mhurhangee/patent-ind-claim-en huggingface dataset:
An alumina fiber aggregate that is formed of alumina short fibers and has been subjected to needling treatment, wherein the alumina short fibers have an average fiber diameter of 6.0 μm or more and 10.0 μm or less as measured by the method in paragraphs to of the description and a specific surface area of 0.2 m 2 /g or more and 1.0 m 2 /g or less as measured by the method in paragraph of the description, and a residual percentage (%) of high-temperature-cycle opened gap pressure of the alumina fiber aggregate is 45% or more as measured by the method in paragraphs to of the description, characterized in that the alumina short fibers have a total pore volume of 2.5 × 10 -3 ml/g or less as measured by a BJH analysis using adsorption-side and desorption-side adsorption isotherms.
A vector comprising a nucleic acid encoding a synthetic HIV envelope protein, wherein the synthetic HIV envelope protein comprises or consists of the amino acid sequence of SEQ ID NO: 18.
A stand light comprising: a telescoping body including a main center shaft , an extension pole extendable out of the main center shaft , and a sleeve movably supported on the main center shaft ; a head assembly supported by the extension pole , the head assembly including a light source ; and a plurality of legs pivotally coupled to the body , the plurality of legs movable with the sleeve from a collapsed position to an extended position, in which distal ends of the plurality of legs are moved away from the body ; characterised in that a first of the plurality of legs includes a main portion and an aperture extending through the main portion to form a side portion , in that a second of the plurality of legs includes a main portion and an aperture extending through the main portion to form a side portion , and in that when the plurality of legs is in the collapsed position, the side portion of the first of the plurality of legs and the side portion of the second of the plurality of legs come together to form a handle configured to be grasped by a user. a telescoping body including a main center shaft , an extension pole extendable out of the main center shaft , and a sleeve movably supported on the main center shaft ; a head assembly supported by the extension pole , the head assembly including a light source ; and a plurality of legs pivotally coupled to the body , the plurality of legs movable with the sleeve from a collapsed position to an extended position, in which distal ends of the plurality of legs are moved away from the body ; characterised in that a first of the plurality of legs includes a main portion and an aperture extending through the main portion to form a side portion , in that a second of the plurality of legs includes a main portion and an aperture extending through the main portion to form a side portion , and in that when the plurality of legs is in the collapsed position, the side portion of the first of the plurality of legs and the side portion of the second of the plurality of legs come together to form a handle configured to be grasped by a user.
Shower or bath tub partition , comprising an upper rail-like carrier profile ; a door leaf which is guided in the carrier profile in a suspended manner by means of an upper guide device and which can be displaced linearly in the horizontal direction above a shower region or a bath tub between two lateral stops ; and a lower guide device which acts on a lower part of the door leaf , wherein the lower guide device has a central guide element (14, 14', 14", 14′′′) which is fastened and/or arranged between the two stops on the upper side of a portion of the shower region or of the bath tub that extends substantially parallel to the carrier profile , wherein exclusively a central guide element (14, 14', 14", 14′′′) is provided in in the shower or bath tub partition and is arranged substantially mid-way between the two lateral stops , or is arranged between the two lateral stops , wherein the door leaf , which can be displaced between an open position and a closed position , is actively moved into the respective end position by means of a spring-damper unit , comprising at least one spring-damper element , during movement into the open or closed position , wherein the spring-damper unit is received on the upper border of the door leaf , wherein activation elements are provided which come into engagement with the spring-damper unit before the respective end position of the open or closed position is reached, wherein the central guide element comprises two mutually opposite and spaced-apart individual component elements which, each separately from one another, are fastened in the region of the front and rear side of the door leaf on the portion of the shower region or of the bath tub that extends parallel to the carrier profile .
A method for transmitting identification information to a device in a lighting system , the lighting system comprising at least one lighting driver device , the method comprising steps of encoding the identification information to generate encoded identification information, switching the lighting driver device into an identification mode, emitting, by a lighting module controlled by the at least one lighting driver device , modulated light, wherein the modulated light includes the encoded identification information, wherein the identification information is encoded in a binary code format for transmission, the code format for transmission maps an identification information space with a first number of bits to a transmission code space with a second number of bits, wherein the second number of bits is larger than the first number of bits, characterized in that the lighting module is configured to emit the modulated light with a bit rate of 5 to 15 bits per second, preferably 10 bits per second, the first number of bits is four bits and the second number of bits is five bits, the encoded identification information is transmitted in at least two sequential code words, and the code format for transmission includes a mapping table with at maximum three sequential bits with a same bit value in a code word, at maximum four sequential bits with the same bit value in two consecutive code words, and at maximum two sequential bits with the same bit value at the start of the code words. switching the lighting driver device into an identification mode, emitting, by a lighting module controlled by the at least one lighting driver device , modulated light, wherein the modulated light includes the encoded identification information, wherein the identification information is encoded in a binary code format for transmission, the code format for transmission maps an identification information space with a first number of bits to a transmission code space with a second number of bits, wherein the second number of bits is larger than the first number of bits, characterized in that the lighting module is configured to emit the modulated light with a bit rate of 5 to 15 bits per second, preferably 10 bits per second, the first number of bits is four bits and the second number of bits is five bits, the encoded identification information is transmitted in at least two sequential code words, and the code format for transmission includes a mapping table with at maximum three sequential bits with a same bit value in a code word, at maximum four sequential bits with the same bit value in two consecutive code words, and at maximum two sequential bits with the same bit value at the start of the code words.
A positive electrode comprising: a nickel-containing positive electrode active material; and an additive including metal particles and lithium oxide. a nickel-containing positive electrode active material; and an additive including metal particles and lithium oxide.
A bearing comprising an inner bearing component and an outer bearing component , said outer bearing component and said inner bearing component being arranged coaxially to one another and adapted to rotate one with respect to the other around an axis of the bearing ; the inner bearing component comprising: an external cylindrical member having an outer bearing surface and an inner cavity; an internal cylindrical member , arranged in the inner cavity of the external cylindrical member and substantially coaxial thereto; wherein the external cylindrical member and the internal cylindrical member form a gap therebetween; and wherein a resilient damping feature (77; 78; 79) is arranged in the gap ; characterized by further comprising bearing pads on the outer bearing surface of the external cylindrical member and wherein the outer bearing component has an inner cylindrical bearing surface provided with a plurality of bearing pads arranged to co-act with the bearing pads on the outer bearing surface of the inner bearing component . the inner bearing component comprising: an external cylindrical member having an outer bearing surface and an inner cavity; an internal cylindrical member , arranged in the inner cavity of the external cylindrical member and substantially coaxial thereto; wherein the external cylindrical member and the internal cylindrical member form a gap therebetween; and wherein a resilient damping feature (77; 78; 79) is arranged in the gap ; characterized by further comprising bearing pads on the outer bearing surface of the external cylindrical member and wherein the outer bearing component has an inner cylindrical bearing surface provided with a plurality of bearing pads arranged to co-act with the bearing pads on the outer bearing surface of the inner bearing component .
A method comprising: placing a liquid medium comprising water and at least 10% solids of an unsaccharified electron beam irradiated lignocellulosic feedstock in a vessel; saccharifying the electron beam irradiated lignocellulosic feedstock in the vessel to form a sugar solution, and converting the sugar solution to a product, in the same vessel, utilizing an enzyme and/or a microorganism, wherein the method further comprises mixing with a jet mixer during saccharification, and wherein the irradiated lignocellulosic feedstock has been irradiated with a dose of at least 10 Mrad. placing a liquid medium comprising water and at least 10% solids of an unsaccharified electron beam irradiated lignocellulosic feedstock in a vessel; saccharifying the electron beam irradiated lignocellulosic feedstock in the vessel to form a sugar solution, and converting the sugar solution to a product, in the same vessel, utilizing an enzyme and/or a microorganism, wherein the method further comprises mixing with a jet mixer during saccharification, and wherein the irradiated lignocellulosic feedstock has been irradiated with a dose of at least 10 Mrad.
Method for selecting the target object for automatic distance control of a single-track motor vehicle , - in which the presence of a second single-track motor vehicle travelling directly ahead in the same lane and a third single-track motor vehicle travelling directly ahead of the second single-track motor vehicle is detected by means of a surroundings sensor system, - wherein the lateral offset (a) of the second single-track motor vehicle and the third single-track motor vehicle with respect to the single-track motor vehicle is ascertained, and - the target object for the method for distance control is selected depending on at least one of the lateral offsets (x), wherein, if the lateral offset (x) of the second single-track motor vehicle falls below a predefined first threshold value, the second single-track motor vehicle is selected as the target object, and if the lateral offset (x) of the second single-track motor vehicle exceeds a predefined second threshold value and the lateral offset (x) of the third single-track motor vehicle falls below a predefined third threshold value, the third single-track motor vehicle is selected as the target object, characterized in that the first threshold value and the second threshold value and the third threshold value are the same. - in which the presence of a second single-track motor vehicle travelling directly ahead in the same lane and a third single-track motor vehicle travelling directly ahead of the second single-track motor vehicle is detected by means of a surroundings sensor system, - wherein the lateral offset (a) of the second single-track motor vehicle and the third single-track motor vehicle with respect to the single-track motor vehicle is ascertained, and - the target object for the method for distance control is selected depending on at least one of the lateral offsets (x), wherein, if the lateral offset (x) of the second single-track motor vehicle falls below a predefined first threshold value, the second single-track motor vehicle is selected as the target object, and if the lateral offset (x) of the second single-track motor vehicle exceeds a predefined second threshold value and the lateral offset (x) of the third single-track motor vehicle falls below a predefined third threshold value, the third single-track motor vehicle is selected as the target object, characterized in that the first threshold value and the second threshold value and the third threshold value are the same.
Modular spray bar system for selective cooling and/or lubrication of rolls and/or rolling material, comprising at least one central connection block with at least one first fluid connection opening into a first main bore , which extends in the direction of a spray bar axis and which forms a part of a first main fluid channel of a spray bar , as well as at least one first transverse bore extending transversely of the first main bore and opening into a first fluid outlet opening ; at least two central expansion blocks connectible with the central connecting block , wherein each of the central expansion blocks comprises a first main bore , which extends in the direction of the spray bar axis and which forms a part of the first main fluid channel of the spray bar , as well as at least one first transverse bore , which extends transversely of the first main bore and opens into a first fluid outlet opening ; at least two outer expansion blocks connectible with the central expansion blocks , wherein each of the outer expansion blocks comprises a first main bore , which extends in the direction of the spray bar axis and which forms a part of the first main fluid channel of the spray bar , as well as at least one first transverse bore extending transversely of the first main bore and opening into a first fluid outlet opening ; at least two outer connection blocks , which are connectible with the outer expansion blocks , each with at least one respective second fluid connection opening into a first main bore , which extends in the direction of the spray bar axis and is closed at one end and which forms an end part of the first main fluid channel of the spray bar ; and at least one clamping element by means of which the spray bar formed from the different blocks can be clamped. at least two central expansion blocks connectible with the central connecting block , wherein each of the central expansion blocks comprises a first main bore , which extends in the direction of the spray bar axis and which forms a part of the first main fluid channel of the spray bar , as well as at least one first transverse bore , which extends transversely of the first main bore and opens into a first fluid outlet opening ; at least two outer expansion blocks connectible with the central expansion blocks , wherein each of the outer expansion blocks comprises a first main bore , which extends in the direction of the spray bar axis and which forms a part of the first main fluid channel of the spray bar , as well as at least one first transverse bore extending transversely of the first main bore and opening into a first fluid outlet opening ; at least two outer connection blocks , which are connectible with the outer expansion blocks , each with at least one respective second fluid connection opening into a first main bore , which extends in the direction of the spray bar axis and is closed at one end and which forms an end part of the first main fluid channel of the spray bar ; and at least one clamping element by means of which the spray bar formed from the different blocks can be clamped.
A method in a cellular telecommunications network in which one or more network nodes are configured to implement a first network slice, the method characterised by : identifying network slice capability data for the first network slice, the network slice capability data for the first network slice indicating the first network slice's capability for one or more metrics; sending the network slice capability data for the first network slice to a service provider ; receiving a message from the service provider permitting access to a version of the service using the first network slice; and initiating a connection of the User Equipment, UE, to the first network slice for accessing the version of the service. identifying network slice capability data for the first network slice, the network slice capability data for the first network slice indicating the first network slice's capability for one or more metrics; sending the network slice capability data for the first network slice to a service provider ; receiving a message from the service provider permitting access to a version of the service using the first network slice; and initiating a connection of the User Equipment, UE, to the first network slice for accessing the version of the service.
A method for determining the remaining capacity of a lithium-sulfur battery comprising the steps of, a) measuring the initial voltage drop value dV1 at any one point in the range of 0.01 to 0.3 sec after applying a constant current to the battery in an open-circuit state; b) measuring the late voltage drop value dV2 at any one point in the range of 0.5 sec to 20 sec after the application of the constant current; characterised by the following steps: c) computing the additional voltage drop value dV3 by Equation 1 below; d) Computing the value of X by Equation 2 below; and e) determining the remaining capacity (SOC, state of charge) of the battery from the X value: dV3 = dV2 − dV1 X = dV1 − dV3 . a) measuring the initial voltage drop value dV1 at any one point in the range of 0.01 to 0.3 sec after applying a constant current to the battery in an open-circuit state; b) measuring the late voltage drop value dV2 at any one point in the range of 0.5 sec to 20 sec after the application of the constant current; c) computing the additional voltage drop value dV3 by Equation 1 below; d) Computing the value of X by Equation 2 below; and e) determining the remaining capacity (SOC, state of charge) of the battery from the X value: dV3 = dV2 − dV1 X = dV1 − dV3 .
Battery module, comprising a plurality of batteries , a thermal conduction plate , and a temperature sensing element ; wherein the plurality of batteries are arranged in a length direction (L); the thermal conduction plate is located between the adjacent batteries and fits the batteries ; and the temperature sensing element is in contact with the thermal conduction plate ; wherein the battery module further comprises a fastening holder , the fastening holder comprises a surrounding wall and a hollow cavity encircled by the surrounding wall , the surrounding wall comprises a top wall , a bottom wall , and two side walls , the surrounding wall is provided with an accommodation groove , the aperture is located inside the accommodation groove , and the temperature sensing element is fastened to the accommodation groove and in contact with the exposed part of the thermal conduction plate , the accommodation groove is recessed inward relative to a surface of the top wall in the length direction (L), and the accommodation groove is located at one end of the top wall in a width direction (W), and the temperature sensing element is disposed at one end of the top wall in the width direction (W). the plurality of batteries are arranged in a length direction (L); the thermal conduction plate is located between the adjacent batteries and fits the batteries ; and the temperature sensing element is in contact with the thermal conduction plate ; wherein the battery module further comprises a fastening holder , the fastening holder comprises a surrounding wall and a hollow cavity encircled by the surrounding wall , the surrounding wall comprises a top wall , a bottom wall , and two side walls , the surrounding wall is provided with an accommodation groove , the aperture is located inside the accommodation groove , and the temperature sensing element is fastened to the accommodation groove and in contact with the exposed part of the thermal conduction plate , the accommodation groove is recessed inward relative to a surface of the top wall in the length direction (L), and the accommodation groove is located at one end of the top wall in a width direction (W), and the temperature sensing element is disposed at one end of the top wall in the width direction (W).
A semiconductor device structure comprising: a substrate of a first material type, the substrate having a first major surface and a second major surface; a first semiconductor region of a second material type on the first major surface of the substrate ; a trench extending into the first semiconductor region , the trench having sidewalls and a bottom surface ; a second semiconductor region of a third material type on the first semiconductor region and within the trench , wherein the second semiconductor region is configured to form a 2DEG having a first portion along a semi-polar plane and proximate to the sidewalls of the trench , and a second portion along a polar plane and proximate to the bottom surface of the trench ; a first current carrying electrode electrically coupled to the 2DEG; characterized by : a control electrode within the trench and configured to control at least the second portion of the 2DEG proximate to the bottom surface of the trench ; and a shield conductor layer within the trench and above the control electrode and separated from the control electrode by an insulating layer . a substrate of a first material type, the substrate having a first major surface and a second major surface; a first semiconductor region of a second material type on the first major surface of the substrate ; a trench extending into the first semiconductor region , the trench having sidewalls and a bottom surface ; a second semiconductor region of a third material type on the first semiconductor region and within the trench , wherein the second semiconductor region is configured to form a 2DEG having a first portion along a semi-polar plane and proximate to the sidewalls of the trench , and a second portion along a polar plane and proximate to the bottom surface of the trench ; a first current carrying electrode electrically coupled to the 2DEG; characterized by : a control electrode within the trench and configured to control at least the second portion of the 2DEG proximate to the bottom surface of the trench ; and a shield conductor layer within the trench and above the control electrode and separated from the control electrode by an insulating layer . a control electrode within the trench and configured to control at least the second portion of the 2DEG proximate to the bottom surface of the trench ; and a shield conductor layer within the trench and above the control electrode and separated from the control electrode by an insulating layer .
An arenavirus genome wherein at least one of the four arenavirus open reading frames of the genome coding for a glycoprotein (GP), a nucleoprotein (NP), a matrix protein Z, or a RNA dependent RNA polymerase L is removed or functionally inactivated, wherein the genome comprises a foreign ribonucleic acid, wherein the foreign ribonucleic acid codes for a protein or peptide of interest or is transcribed into a ribonucleic acid modulating host gene expression, and wherein an arenavirus particle comprising the genome is infectious, unable to produce further infectious progeny particles in non-complementing cells, and has the ability to amplify and express its genetic information in cells infected with said arenavirus particle.