, respectively. (a) depositing a first organic layer over a first electrode; (b) depositing a second organic layer (351, 352, 353) over and in physical contact with the first organic layer, wherein the second organic layer (351, 352, 353) comprises a small molecule emissive material, the second organic layer (351, 352, 353) is a patterned layer deposited by solution processing, the first organic layer is insoluble in the solution used to deposit the second organic layer (351, 352, 353), and the first organic layer comprises a cross-linked material; the second organic layer (351, 352, 353) comprises a small molecule emissive material, the second organic layer (351, 352, 353) is a patterned layer deposited by solution processing, the first organic layer is insoluble in the solution used to deposit the second organic layer (351, 352, 353), and the first organic layer comprises a cross-linked material; (c) depositing a second electrode over the second organic layer (351, 352, 353); and (d) depositing a third organic layer over the first electrode prior to depositing the first organic layer wherein the second organic layer (351, 352, 353) is deposited via ink-jet printing and comprises three distinct small molecule emissive materials, patterned into three distinct regions (351, 352, 353) capable of emitting first, second and third spectra of light, respectively.
A method for growing a single crystal silicon ingot in a continuous Czochralski process, the method comprising: forming a melt of silicon in a crucible assembly; adding a batch of buffer members to the melt, the buffer members being made of quartz, the batch having a mass M; contacting a surface of the melt with a seed crystal; withdrawing a single crystal silicon ingot from the melt, the single crystal silicon ingot comprising a main body, there being a time T between adding the batch of buffer members to the melt and start of growth of the main body; controlling the ratio of M/T to be greater than 40 grams per hour to reduce void counts in wafers sliced from the single crystal silicon ingot; and adding solid polycrystalline silicon feedstock to the crucible assembly while withdrawing the single crystal silicon ingot to replenish the melt. forming a melt of silicon in a crucible assembly; adding a batch of buffer members to the melt, the buffer members being made of quartz, the batch having a mass M; contacting a surface of the melt with a seed crystal; withdrawing a single crystal silicon ingot from the melt, the single crystal silicon ingot comprising a main body, there being a time T between adding the batch of buffer members to the melt and start of growth of the main body; controlling the ratio of M/T to be greater than 40 grams per hour to reduce void counts in wafers sliced from the single crystal silicon ingot; and adding solid polycrystalline silicon feedstock to the crucible assembly while withdrawing the single crystal silicon ingot to replenish the melt.
A pneumatic power tool having a housing with a pressure air inlet passage, a rotation motor, a working implement carrying output shaft, and an over-speed safety device, which comprises: a valve element that is located in the pressure air inlet passage and is shiftable between an open position and a closed position, a motor speed responsive actuating mechanism arranged to accomplish shifting of the valve element from a normally open position to a closed position as the motor speed reaches an accepted maximum speed limit, and a retaining means provided to maintain the valve element in open position at normal motor speed levels and to release the valve element for movement toward the closed position when actuated by the actuating mechanism, c h a r a c t e r i z e d in that the retaining means comprises an axially displaceable latch spindle coupled to the actuating mechanism for being displaced between a valve element locking position and a valve element releasing position at the maximum speed limit, said latch spindle having a varying width in its axial direction including a support surface and one or more waist portions (25,26) located axially adjacent the support surface, the valve element being provided with one or more protrusions (22,23) arranged to rest against said support surface to keep the valve element in the open position but to lose contact with said support surface as the latch spindle is axially displaced from its valve element locking position to its valve element releasing position, thereby allowing the protrusions to be received in the one or more waist portions (25,26), and thereby releasing the valve element for movement towards the closed position.
An induction unit for uniting air flows, comprising at least one induction duct coordinated with a primary air duct and having an upstream end and a downstream end and a straight reference line passing through the ends, and at least one first opening for a primary air flow, connected to the primary air duct and opening with concurrent flow into the induction duct, at least one secondary air intake for the intake of a secondary air flow to the induction duct from a space surrounding the induction unit, and at least one outlet designed to return an air flow resulting from the primary air flow and the secondary air flow to the space surrounding the induction unit, and that the secondary air intake is arranged at the upstream end of the induction duct, characterized in that the at least one first opening for the primary air flow is formed directly in a first duct wall between the induction duct and a first primary air duct, wherein the first duct wall has been profiled into a substantially z-like shape with a waist running transversely to the reference line A, in which each first opening is made and through which a primary air flow F1 directed with concurrent flow can be introduced into the induction duct 21 at a relatively small angle α to the reference line A and wherein the waist is suitably situated at approximately 1/3 of the distance between the secondary air intake and the outlet so that both the primary air flow itself and the secondary air flow generated thereby, and the resulting air flow are directed substantially parallel to the reference line of the induction duct.
Control armature, in particular field device, for controlling a process fluid flow in a process plant, such as a chemical plant, a food processing plant, a power plant or the like, with a control valve, a pneumatic actuator operating the control valve and a control armature position detection device comprising: - a housing; - a shaft rotatably supported in the housing and defining a rotation axis; and - a lever arm non-rotatably connected to the shaft and coupled to the control armature in such a way that a control armature stroke movement can be transmitted by the lever arm into a shaft rotation movement, wherein a holder is provided which is non-rotatably arranged on the shaft, on which a magnet is held, preferably clampingly, wherein a torsion spring oriented parallel to the shaft rotation axis is supported on the housing and the holder, in particular interlockingly, to build up a torsion spring force during a shaft rotational movement. - a housing; - a shaft rotatably supported in the housing and defining a rotation axis; and - a lever arm non-rotatably connected to the shaft and coupled to the control armature in such a way that a control armature stroke movement can be transmitted by the lever arm into a shaft rotation movement,
An integrally formed metal-plastic composite stationary blade for a blade set of a hair cutting appliance, said blade set being arranged to be moved through hair in a moving direction to cut hair, said stationary blade comprising: - a first wall portion arranged to serve as a skin facing wall when in operation, - a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade, - at least one toothed leading edge jointly formed by the first wall portion and the second wall portion, and - a plastic component comprising at least one mounting element, wherein the at least one toothed leading edge comprises a plurality of teeth, wherein the first wall portion and the second wall portion are integrally made from a metal component, particularly from a sheet metal component, wherein the first wall portion and the second wall portion mutually define an inner metal shell of the stationary blade, and wherein the plastic component is molded to the second wall portion. - a first wall portion arranged to serve as a skin facing wall when in operation, - a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade, - at least one toothed leading edge jointly formed by the first wall portion and the second wall portion, and - a plastic component comprising at least one mounting element,
A nuclear reactor comprising: a fissionable material, a molten salt, and a moderator material which comprises a zirconium hydride (ZrH x) in which x is between 1 and 4 characterized in that the nuclear reactor comprises a moderator structure formed of the moderator material and a pathway along which the fissionable material and molten salt can flow from an exit end of the moderator in a loop to an entrance end of the moderator structure.