mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a bio-based polyester fiber comprising the steps of: contacting a bio-based MEG composition with a diacid composition to form a polyester composition; and spinning and/or drawing the resulting polyester composition into a fiber; wherein the bio-based MEG composition comprises: a) monoethylene glycol (MEG); b) from 1 ppm to 5000 ppm of at least one C 3 -C 12 1,2-diol, wherein the C 3 -C 12 1,2-diol is linear, branched, or cyclic; and c) 2-[(5-methyltetrahydro-2-furanyl)methoxy]ethanol. contacting a bio-based MEG composition with a diacid composition to form a polyester composition; and spinning and/or drawing the resulting polyester composition into a fiber; wherein the bio-based MEG composition comprises: a) monoethylene glycol (MEG); b) from 1 ppm to 5000 ppm of at least one C 3 -C 12 1,2-diol, wherein the C 3 -C 12 1,2-diol is linear, branched, or cyclic; and c) 2-[(5-methyltetrahydro-2-furanyl)methoxy]ethanol. a) monoethylene glycol (MEG); b) from 1 ppm to 5000 ppm of at least one C 3 -C 12 1,2-diol, wherein the C 3 -C 12 1,2-diol is linear, branched, or cyclic; and c) 2-[(5-methyltetrahydro-2-furanyl)methoxy]ethanol.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one groove , in which groove a longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for an oscillating arm , wherein said oscillating arm can be pivotally connected to said connecting device about a pivot axis near one end, wherein said connecting device comprises at least two parts provided with protrusion/hole means arranged for pivotally and detachably connecting said parts together through a snapping operation, wherein the first part is retained onto the wiper blade and wherein the second part comprises a channel arranged for inserting said oscillating arm therein, wherein said windscreen wiper device is provided with retaining means arranged for retaining said connecting device onto said oscillating arm , characterised in that said retaining means comprises at least one upwardly extending protrusion on the second part , wherein said protrusion is movable relative to the second part between an inward position, wherein in mounted position said protrusion engages into a correspondingly shaped hole provided in said oscillating arm and said connecting device is retained onto said oscillating arm , and an outward position, wherein in dismounted position said protrusion disengages from said hole provided in said oscillating arm and said connecting device is released from said oscillating arm , wherein said second part comprises a lever provided with said protrusion , and wherein said lever is hingeable between said inward position and said outward position, and wherein said first part comprises a stop surface arranged to force said lever to hinge from said inward position into said outward position upon pivoting said second part relative to said first part until said lever abuts said stop surface on said first part .
Permanently elastic facing brick, produced from a composition comprising at least one polymer dispersion as organic binder and a filler combination, which on the one hand comprises a coarse filler component with a mean d50 particle size of more than 100 μm and on the other hand comprises a fine filler component with a mean d50 particle size of at most 100 μm, the proportion of parts by weight of the fine filler component to the coarse filler component being >0.2; the mean d50 particle size of the fine filler component lying between 2 and 100 μm and the mean d50 particle size of the coarse filler component lying between 101 and 2000 μm, and the coarse filler component consisting to an extent of at least 60 wt.% of material with a Mohs hardness ≥5, characterised in that the fine filler component consists to an extent of at least 60 wt.% of material with a Mohs hardness ≤4 and has an average oil absorption value according to DIN EN ISO 787-5 of less than 40g/100g.
Polynucleotide, characterized by the fact of encoding a polypeptide with immunosuppressive activity, selected from the group consisting of: (a) polynucleotides consisting of a sequence of nucleotides as presented on SEQ ID NO: 1; (b) polynucleotides encoding a polypeptide consisting of an amino acid sequence as presented on SEQ ID NO: 2; (c) polynucleotides encoding a polypeptide consisting of an amino acid sequence as presented on SEQ ID NO: 3; (d) polynucleotides encoding a polypeptide consisting of an amino acid sequence as presented on SEQ ID NO: 5 or SEQ ID NO: 9; (e) degenerated nucleotide sequences of (a) - (d); (f) polynucleotides which are at least 99% identical to the nucleotide acid molecule of SEQ ID NO: 1. (a) polynucleotides consisting of a sequence of nucleotides as presented on SEQ ID NO: 1; (b) polynucleotides encoding a polypeptide consisting of an amino acid sequence as presented on SEQ ID NO: 2; (c) polynucleotides encoding a polypeptide consisting of an amino acid sequence as presented on SEQ ID NO: 3; (d) polynucleotides encoding a polypeptide consisting of an amino acid sequence as presented on SEQ ID NO: 5 or SEQ ID NO: 9; (e) degenerated nucleotide sequences of (a) - (d); (f) polynucleotides which are at least 99% identical to the nucleotide acid molecule of SEQ ID NO: 1.
A self-locking gear comprising: a rotatable input element ; an internally toothed outer gear , which is configured to act as an output element ; an externally toothed inner gear , which is arranged within the outer gear and which has a smaller diameter and fewer teeth than the outer gear ; and a plurality of eccentric elements extending parallel to the input element , wherein each of the eccentric elements is arranged in a corresponding circular opening formed within the inner gear such that the eccentric element is rotatable around a first axis (B1) extending through the center of the respective circular opening ; wherein the input element is drivingly coupled to at least two eccentric elements such as to rotate each of the at least two eccentric elements around a respective second axis (B2), which extends parallel and eccentric to the first axis (B1) of the respective eccentric element ; wherein each eccentric element comprises a first cylindrical portion , which is rotatably received within the corresponding circular opening formed in the inner gear , with the axis of the first cylindrical portion being the first axis (B1); characterized in that each of the at least two eccentric elements comprises a second cylindrical portion , with the axis of the second cylindrical portion being the second axis (B2). a rotatable input element ; an internally toothed outer gear , which is configured to act as an output element ; an externally toothed inner gear , which is arranged within the outer gear and which has a smaller diameter and fewer teeth than the outer gear ; and a plurality of eccentric elements extending parallel to the input element , wherein each of the eccentric elements is arranged in a corresponding circular opening formed within the inner gear such that the eccentric element is rotatable around a first axis (B1) extending through the center of the respective circular opening ; wherein the input element is drivingly coupled to at least two eccentric elements such as to rotate each of the at least two eccentric elements around a respective second axis (B2), which extends parallel and eccentric to the first axis (B1) of the respective eccentric element ; wherein each eccentric element comprises a first cylindrical portion , which is rotatably received within the corresponding circular opening formed in the inner gear , with the axis of the first cylindrical portion being the first axis (B1); characterized in that each of the at least two eccentric elements comprises a second cylindrical portion , with the axis of the second cylindrical portion being the second axis (B2).
An incubator including: a housing defining a chamber ; an air inlet 16 for introducing air into the chamber; a first air outlet for discharging air from the chamber, the first air outlet being spaced from the air inlet; a stack of operatively vertically spaced first trays disposed within the chamber, between the air inlet and the first air outlet; and a first means for tilting the stack of first trays on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet; a stack of operatively vertically spaced first deflectors are disposed operatively upstream of the first trays for, in use, dividing the airflow from the air inlet to the first air outlet into streams of airflow directed over the first trays; and the incubator further includes a second means for tilting the first deflectors on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet, in use to align the first deflectors with the first trays; characterised in that : each first deflector is generally V-shaped, tapering: from a first end proximal a first tray with which the first deflector is associated, which first end of the taper is sized and shaped to correspond to the inlet-facing side of the associated first tray; towards the air inlet. a housing defining a chamber ; an air inlet 16 for introducing air into the chamber; a first air outlet for discharging air from the chamber, the first air outlet being spaced from the air inlet; a stack of operatively vertically spaced first trays disposed within the chamber, between the air inlet and the first air outlet; and a first means for tilting the stack of first trays on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet; a stack of operatively vertically spaced first deflectors are disposed operatively upstream of the first trays for, in use, dividing the airflow from the air inlet to the first air outlet into streams of airflow directed over the first trays; and the incubator further includes a second means for tilting the first deflectors on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet, in use to align the first deflectors with the first trays; from a first end proximal a first tray with which the first deflector is associated, which first end of the taper is sized and shaped to correspond to the inlet-facing side of the associated first tray; towards the air inlet.
A method for encoding a large field of view video into a bitstream, at least one picture of said large field of view video being represented as a surface, said surface being projected onto at least one 2D picture using a projection function, said method comprising: - determining, according to said projection function, for a current region of said 2D picture, at least one item of information associated with an encoding module, said at least one item of information defining a region of said 2D picture to be used as a neighboring region of said current region during encoding of blocks of said current region by said encoding module, in replacement of a spatially neighboring region of said 2D picture, - determining, for a current block of said current region, a group of neighboring blocks responsive to said at least one item of information, and - encoding said current block using said determined group of neighboring blocks, wherein encoding said current block comprising processing said current block by said encoding module using said determined group of neighboring blocks. - determining, according to said projection function, for a current region of said 2D picture, at least one item of information associated with an encoding module, said at least one item of information defining a region of said 2D picture to be used as a neighboring region of said current region during encoding of blocks of said current region by said encoding module, in replacement of a spatially neighboring region of said 2D picture, - determining, for a current block of said current region, a group of neighboring blocks responsive to said at least one item of information, and - encoding said current block using said determined group of neighboring blocks,
A tubular fibrous structure with lobes , characterized in that it is formed in one piece over at least two lobes, and in that its circumferential fibers have a constant orientation with respect to the longitudinal axis (A) of said structure, in any plane (P) transverse to said axis, and in that it is obtained by weaving or by filament winding.
Self-propelled and self-steering floor cleaning appliance, comprising a drive unit for traveling on a floor surface to be cleaned, a cleaning unit , which has a wiping roller for wet-cleaning the floor surface and a sweeping roller for sweeping the floor surface , a cleaning liquid container for a cleaning liquid, as well as at least one dirt container (60; 122, 124) for dirt collected from the floor surface , wherein the floor surface is cleanable with the sweeping roller and the wiping roller in the same operation, characterized in that the floor cleaning appliance (120; 130; 140; 150; 160) comprises a first dirt container for accommodating dirt swept up with the sweeping roller and a second dirt container for accommodating dirt collected with the wiping roller .
Installation (E) for treating contaminated precipitation water with an adsorbing filter substrate (S) contained in a filter housing arranged in an underground tank (T) forming a sedimentation chamber allocated to the filter substrate (S) and having at least one intake (Z), out of which underground tank (T) at least an extraction string and/or an overflow pipe (U) extends, characterized in that in the filter housing installed approximately vertically in a tank dome of the underground tank (T) at least one layer of a granular filter material is contained and oriented crosswise to the through flow direction to define a respective fine filter stage, the layer defining the filter substrate (S) together with a coarse filter stage, that the filter housing is substantially pot shaped, is provided with an upper ring part having at least one exterior intake socket piece , underneath the ring part a chamber for the coarse filter stage and has underneath the chamber at least one accommodating chamber for the at least one layer and underneath of the accommodating chamber a catching funnel including a connecting socket part being open at the lower side, and wherein the filter substrate (S) is placed by its accommodation in the filter housing such that the filter substrate (S) is flown through by the precipitation water from the intake side.
A method, comprising: at an electronic device in a system that includes network traffic, wherein at least a portion of the network traffic includes packets, at least a portion of the packets include a stack, and at least a portion of each stack includes one or more previously allocated labels: determining a synonymous label as synonymous with a previously allocated label from one of the one or more previously allocated labels, the synonymous label being adapted to trigger an action in the system that the previously allocated label is not adapted to trigger; and replacing the previously allocated label in a specific stack of a specific packet with the synonymous label, wherein the synonymous label identifies a source of the specific packet, and wherein the routing and forwarding behavior of the specific packet with the synonymous label is the same as the specific packet without the synonymous label. at an electronic device in a system that includes network traffic, wherein at least a portion of the network traffic includes packets, at least a portion of the packets include a stack, and at least a portion of each stack includes one or more previously allocated labels: determining a synonymous label as synonymous with a previously allocated label from one of the one or more previously allocated labels, the synonymous label being adapted to trigger an action in the system that the previously allocated label is not adapted to trigger; and replacing the previously allocated label in a specific stack of a specific packet with the synonymous label, wherein the synonymous label identifies a source of the specific packet, determining a synonymous label as synonymous with a previously allocated label from one of the one or more previously allocated labels, the synonymous label being adapted to trigger an action in the system that the previously allocated label is not adapted to trigger; and replacing the previously allocated label in a specific stack of a specific packet with the synonymous label, wherein the synonymous label identifies a source of the specific packet, and wherein the routing and forwarding behavior of the specific packet with the synonymous label is the same as the specific packet without the synonymous label.
A viscoelastic strain sensor comprising: a sensing layer including a viscoelastic material , the viscoelastic material including a viscoelastic hydrogel and a conductive nanofiller , wherein the viscoelastic material has a fractional resistance change that increases with an increase of an applied tensile strain, wherein the viscoelastic material has a fractional resistance change that decreases with an applied compressional strain, wherein the conductive nanofiller includes MXene, the sensor further comprising: a base layer on which the sensing layer is formed; and a protection layer that covers the sensing layer; and wherein the MXene of the conductive nanofiller is in the form of MXene nanosheets that are randomly distributed inside the viscoelastic hydrogel. a sensing layer including a viscoelastic material , the viscoelastic material including a viscoelastic hydrogel and a conductive nanofiller , wherein the viscoelastic material has a fractional resistance change that increases with an increase of an applied tensile strain, wherein the viscoelastic material has a fractional resistance change that decreases with an applied compressional strain, wherein the conductive nanofiller includes MXene, the sensor further comprising: a base layer on which the sensing layer is formed; and a protection layer that covers the sensing layer; and wherein the MXene of the conductive nanofiller is in the form of MXene nanosheets that are randomly distributed inside the viscoelastic hydrogel. a base layer on which the sensing layer is formed; and a protection layer that covers the sensing layer; and wherein the MXene of the conductive nanofiller is in the form of MXene nanosheets that are randomly distributed inside the viscoelastic hydrogel.
A method comprising: measuring resource allocations of waves within resources that are shared by processor cores (111-114) in a multithreaded processor concurrently with the waves executing on the processor cores; averaging, at the multithreaded processor , the measured resource allocations over a time interval to generate an average resource allocation; and spawning, at the multithreaded processor , a number of waves, the number of waves based on a change in the average resource allocation relative to a previous average resource allocation from a previous time interval and dispatching the spawned waves for execution in the multithreaded processor . measuring resource allocations of waves within resources that are shared by processor cores (111-114) in a multithreaded processor concurrently with the waves executing on the processor cores; averaging, at the multithreaded processor , the measured resource allocations over a time interval to generate an average resource allocation; and spawning, at the multithreaded processor , a number of waves, the number of waves based on a change in the average resource allocation relative to a previous average resource allocation from a previous time interval and dispatching the spawned waves for execution in the multithreaded processor .
A process for producing a dilute fabric conditioner, the fabric conditioner comprising: a. 0.5 to 4 wt. % quaternary ammonium fabric softening active; b. 0.1 to 4 wt. % perfume microcapsules; and c. 0.01 to 4 wt. % cationic polymer; the process comprising the steps of: i. Dispersing the perfume microcapsules in water; ii. Add the fabric softening active; and iii. Adding the polymer. a. 0.5 to 4 wt. % quaternary ammonium fabric softening active; b. 0.1 to 4 wt. % perfume microcapsules; and c. 0.01 to 4 wt. % cationic polymer; i. Dispersing the perfume microcapsules in water; ii. Add the fabric softening active; and iii. Adding the polymer.
Scleritin for its use in a dermatological treatment as an agent for protecting cells against toxic agents.
A frame synchronization method, comprising: Completing (S101), by user equipment, synchronization of a first frame transmitted on a first frequency, and determining a first moment of the synchronization of the first frame, wherein the user equipment supports first-frequency communication and second-frequency communication; Obtaining (S102), by the user equipment, a receive time difference, wherein the receive time difference is a time difference between a moment at which the user equipment receives a second frame transmitted on a second frequency and a moment at which the user equipment receives the first frame; and Completing (SI03), by the user equipment, synchronization of the second frame according to the receive time difference and the first moment, wherein after the completing, by the user equipment, synchronization of the second frame according to the receive time difference and the first moment, the method further comprises: determining, by the user equipment, a second moment of the synchronization of the second framed and a time difference between the first moment and the second moment, and reporting the time difference between the first moment and the second moment to a base station. Completing (S101), by user equipment, synchronization of a first frame transmitted on a first frequency, and determining a first moment of the synchronization of the first frame, wherein the user equipment supports first-frequency communication and second-frequency communication; Obtaining (S102), by the user equipment, a receive time difference, wherein the receive time difference is a time difference between a moment at which the user equipment receives a second frame transmitted on a second frequency and a moment at which the user equipment receives the first frame; and Completing (SI03), by the user equipment, synchronization of the second frame according to the receive time difference and the first moment, wherein after the completing, by the user equipment, synchronization of the second frame according to the receive time difference and the first moment, the method further comprises: determining, by the user equipment, a second moment of the synchronization of the second framed and a time difference between the first moment and the second moment, and reporting the time difference between the first moment and the second moment to a base station. determining, by the user equipment, a second moment of the synchronization of the second framed and a time difference between the first moment and the second moment, and reporting the time difference between the first moment and the second moment to a base station.