mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a synchronization signal block, SSB, comprising: transmitting, by a terminal device, an SSB by using a resource set within a slot, wherein the SSB comprises a sidelink primary synchronization signal, S-PSS, a sidelink secondary synchronization signal, S-SSS, and a physical sidelink broadcast channel, PSBCH, the resource set comprises two orthogonal frequency division multiplexing, OFDM, symbols used for the S-PSS, two OFDM symbols used for the S-SSS, positions of the OFDM symbols used for the S-PSS are in front of positions of the OFDM symbols used for the S-SSS, the two OFDM symbols used for the S-PSS are adjacent in time domain, the two OFDM symbols used for the S-SSS are adjacent in time domain, the second symbol used for the S-PSS is adjacent in time domain to the first symbol used for the S-SSS, a symbol in front of the S-PSS is used for the PSBCH, and a symbol after the S-SSS is used for the PSBCH, a first OFDM symbol and a last OFDM symbol within the SSB are used for the PSBCH, there is one or two symbols used for the PSBCH in front of the S-PSS, and there is one or two symbols used for the PSBCH after the S-SSS, resources used for PSBCH transmission include resources used for both PSBCH payload and DMRS, and the DMRS are mapped to resource elements of a resource block, RB, which is used to map the PSBCH payload; wherein comb-like resource mapping is applied to PSBCH on the first and last OFDM symbols, the rest resource elements on the first and last OFDM symbols which are not mapped by PSBCH are left empty. transmitting, by a terminal device, an SSB by using a resource set within a slot, wherein the SSB comprises a sidelink primary synchronization signal, S-PSS, a sidelink secondary synchronization signal, S-SSS, and a physical sidelink broadcast channel, PSBCH, the resource set comprises two orthogonal frequency division multiplexing, OFDM, symbols used for the S-PSS, two OFDM symbols used for the S-SSS, positions of the OFDM symbols used for the S-PSS are in front of positions of the OFDM symbols used for the S-SSS, the two OFDM symbols used for the S-PSS are adjacent in time domain, the two OFDM symbols used for the S-SSS are adjacent in time domain, the second symbol used for the S-PSS is adjacent in time domain to the first symbol used for the S-SSS, a symbol in front of the S-PSS is used for the PSBCH, and a symbol after the S-SSS is used for the PSBCH, a first OFDM symbol and a last OFDM symbol within the SSB are used for the PSBCH, there is one or two symbols used for the PSBCH in front of the S-PSS, and there is one or two symbols used for the PSBCH after the S-SSS, resources used for PSBCH transmission include resources used for both PSBCH payload and DMRS, and the DMRS are mapped to resource elements of a resource block, RB, which is used to map the PSBCH payload; wherein comb-like resource mapping is applied to PSBCH on the first and last OFDM symbols, the rest resource elements on the first and last OFDM symbols which are not mapped by PSBCH are left empty.
An electrode suitable for electrochlorination processes comprising a valve metal substrate and at least one active layer comprising a catalytic composition of ruthenium, titanium and at least a first doping agent X or oxides thereof, wherein ruthenium is between 20-50%, titanium is equal or below 79,5% and X is between 0,5-7% expressed in weight percentage referred to the elements, X being selected from the group consisting of scandium, strontium, hafnium and combinations of at least two of scandium, strontium, hafnium, bismuth, zirconium, aluminium.
A smoking article (180,190,200,700,720,740,760,780,800,830), comprising: a first part (181,191,201,701,721,741,761,781,801,831), a second part (183,193,203,703,723,743,763,783,803,833) movable relative to the first part, and further comprising a control mechanism comprising a first control surface (188a,198a,208a,709,729,749,769,789,809,840,850) on one of the first part or second part; and a second control surface (188b,198b,208b,710,730,750,768b,790,810,860) on the other of the first and second parts, wherein the second control surface is configured to engage with the first control surface to control relative movement between the first part and second part, characterized in that the first control surface comprises a ridge (852,862) between adjacent depressions (854,864) which defines a single circumferential point of maximum resistance to movement of the second control surface between the adjacent depressions. a first part (181,191,201,701,721,741,761,781,801,831), a second part (183,193,203,703,723,743,763,783,803,833) movable relative to the first part, and further comprising a control mechanism comprising a first control surface (188a,198a,208a,709,729,749,769,789,809,840,850) on one of the first part or second part; and a second control surface (188b,198b,208b,710,730,750,768b,790,810,860) on the other of the first and second parts, wherein the second control surface is configured to engage with the first control surface to control relative movement between the first part and second part, characterized in that the first control surface comprises a ridge (852,862) between adjacent depressions (854,864) which defines a single circumferential point of maximum resistance to movement of the second control surface between the adjacent depressions.
A goggle comprising: a lens; a goggle frame defining opposing lateral portions and a central portion, the goggle frame comprising a bridge disposed at the central portion of the goggle frame, the bridge comprising a nosepiece section, the goggle frame being generally flexible upon exertion of a bending force on the goggle frame, the lens is curved when not experiencing flexural stress; the goggle frame comprises an anterior frame portion and a posterior frame portion spaced apart from the anterior frame portion, the anterior frame portion configured to support the lens, and the posterior frame portion covered by a cushion component and configured to conform to the surface of a wearer's face; characterized by a bend control component extending along the bridge of the goggle frame, the bend control component being attached to the anterior frame portion of the goggle frame, the bend control component comprising a generally elongate body having first and second ends, the bend control component having an inverted V shape that generally follows the contour of the nosepiece section, the nosepiece section having one or more engagement structures, the bend control component having one or more engagement members that engage the one or more engagement structures to secure the bend control component to the nosepiece section of the goggle frame, the bend control component being configured to enhance flexural strength of the goggle at the bridge thereof for reducing bending of the goggle frame at the bridge. a lens; a goggle frame defining opposing lateral portions and a central portion, the goggle frame comprising a bridge disposed at the central portion of the goggle frame, the bridge comprising a nosepiece section, the goggle frame being generally flexible upon exertion of a bending force on the goggle frame, the lens is curved when not experiencing flexural stress; the goggle frame comprises an anterior frame portion and a posterior frame portion spaced apart from the anterior frame portion, the anterior frame portion configured to support the lens, and the posterior frame portion covered by a cushion component and configured to conform to the surface of a wearer's face; characterized by a bend control component extending along the bridge of the goggle frame, the bend control component being attached to the anterior frame portion of the goggle frame, the bend control component comprising a generally elongate body having first and second ends, the bend control component having an inverted V shape that generally follows the contour of the nosepiece section, the nosepiece section having one or more engagement structures, the bend control component having one or more engagement members that engage the one or more engagement structures to secure the bend control component to the nosepiece section of the goggle frame, the bend control component being configured to enhance flexural strength of the goggle at the bridge thereof for reducing bending of the goggle frame at the bridge.
A runback system configured to receive fluid from a deicing system on an aircraft the runback system comprising: a body (202, 302); a first channel (212a,312) defined by the body, the first channel comprising: a first floor (228, 328); and a pair of first walls (230,330) extending from the first floor to a distal surface (210,310) of the body; and a second channel (212b,312) defined by the body, the second channel comprising: a second floor (228, 328); and a pair of second walls (230,330) extending from the second floor to a distal surface (210,310) of the body, characterized in that the first channel and the second channel are oriented in a V configuration such that a first end (214a,314) of the first channel is spaced apart from a first end (214b,314) of the second channel, and a second end (216a,316) of the first channel and a second end of the second channel meet and form an outlet at an aft end (204,304) of the body. a body (202, 302); a first channel (212a,312) defined by the body, the first channel comprising: a first floor (228, 328); and a pair of first walls (230,330) extending from the first floor to a distal surface (210,310) of the body; and a second channel (212b,312) defined by the body, the second channel comprising: a second floor (228, 328); and a pair of second walls (230,330) extending from the second floor to a distal surface (210,310) of the body, characterized in that the first channel and the second channel are oriented in a V configuration such that a first end (214a,314) of the first channel is spaced apart from a first end (214b,314) of the second channel, and a second end (216a,316) of the first channel and a second end of the second channel meet and form an outlet at an aft end (204,304) of the body. a first floor (228, 328); and a pair of first walls (230,330) extending from the first floor to a distal surface (210,310) of the body; and a second channel (212b,312) defined by the body, the second channel comprising: a second floor (228, 328); and a pair of second walls (230,330) extending from the second floor to a distal surface (210,310) of the body, characterized in that the first channel and the second channel are oriented in a V configuration such that a first end (214a,314) of the first channel is spaced apart from a first end (214b,314) of the second channel, and a second end (216a,316) of the first channel and a second end of the second channel meet and form an outlet at an aft end (204,304) of the body. a second floor (228, 328); and a pair of second walls (230,330) extending from the second floor to a distal surface (210,310) of the body, characterized in that the first channel and the second channel are oriented in a V configuration such that a first end (214a,314) of the first channel is spaced apart from a first end (214b,314) of the second channel, and a second end (216a,316) of the first channel and a second end of the second channel meet and form an outlet at an aft end (204,304) of the body.
A resin composition comprising, based on a total of 100 parts by weight consisting of 30 to 99 parts by weight of a resin (component A), which is composed of 10 to 100 wt% of a polycarbonate-polydiorganosiloxane copolymer resin (component A1) and 0 to 90 wt% of an aromatic polycarbonate resin (component A2), and 1 to 70 parts by weight of a polyester resin (component B), 10 to 50 parts by weight of a filler (component C) which is surface-treated with a silane coupling agent having alkyl group, wherein the content of a rubber-like polymer is 3 parts by weight or less.
A process for drying a lactic acid bacteria-containing concentrate (which optionally contains one or more additives, such as a cryo protectant and/or a stabilizer) comprising: i) freezing said bacteria-containing concentrate with liquid nitrogen; and ii) freeze-drying said frozen bacteria-containing concentrate obtained in step i); wherein step ii) is performed under the following conditions: a) a pressure in the range of 0.2 to 2.0 mBar, such as in the range of 0.5 to 2.0 mBar; and b) a heating plate temperature in the range of 55 to 80 degrees C; wherein the said bacteria is not Lactobacillus rhamnosus LGG having ATCC no. 53103. i) freezing said bacteria-containing concentrate with liquid nitrogen; and ii) freeze-drying said frozen bacteria-containing concentrate obtained in step i); a) a pressure in the range of 0.2 to 2.0 mBar, such as in the range of 0.5 to 2.0 mBar; and b) a heating plate temperature in the range of 55 to 80 degrees C;
A method for disintegrating spray cans filled in particular with a compressed gas, wherein the spray cans are introduced into an impact reactor, which has a substantially cylindrical main body, in the internal space of which a rotor rotates with at least one impact element, said internal space being sealed off in an airtight manner from the ambient environment, and said impact element making contact with the spray cans introduced into the internal space and disintegrating said cans into subcomponents by producing a high momentum transfer, characterized in that the spray cans are supplied to the impact reactor under exclusion of ambient air, are disintegrated within its internal space, and the produced subcomponents of the spray cans are mixed with a binder, which is supplied under exclusion of ambient air to the internal space of the impact reactor, and the mixture of subcomponents of the spray cans and the binder is conveyed under exclusion of entering ambient air out of the internal space of the impact reactor.
A non-return mechanism for a motor of an electric curtain, the non-return mechanism comprising a motor and a gearbox that are successively connected, wherein the output end of the gearbox is connected with a non-return component; the non-return component comprises a flange, an output shaft and a non-return block; the flange is internally provided with an accommodating cavity (3.1); the end portion of one end of the output shaft toward the gearbox is provided with at least one arc-shaped groove (4.1) that is concave along the radial direction; the non-return block is accommodated within the arc-shaped groove (4.1); the output end of the gearbox is provided with an output bracket configured such that when the motor drives the output bracket to rotate, the output bracket pokes the non-returning block, and the non-returning block pushes against the inner wall of the arc-shaped groove (4.1) of the output shaft; the output bracket is in unidirectional drive fit with one end of the output shaft toward the gearbox, thereby driving the output shaft to synchronously rotate, and they fit within the accommodating cavity (3.1); the non-return block is arranged at the joint of the output bracket and the output shaft; at least two fasteners (3.5) are equidistantly arranged on the peripheral wall of the flange, clamping grooves (2.1) matched with the fasteners (3.5) are accordingly formed on the gearbox and the fasteners (3.5) are matched with the clamping grooves (2.1) so that the flange is fixedly connected with an outer wall of the gearbox; characterized in that one end of the flange away from the gearbox is provided with a through hole (3.2); the through hole (3.2) is communicated with the accommodating cavity (3.1); a step surface (3.3) is formed on the joint of the through hole (3.2) and the accommodating cavity (3.1); a locating step (4.5) matched with the step surface (3.3) is formed on the output shaft; one end of the output shaft away from the gearbox penetrates through the through hole (3.2) and is exposed outside the flange; an annular slot (4.6) is formed on the portion of the output shaft exposed outside the flange; a circlip is clamped on the annular slot (4.6); the circlip clings to the end surface of one end of the flange away from the gearbox.
Base structure of a tent for arrangement on a ground, comprising - a plurality of floor supports, which - are oriented horizontally and in parallel to each other, and - have open accommodation grooves (12a, 12b) facing each other for inserting bottom segments, - a plurality of longitudinal supports (20, 26), which - are arranged horizontally, in parallel to each other, and orthogonal in relation to the floor supports, - are connected to two adjacent floor supports, characterized in that the tent base structure includes - at least one ballast body (80, 88), wherein the ballast body (80, 88) has an essentially cuboid-shaped design to achieve a high ballast effect with low volume, which is configured such that the ballast body (80, 88) fills at least 70 % of the volume of an imaginary smallest cuboid, where the ballast body just fits in completely, wherein the ballast body (80, 88) is arranged such that its weight force, without a longitudinal support (20, 26) interposed, acts on a floor support loaded with the ballast body. - a plurality of floor supports, which - are oriented horizontally and in parallel to each other, and - have open accommodation grooves (12a, 12b) facing each other for inserting bottom segments, - are oriented horizontally and in parallel to each other, and - have open accommodation grooves (12a, 12b) facing each other for inserting bottom segments, - a plurality of longitudinal supports (20, 26), which - are arranged horizontally, in parallel to each other, and orthogonal in relation to the floor supports, - are connected to two adjacent floor supports, - are arranged horizontally, in parallel to each other, and orthogonal in relation to the floor supports, - are connected to two adjacent floor supports, - at least one ballast body (80, 88), wherein the ballast body (80, 88) has an essentially cuboid-shaped design to achieve a high ballast effect with low volume, which is configured such that the ballast body (80, 88) fills at least 70 % of the volume of an imaginary smallest cuboid, where the ballast body just fits in completely,
A distributed storage method, comprising: splitting a data file to generate K data slices, splitting each data slice of the K data slices to generate M data blocks for each data slice, and performing check coding on the M data blocks by using a redundancy algorithm to generate N check blocks; determining, by using a random algorithm, a first physical storage node corresponding to one data block or one check block of the M data blocks or the N check blocks, and determining at least M+1 different physical storage nodes based on the first physical storage node and according to a first sorting manner that conforms to a preset rule; and separately storing at least M+1 blocks of the M data blocks and the N check blocks onto the at least M+1 different physical storage nodes, wherein K, M, and N are positive integers. splitting a data file to generate K data slices, splitting each data slice of the K data slices to generate M data blocks for each data slice, and performing check coding on the M data blocks by using a redundancy algorithm to generate N check blocks; determining, by using a random algorithm, a first physical storage node corresponding to one data block or one check block of the M data blocks or the N check blocks, and determining at least M+1 different physical storage nodes based on the first physical storage node and according to a first sorting manner that conforms to a preset rule; and separately storing at least M+1 blocks of the M data blocks and the N check blocks onto the at least M+1 different physical storage nodes, wherein K, M, and N are positive integers.
Outsole for footwear extending along a toe-to-heel direction and comprising a tread arranged on a bottom surface of a midsole, said midsole having a heel portion with at least one through-opening which extends transversely with respect to said toe-to-heel direction; said heel portion being provided with a slit which extends along the toe-to-heel direction, intercepting said at least one through-opening so as to divide it into two parts (8a, 8b); said slit being open at the front and being delimited by a side wall which extends downwards from a base portion, said outsole being characterized in that the tread comprises a portion which extends inside said slit, so as to cover solely the side wall leaving exposed the base portion of the slit, wherein said portion of the tread is provided with at least two holes which are designed to match the holes (20a, 20b) defined at the intersection between the two parts (8a, 8b), into which said at least one opening is divided, and the slit, so that, although the tread extends inside the slit, each said at least one opening remains a through-opening.
Switchgear arrangement having an insulating material nozzle at least partially enclosing a switch path with a nozzle channel which opens out into a hot gas space in which is arranged a deflector element (15a, 15b, 15c) with deflector channel (14a, 14b, 14c), wherein extinguishing gas discharging from the nozzle channel in the discharge direction into the hot gas space is diverted into the deflector channel (14a, 14b, 14c), characterized in that the deflector channel (14a, 14b, 14c) has a section which is bounded by a sleeve surface in the shape of a truncated cone and has an expanding cross section in the discharge direction, and the section forms a transition between a substantially cylindrical sleeve surface and a tapered section.
A compressible delivery formulation for transmucosal delivery of at least one compound comprising: a micronized powder base; and a dessicated liposome formulation comprising at least one liposome containing at least one compound in an amount sufficient to form a unitary dosage form containing from 10 μg to 500 mg of said compound; wherein said compound is an active ingredient, a mucosal absorption enhancer, or combinations thereof; wherein said micronized powder base is chosen from an inert powdered base, an active powdered base having improved transmucosal permeation, or combinations thereof; wherein said inert powdered base is chosen from a maltodextrin, a microcrystalline cellulose, sucrose, xylitol, sorbitol, mannitol, or combinations thereof; and wherein said active powdered base is chosen from a caffeine, theobromine, theophylline, a plant extract with bioavailable components, and creatine, characterized by the dessicated liposome formulation being formed by spraying a liposome formulation suspended in a water based solvent on said micronized powder base at a temperature at a nozzle head aperture of about 60°C or less to evaporate said water based solvent and desiccate said liposome, wherein about 0.4 L to about 1.0 L of said liposome formulation suspended in a water based solvent is sprayed per about 1 kg of said micronized powder base. a micronized powder base; and a dessicated liposome formulation comprising at least one liposome containing at least one compound in an amount sufficient to form a unitary dosage form containing from 10 μg to 500 mg of said compound; wherein said compound is an active ingredient, a mucosal absorption enhancer, or combinations thereof; wherein said micronized powder base is chosen from an inert powdered base, an active powdered base having improved transmucosal permeation, or combinations thereof; wherein said inert powdered base is chosen from a maltodextrin, a microcrystalline cellulose, sucrose, xylitol, sorbitol, mannitol, or combinations thereof; and wherein said active powdered base is chosen from a caffeine, theobromine, theophylline, a plant extract with bioavailable components, and creatine, characterized by the dessicated liposome formulation being formed by spraying a liposome formulation suspended in a water based solvent on said micronized powder base at a temperature at a nozzle head aperture of about 60°C or less to evaporate said water based solvent and desiccate said liposome, wherein about 0.4 L to about 1.0 L of said liposome formulation suspended in a water based solvent is sprayed per about 1 kg of said micronized powder base.