mhurhangee/patent-ind-claim-en huggingface dataset:
An end treatment array for attenuating the forces generated by a vehicular impact, comprising: a transition barrier module fabricated of plastic and comprising first and second side walls, first and second end walls, a top wall, and a bottom wall, the module walls together defining a substantially enclosed interior space, the interior space being hollow and unfilled with any ballasting material, the transition barrier module having a predetermined width and length; and a containment impact sled comprising an axially extending frame , said frame having a width sufficient to contain the transition barrier module within said frame when in an assembled configuration, and having an axial length which is at least one-half the length of said transition barrier module, the frame defining an interior volume; wherein the containment impact sled is attached to the transition barrier module in said assembled configuration. a transition barrier module fabricated of plastic and comprising first and second side walls, first and second end walls, a top wall, and a bottom wall, the module walls together defining a substantially enclosed interior space, the interior space being hollow and unfilled with any ballasting material, the transition barrier module having a predetermined width and length; and a containment impact sled comprising an axially extending frame , said frame having a width sufficient to contain the transition barrier module within said frame when in an assembled configuration, and having an axial length which is at least one-half the length of said transition barrier module, the frame defining an interior volume; wherein the containment impact sled is attached to the transition barrier module in said assembled configuration.
A state-of-charge, SOC, estimation method of a battery pack, comprising: obtaining a current resting time, a current battery temperature, and a current measured open circuit voltage corresponding to a current initial power-on time of the battery pack (S101, S201, S501); and determining an SOC value corresponding to the current initial power-on time according to the current resting time, the current battery temperature, the current measured open circuit voltage, and a relational expression between an open circuit voltage, a resting time, a battery temperature, and an SOC value at predetermined different battery temperatures (S102, S202, S502), wherein the step of determining the SOC value corresponding to the current initial power-on time (S102, S202, S501) comprises: determining an open circuit voltage closest to the current measured open circuit voltage according to the current resting time, the current battery temperature, and a relational expression of open circuit voltages corresponding to multiple different SOC values at the predetermined different battery temperatures; and determining the SOC value corresponding to the current initial power-on time according to the determined open circuit voltage closest to the current measured open circuit voltage and its corresponding SOC value. obtaining a current resting time, a current battery temperature, and a current measured open circuit voltage corresponding to a current initial power-on time of the battery pack (S101, S201, S501); and determining an SOC value corresponding to the current initial power-on time according to the current resting time, the current battery temperature, the current measured open circuit voltage, and a relational expression between an open circuit voltage, a resting time, a battery temperature, and an SOC value at predetermined different battery temperatures (S102, S202, S502), wherein the step of determining the SOC value corresponding to the current initial power-on time (S102, S202, S501) comprises: determining an open circuit voltage closest to the current measured open circuit voltage according to the current resting time, the current battery temperature, and a relational expression of open circuit voltages corresponding to multiple different SOC values at the predetermined different battery temperatures; and determining the SOC value corresponding to the current initial power-on time according to the determined open circuit voltage closest to the current measured open circuit voltage and its corresponding SOC value. determining an open circuit voltage closest to the current measured open circuit voltage according to the current resting time, the current battery temperature, and a relational expression of open circuit voltages corresponding to multiple different SOC values at the predetermined different battery temperatures; and determining the SOC value corresponding to the current initial power-on time according to the determined open circuit voltage closest to the current measured open circuit voltage and its corresponding SOC value.
A blender comprising: a body including a motor providing driving force and a vacuum pump sucking air; a container detachably mounted on the body and including a processing member rotatably mounted at an inner portion of a lower side thereof and a container cover air-tightly mounted in an upper opening thereof; and a first vacuum tube connected to the vacuum pump ; characterized in that it further comprises: a soundproofing cover mounted on the body so as to cover the container , detachable from the body to be completely separated from the body , an opening of one end of the soundproofing cover being closed by the body when the soundproofing cover is mounted on the body ; and a second vacuum tube of which one end portion is connected to an end portion of the first vacuum tube and of which the other end portion is disposed in the vicinity of an exhaust hole , when the soundproofing cover is mounted on the body , and in that the exhaust hole allows an inner portion of the container and an internal space of the soundproofing cover to be in communication with each other and is formed in the container or the container cover , wherein one end portion of the first vacuum tube is exposed to the internal space when the soundproofing cover is mounted on the body . a body including a motor providing driving force and a vacuum pump sucking air; a container detachably mounted on the body and including a processing member rotatably mounted at an inner portion of a lower side thereof and a container cover air-tightly mounted in an upper opening thereof; and a first vacuum tube connected to the vacuum pump ; characterized in that it further comprises: a soundproofing cover mounted on the body so as to cover the container , detachable from the body to be completely separated from the body , an opening of one end of the soundproofing cover being closed by the body when the soundproofing cover is mounted on the body ; and a second vacuum tube of which one end portion is connected to an end portion of the first vacuum tube and of which the other end portion is disposed in the vicinity of an exhaust hole , when the soundproofing cover is mounted on the body , a soundproofing cover mounted on the body so as to cover the container , detachable from the body to be completely separated from the body , an opening of one end of the soundproofing cover being closed by the body when the soundproofing cover is mounted on the body ; and a second vacuum tube of which one end portion is connected to an end portion of the first vacuum tube and of which the other end portion is disposed in the vicinity of an exhaust hole , when the soundproofing cover is mounted on the body , and in that the exhaust hole allows an inner portion of the container and an internal space of the soundproofing cover to be in communication with each other and is formed in the container or the container cover , wherein one end portion of the first vacuum tube is exposed to the internal space when the soundproofing cover is mounted on the body .
A method performed by a base station of a wireless communication network, the method comprising: generating parameters that define a plurality of potential, Physical Downlink Control Channel, PDCCH, monitoring occasions, each of said PDCCH monitoring occasions having a number of OFDM symbols which is of at least one OFDM symbol but not more than 4 OFDM symbols, and transmitting the parameters over a radio interface to a wireless device; sad method being characterized in that said parameters further define a plurality of paging occasions, wherein each one of the plurality of paging occasions includes a respective subset of the plurality of PDCCH monitoring occasions, wherein each of said subsets is a burst of potential PDCCH monitoring occasions, wherein each of two consecutive paging occasions are spaced apart in time with at least one of the potential PDCCH monitoring occasions therebetween not being included in any of the plurality of paging occasions. generating parameters that define a plurality of potential, Physical Downlink Control Channel, PDCCH, monitoring occasions, each of said PDCCH monitoring occasions having a number of OFDM symbols which is of at least one OFDM symbol but not more than 4 OFDM symbols, and transmitting the parameters over a radio interface to a wireless device;
A flow path assembly for a gas turbine engine , the flow path assembly comprising: a combustor dome positioned a forward end of a combustor of a combustion section of the gas turbine engine ; an outer wall ; and an inner wall extending from the combustor dome through at least the combustion section , wherein the combustor dome extends radially from the outer wall to the inner wall , and wherein the combustor dome , outer wall , and inner wall are integrally formed such that the combustor dome , outer wall , and inner wall 120 are a single unitary structure; characterized in that the outer wall extends from the combustor dome through at least a first turbine stage of a turbine section of the gas turbine engine , the first turbine stage including a nozzle portion and a blade portion . a combustor dome positioned a forward end of a combustor of a combustion section of the gas turbine engine ; an outer wall ; and an inner wall extending from the combustor dome through at least the combustion section , wherein the combustor dome extends radially from the outer wall to the inner wall , and wherein the combustor dome , outer wall , and inner wall are integrally formed such that the combustor dome , outer wall , and inner wall 120 are a single unitary structure; characterized in that the outer wall extends from the combustor dome through at least a first turbine stage of a turbine section of the gas turbine engine , the first turbine stage including a nozzle portion and a blade portion .
A method of producing a sequence polymorphism cluster (SPC) map of a genomic region of interest comprising the steps of: a. obtaining the nucleic acid sequence of said genomic region of interest from a plurality of subjects; b. identifying a plurality of polymorphisms in said nucleic acid sequences; and c. identifying one or more SPCs, wherein each SPC comprises a subset of polymorphisms from said nucleic acid sequence wherein said polymorphisms of said subset coincide with each other polymorphism of said subset, wherein the percentage coincidence of the minor alleles of said polymorphisms of said subset is between 75% and 100%. a. obtaining the nucleic acid sequence of said genomic region of interest from a plurality of subjects; b. identifying a plurality of polymorphisms in said nucleic acid sequences; and c. identifying one or more SPCs, wherein each SPC comprises a subset of polymorphisms from said nucleic acid sequence wherein said polymorphisms of said subset coincide with each other polymorphism of said subset, wherein the percentage coincidence of the minor alleles of said polymorphisms of said subset is between 75% and 100%.
A recombinant immunoglobulin heavy chain comprising a VH-domain a CH1 domain a hinge region down to the C-terminal most cysteine of the middle hinge region, a sortase conjugation loop, a CH2 domain and a CH3 domain, wherein the sortase conjugation loop a) consists of at least 16 amino acids located between the C-terminal most cysteine of the middle hinge region and the VFX1FPP (SEQ ID NO: 2; wherein X1 is L or I) consensus sequence at the N-terminus of an immunoglobulin heavy chain CH2-domain, b) comprises a sortase recognition motif consisting of the amino acid sequence LPX1TX2 (SEQ ID NO: 01), wherein X1 can be any amino acid residue and X2 is G or A, c) comprises N-terminal to the sequence of (b) at least two amino acids, d) comprises C-terminal to the sequence of (b) at least 6 amino acids, and e) wherein the amino acids C- and N-terminal to the sequence of (b) are not cysteine. a) consists of at least 16 amino acids located between the C-terminal most cysteine of the middle hinge region and the VFX1FPP (SEQ ID NO: 2; wherein X1 is L or I) consensus sequence at the N-terminus of an immunoglobulin heavy chain CH2-domain, b) comprises a sortase recognition motif consisting of the amino acid sequence LPX1TX2 (SEQ ID NO: 01), wherein X1 can be any amino acid residue and X2 is G or A, c) comprises N-terminal to the sequence of (b) at least two amino acids, d) comprises C-terminal to the sequence of (b) at least 6 amino acids, and e) wherein the amino acids C- and N-terminal to the sequence of (b) are not cysteine.
An applicator , comprising: at least a first plunger element comprising a first energy-mass system , the first plunger element having a first restrained position and a second extended position, the first plunger element comprising a distal end on which at least one microprojection can be retained; at least a second energy-mass system , wherein the first and second energy-mass systems each has a different time constant, and each energy-mass system has a first restrained position and a second extended position; and an actuating member that can convey an external force to at least the first plunger element to release the first plunger element from the first restrained position; wherein the first energy-mass system has a faster time constant than the second energy-mass system such that the first plunger element impacts a subject by multiple, discrete impacts. at least a first plunger element comprising a first energy-mass system , the first plunger element having a first restrained position and a second extended position, the first plunger element comprising a distal end on which at least one microprojection can be retained; at least a second energy-mass system , wherein the first and second energy-mass systems each has a different time constant, and each energy-mass system has a first restrained position and a second extended position; and an actuating member that can convey an external force to at least the first plunger element to release the first plunger element from the first restrained position; wherein the first energy-mass system has a faster time constant than the second energy-mass system such that the first plunger element impacts a subject by multiple, discrete impacts.
A multilayer laminate consisting of: a support layer defining two oppositely directed faces; a first release layer disposed on one of the faces of the support layer; a second release layer disposed on another of the faces of the support layer; at least one preformed image or graphic disposed on the first release layer; a clear coat layer disposed between the first release layer and the image or graphic and at least one adhesive layer disposed on the image or graphic; wherein the release force of the first release layer is greater than the release force of the second release layer. a support layer defining two oppositely directed faces; a first release layer disposed on one of the faces of the support layer; a second release layer disposed on another of the faces of the support layer; at least one preformed image or graphic disposed on the first release layer; a clear coat layer disposed between the first release layer and the image or graphic and at least one adhesive layer disposed on the image or graphic; wherein the release force of the first release layer is greater than the release force of the second release layer.
Sledge comprising a pneumatic mattress having a lower wall arranged to allow said sledge to slide, an upper wall arranged to allow at least one user to sit on it, and a peripheral wall connecting said lower and upper walls, said sledge being equipped with at least one braking system comprising a lever forming a lower shoe actuated by an upper handle , said lever being rotatably mounted in a casing between an inactive position in which the shoe is retracted towards the casing and a braking position by pulling on the handle to cause said shoe to project from the lower wall , said sledge being characterized in that the peripheral wall is equipped with a device for reversibly securing the casing thereto, said device comprising at least one strap which is removably associated with the casing between a configuration for clamping said casing to said peripheral wall and a configuration for disassembling said casing.
Insulating board or mat, made of a mixture of wood fibres and a bicomponent material consisting of a carrier and a thermally activatable lignin-containing material as a binder, the lignin-containing material being present as a sheath applied to the carrier, characterised in that the carrier consists of plastic support fibres.
A method of manufacturing a grease collector pad , the method comprising: blending wool fibers with flame resistant viscose fibers to create a blend of fibers in a ratio as much as 95% wool fibers and 5% flame resistant viscose fibers or as much as 95% flame resistant viscose fibers and 5% wool fibers; carding the blend into a fiber web; layering the fiber web into a blended fiber wadding using a cross lapping machine; creating a bonding emulsion comprising a binder and a fire retardant; diluting the bonding emulsion; and applying the diluted bonding emulsion to the blended fiber wadding by spraying the top and the bottom of the wadding. blending wool fibers with flame resistant viscose fibers to create a blend of fibers in a ratio as much as 95% wool fibers and 5% flame resistant viscose fibers or as much as 95% flame resistant viscose fibers and 5% wool fibers; carding the blend into a fiber web; layering the fiber web into a blended fiber wadding using a cross lapping machine; creating a bonding emulsion comprising a binder and a fire retardant; diluting the bonding emulsion; and applying the diluted bonding emulsion to the blended fiber wadding by spraying the top and the bottom of the wadding.
A method of audio signal processing, the method comprising: receiving a data block of an audio signal comprising a first number of samples; for each sample of the first number of samples, slicing a portion of the audio signal corresponding to the sample into a particular number of sub-samples; wherein the portion of the audio signal corresponding to the sample is a portion of the audio signal between the sample and a next sample immediately subsequent to the sample; wherein the slicing the portion of the audio signal corresponding to the sample into the particular number of sub-samples comprises obtaining a linear interpolation on the sample and the next sample, wherein the particular number of sub-samples are evenly distributed on the linear interpolation; resampling the data block of the audio signal into a second number of samples; wherein the resampling of the data block of the audio signal into the second number of samples comprises selecting the second number of samples based on a total number of sub-samples within the data block, wherein the total number of sub-samples within the data block is a multiplication of the first number and the particular number, wherein the second number of samples are evenly distributed within the total number of sub-samples; wherein the second number is equal to the first number plus one. receiving a data block of an audio signal comprising a first number of samples; for each sample of the first number of samples, slicing a portion of the audio signal corresponding to the sample into a particular number of sub-samples; wherein the portion of the audio signal corresponding to the sample is a portion of the audio signal between the sample and a next sample immediately subsequent to the sample; wherein the slicing the portion of the audio signal corresponding to the sample into the particular number of sub-samples comprises obtaining a linear interpolation on the sample and the next sample, wherein the particular number of sub-samples are evenly distributed on the linear interpolation; resampling the data block of the audio signal into a second number of samples; wherein the resampling of the data block of the audio signal into the second number of samples comprises selecting the second number of samples based on a total number of sub-samples within the data block, wherein the total number of sub-samples within the data block is a multiplication of the first number and the particular number, wherein the second number of samples are evenly distributed within the total number of sub-samples; wherein the second number is equal to the first number plus one.
A feminine hygiene pad comprising a liquid-permeable topsheet, a liquid-impermeable backsheet, and an absorbent layer disposed between the topsheet and the backsheet, wherein the topsheet comprises a hydrophilic fibrous nonwoven web material comprising spun bicomponent fibers and a wearer-facing layer of spun monocomponent fibers, and having a capillary work potential in drainage or desorption mode CWPD; wherein the absorbent layer comprises an open-celled foam formed through polymerization of a HIPE; wherein the absorbent layer has a capillary work potential in absorption mode CWPA greater than the CWPD, and has a caliper (prior to wetting) of 1 mm to 5 mm, or more preferably 1.5 mm to 3.5 mm, or even more preferably 2.0 mm to 3.0 mm; wherein the topsheet and the absorbent layer are disposed in direct face-to-face relationship with each other, and attached to each other within a bonding region of at least 15 cm 2 , more preferably at least 30 cm 2 , and even more preferably at least half of a surface area of a wearer-facing surface of the absorbent layer wherein within the bonding region, each first identifiable point of attachment between the topsheet and the absorbent layer has a neighboring second identifiable point of attachment between the topsheet and the absorbent layer within a 6 mm radius of the first identifiable point of attachment; and wherein the absorbent layer comprises at least two absorbent sublayers comprising a relatively larger-celled, wearer-facing sublayer disposed in contact with a relatively smaller-celled, outward-facing sublayer. wherein the topsheet comprises a hydrophilic fibrous nonwoven web material comprising spun bicomponent fibers and a wearer-facing layer of spun monocomponent fibers, and having a capillary work potential in drainage or desorption mode CWPD; wherein the absorbent layer comprises an open-celled foam formed through polymerization of a HIPE; wherein the absorbent layer has a capillary work potential in absorption mode CWPA greater than the CWPD, and has a caliper (prior to wetting) of 1 mm to 5 mm, or more preferably 1.5 mm to 3.5 mm, or even more preferably 2.0 mm to 3.0 mm; wherein the topsheet and the absorbent layer are disposed in direct face-to-face relationship with each other, and attached to each other within a bonding region of at least 15 cm 2 , more preferably at least 30 cm 2 , and even more preferably at least half of a surface area of a wearer-facing surface of the absorbent layer wherein within the bonding region, each first identifiable point of attachment between the topsheet and the absorbent layer has a neighboring second identifiable point of attachment between the topsheet and the absorbent layer within a 6 mm radius of the first identifiable point of attachment; and wherein the absorbent layer comprises at least two absorbent sublayers comprising a relatively larger-celled, wearer-facing sublayer disposed in contact with a relatively smaller-celled, outward-facing sublayer.