mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic tire comprising: a tread having a plurality of land portions demarcated by circumferential grooves , wherein sipes are formed in at least one of the land portions to form a plurality of rods each surrounded by the sipes , each rod has a bent portion between an outer surface of the rod and a root thereof, each rod is bent so as to form a corner at the bent portion with the land portions being shoulder land portions that are disposed on outer sides in the axial direction and that extend in the circumferential direction, each shoulder land portion having an axial groove that extends across the shoulder land portion to form a plurality of shoulder blocks spaced from each other in the circumferential direction, and at least a part of the plurality of shoulder blocks has the rods , characterized in that a ratio of a distance (AS) from the sipes to the circumferential groove in the axial direction to a width (AW) of the shoulder block in the axial direction being not less than 0.1. a tread having a plurality of land portions demarcated by circumferential grooves , wherein sipes are formed in at least one of the land portions to form a plurality of rods each surrounded by the sipes , each rod has a bent portion between an outer surface of the rod and a root thereof, each rod is bent so as to form a corner at the bent portion with the land portions being shoulder land portions that are disposed on outer sides in the axial direction and that extend in the circumferential direction, each shoulder land portion having an axial groove that extends across the shoulder land portion to form a plurality of shoulder blocks spaced from each other in the circumferential direction, and at least a part of the plurality of shoulder blocks has the rods , characterized in that a ratio of a distance (AS) from the sipes to the circumferential groove in the axial direction to a width (AW) of the shoulder block in the axial direction being not less than 0.1.
A holster system comprising: a support frame comprising a support frame front face that in use is positioned towards a holstered weapon, , a support frame rear face , an attachment plate defining a first end of the support frame and comprising a plurality of slots , a ledge defining a second end of the support frame and comprising a top face and a bottom face, and a bracket disposed between the attachment plate and the ledge ; and a barrel plug positioned on the top face of the ledge and configured for engaging with a weapon barrel into which the barrel plug is inserted; characterized in that the holster system further comprises: a spacer positioned directly adjacent to the rear face of the support frame , wherein the spacer includes a plurality of apertures that align with the attachment plate slots , and a fastener band comprising a closure , wherein a portion of the fastener band is positioned between the rear face of the support frame and the front face of the spacer ; and in that the front face of the spacer , the rear face of the support frame , or both comprise a groove sized and shaped to accommodate the portion of the fastener band positioned between the rear face of the support frame and the front face of the spacer . a support frame comprising a support frame front face that in use is positioned towards a holstered weapon, , a support frame rear face , an attachment plate defining a first end of the support frame and comprising a plurality of slots , a ledge defining a second end of the support frame and comprising a top face and a bottom face, and a bracket disposed between the attachment plate and the ledge ; and a barrel plug positioned on the top face of the ledge and configured for engaging with a weapon barrel into which the barrel plug is inserted; characterized in that the holster system further comprises: a spacer positioned directly adjacent to the rear face of the support frame , wherein the spacer includes a plurality of apertures that align with the attachment plate slots , and a fastener band comprising a closure , wherein a portion of the fastener band is positioned between the rear face of the support frame and the front face of the spacer ; and in that the front face of the spacer , the rear face of the support frame , or both comprise a groove sized and shaped to accommodate the portion of the fastener band positioned between the rear face of the support frame and the front face of the spacer . a spacer positioned directly adjacent to the rear face of the support frame , wherein the spacer includes a plurality of apertures that align with the attachment plate slots , and a fastener band comprising a closure , wherein a portion of the fastener band is positioned between the rear face of the support frame and the front face of the spacer ; and in that the front face of the spacer , the rear face of the support frame , or both comprise a groove sized and shaped to accommodate the portion of the fastener band positioned between the rear face of the support frame and the front face of the spacer .
A ribonucleic acid compound comprising an RNA sequence having at least 85% sequence identity to SEQ ID NO: 1 (GGGAGACAAGAAUAAACGCUCAAUGCGUUCACGUUUAUUCACAUUUUUGAAUUG AGCAUGAGCUUCGAGGAGGCUCAACAGGC), SEQ ID NO:2 GGGAGACAAGAAUAAACGCUCAAUGCGUUUACGUUUAUUCACAUUUUUGAAUUG AGCAUGAGCUUCGACAGGAGGCUCACAACAGGC) or SEQ ID NO:3 (GGGGCUCAAUGCGUUCACGUUUAUUCACAUUUUUGAAUUGAGC), wherein said RNA sequence is at least 40 nucleotides in length, and wherein the ribonucleic acid compound is capable of binding to a transferrin receptor on a cell.
A method for use in a streaming process of a Virtual Reality, VR, video to a VR rendering device, the streaming process having a configurable setup, in each configured setup the VR video being represented by one or more streams and each configured setup providing respective different image data of a scene, the VR rendering device being arranged to render, on the basis of the one or more streams, a current view of the scene based on a current head position, wherein the method comprises: - executing the streaming process according to a first configured setup providing first image data needed to render the current view; - determining target image data differing from the first image data; - determining a second configured setup; - executing the streaming process according to the second configured setup; wherein the method is characterized in that it further comprises: - determining EEG data by measuring brain signals; - predicting a head movement comprising predicting a head movement direction based on the EEG data and further comprising using a classification model to distinguish predictions of different head movements based on the EEG data; wherein the target image data is needed for rendering a future view and wherein the determining the target image data is based on the predicted head movement direction; and wherein the second configured setup is determined for providing the target image data. - executing the streaming process according to a first configured setup providing first image data needed to render the current view; - determining target image data differing from the first image data; - determining a second configured setup; - executing the streaming process according to the second configured setup; wherein the method is characterized in that it further comprises: - determining EEG data by measuring brain signals; - predicting a head movement comprising predicting a head movement direction based on the EEG data and further comprising using a classification model to distinguish predictions of different head movements based on the EEG data; - determining EEG data by measuring brain signals; - predicting a head movement comprising predicting a head movement direction based on the EEG data and further comprising using a classification model to distinguish predictions of different head movements based on the EEG data; wherein the target image data is needed for rendering a future view and wherein the determining the target image data is based on the predicted head movement direction; and wherein the second configured setup is determined for providing the target image data.
Food processor with a pivot arm , on which a coupling for an external accessory device is provided, and with a pivot arm locking facility for locking and unlocking the pivot arm , characterised in that means for blocking the pivot arm locking facility are provided in the locking position and can be activated with the external accessory device inserted into the coupling .
A composite material comprising a warp-knitted textile panel having wales corresponding to the warp direction and courses corresponding to the weft direction, and first and second opposite faces, said first face being covered with a layer of at least one polymer material, each one of said wales comprises first stitches formed on every other course with a first yarn , and second stitches formed on every other course with a second yarn , the first and second stitches being alternated on every other course and being in opposition, and said textile panel comprises weft yarns inserted in the weft direction on every n out of p courses, n and p being integers, with n being less than or equal to p, said textile panel comprising first and second stitches which are chain stitches, and that extend along a wale , or said textile panel comprising first stitches which are chain stitches, and second stitches which are tricot stitches extending along at least two adjacent wales, and characterized in that said knitted textile panel is substantially plane.
Multiple glass pane having at least two glass panes and an edge seal , comprising at least one spacer which is arranged between two glass panes , the spacer being designed as a foamed organic thermoplastic spacer , and at least one secondary seal , which is arranged on the side of the spacer facing the edge of the glass panes , characterized in that the secondary seal comprises or preferably consists of foamed plastic material and a one-component sealant based on polyisobutylene, which is foamed with nitrogen or carbon dioxide, is used as the basic material for producing the spacer.
A heteromultimer comprising: a first polypeptide construct that comprises a first transporter polypeptide and at least one first cargo molecule, optionally wherein the first cargo molecule is a cargo polypeptide, optionally wherein the first polypeptide construct comprises two first cargo polypeptides; and a second polypeptide construct that comprises a second transporter polypeptide; and wherein said first and second transporter polypeptides are obtained by segmentation of an albumin polypeptide having the sequence of SEQ ID NO:1 at a segmentation site, and wherein the location of the segmentation site is: (a) between residues 339 and 340 of SEQ ID NO:1; or (b) between residues 300 and 301 of SEQ ID NO:1; or (c) between residues 364 and 365 of SEQ ID NO:1; or (d) between residues 441 and 442 of SEQ ID NO:1; or (e) between residues 171 and 172 of SEQ ID NO:1; or (f) between residues 281 and 282 of SEQ ID NO:1; or (g) after residue 83 and before residue 85 of SEQ ID NO:1 and residue 84 is deleted; wherein the numbering of residues begins with the first residue after the signal sequence, and wherein said first transporter polypeptide is different from said second transporter polypeptide, and said transporter polypeptides self-assemble to form a quasi-native structure of the monomeric form of said albumin polypeptide. a first polypeptide construct that comprises a first transporter polypeptide and at least one first cargo molecule, optionally wherein the first cargo molecule is a cargo polypeptide, optionally wherein the first polypeptide construct comprises two first cargo polypeptides; and a second polypeptide construct that comprises a second transporter polypeptide; and wherein said first and second transporter polypeptides are obtained by segmentation of an albumin polypeptide having the sequence of SEQ ID NO:1 at a segmentation site, and wherein the location of the segmentation site is: (a) between residues 339 and 340 of SEQ ID NO:1; or (b) between residues 300 and 301 of SEQ ID NO:1; or (c) between residues 364 and 365 of SEQ ID NO:1; or (d) between residues 441 and 442 of SEQ ID NO:1; or (e) between residues 171 and 172 of SEQ ID NO:1; or (f) between residues 281 and 282 of SEQ ID NO:1; or (g) after residue 83 and before residue 85 of SEQ ID NO:1 and residue 84 is deleted; (a) between residues 339 and 340 of SEQ ID NO:1; or (b) between residues 300 and 301 of SEQ ID NO:1; or (c) between residues 364 and 365 of SEQ ID NO:1; or (d) between residues 441 and 442 of SEQ ID NO:1; or (e) between residues 171 and 172 of SEQ ID NO:1; or (f) between residues 281 and 282 of SEQ ID NO:1; or (g) after residue 83 and before residue 85 of SEQ ID NO:1 and residue 84 is deleted; wherein the numbering of residues begins with the first residue after the signal sequence, and wherein said first transporter polypeptide is different from said second transporter polypeptide, and said transporter polypeptides self-assemble to form a quasi-native structure of the monomeric form of said albumin polypeptide.
Document comprising: - an integrated display device , - an electronic memory for storing first data and second data , - actuating means (104; 122, 131) for actuating the display device for reproducing the first data with a digital watermark, the actuating means being designed such that, when reproducing the first data, said data is overlaid with the digital watermark in the frequency domain, wherein the digital watermark contains the second data, the first data containing an image sequence, and each image in the image sequence bearing a digital watermark which contains part of the second data , - a protected memory region for storing additional data , and - means for executing a cryptographic protocol and having an interface to a reader , wherein the reader accessing the additional data via the interface requires the cryptographic protocol to be executed by means of a cryptographic key that is contained in or derivable from the second data. - an integrated display device , - an electronic memory for storing first data and second data , - actuating means (104; 122, 131) for actuating the display device for reproducing the first data with a digital watermark, the actuating means being designed such that, when reproducing the first data, said data is overlaid with the digital watermark in the frequency domain, wherein the digital watermark contains the second data, the first data containing an image sequence, and each image in the image sequence bearing a digital watermark which contains part of the second data , - a protected memory region for storing additional data , and - means for executing a cryptographic protocol and having an interface to a reader , - a protected memory region for storing additional data , and - means for executing a cryptographic protocol and having an interface to a reader , wherein the reader accessing the additional data via the interface requires the cryptographic protocol to be executed by means of a cryptographic key that is contained in or derivable from the second data.
Device for treating smooth surfaces, which contains a treatment unit designed as a spraying unit with a supporting tube and a spraying device , wherein the treatment unit has a plurality of support rollers or support wheels arranged in front of the spraying device in the direction of movement for supporting the treatment unit on the surface to be treated and a supporting structure with a pivotable support arm for positioning and holding of the treatment unit , wherein the support arm has an inner arm section and an outer arm section hingedly connected thereto, characterized in that a load balancing device for adjusting and automatically regulating the contact pressure exerted by the treatment unit via the support rollers or support wheels on the surface to be treated is arranged on the supporting structure , and in that the supporting tube of the treatment unit is rotatably mounted on the front end of the outer arm section via a fixture and a rotary actuator with a motor and a gear in such a way that the supporting tube can be aligned via the rotary actuator with the motor and the gear in such a way that the support rollers or support wheels are arranged in front of the supporting tube in the direction of movement of the latter.
A method for producing a diesel fuel, comprising: mixing a biocomponent feed portion having an oxygen content of at least 8 wt% with a mineral feed portion to form a combined feedstock, the combined feedstock having a sulfur content of less than 50 wppm and a nitrogen content of less than 20 wppm, the biocomponent feed portion being at least 5 wt% of the combined feedstock; and contacting the combined feedstock with an isomerization/dewaxing catalyst, the isomerization/dewaxing catalyst comprising (i) a molecular sieve selected from ZSM-48 and having a silica to alumina ratio of about 90:1 or less, and (ii) a hydrogenation metal, under effective isomerization/dewaxing conditions including a temperature of at least 350°C and being effective to remove 99% of the oxygen content of the combined feed and to produce an isomerized/dewaxed product having a cloud point of -20°C or less; wherein the hydrogenation metal comprises at least one Group VIII metal selected from Pt and/or Pd in an amount of at least 0.5 wt%, based on the total weight of the isomerization/dewaxing catalyst. mixing a biocomponent feed portion having an oxygen content of at least 8 wt% with a mineral feed portion to form a combined feedstock, the combined feedstock having a sulfur content of less than 50 wppm and a nitrogen content of less than 20 wppm, the biocomponent feed portion being at least 5 wt% of the combined feedstock; and contacting the combined feedstock with an isomerization/dewaxing catalyst, the isomerization/dewaxing catalyst comprising (i) a molecular sieve selected from ZSM-48 and having a silica to alumina ratio of about 90:1 or less, and (ii) a hydrogenation metal, under effective isomerization/dewaxing conditions including a temperature of at least 350°C and being effective to remove 99% of the oxygen content of the combined feed and to produce an isomerized/dewaxed product having a cloud point of -20°C or less; wherein the hydrogenation metal comprises at least one Group VIII metal selected from Pt and/or Pd in an amount of at least 0.5 wt%, based on the total weight of the isomerization/dewaxing catalyst.
A method for preventing microbiological contamination in a building comprising a ventilation system (131-133), the method comprising the following steps: - first detecting the contamination in a first ventilated sub-part of the building by a VOC sensor based on a first volume of air flowing through the ventilation system; and - taking a first action in order to prevent further contamination; and - performing a second measurement of the contamination based on a second larger volume of air from the sub-part supplied by the ventilation system upon the first detecting; and - when the measurement is positive, taking a second action in order to prevent further contamination; and - when the second measurement is negative, undoing the first action further characterized in that the performing a second measurement further comprises guiding the second larger volume of air through an air filter for a certain amount of time, extracting the air filter and performing a microbiological culture on air particles from the air filter. - first detecting the contamination in a first ventilated sub-part of the building by a VOC sensor based on a first volume of air flowing through the ventilation system; and - taking a first action in order to prevent further contamination; and - performing a second measurement of the contamination based on a second larger volume of air from the sub-part supplied by the ventilation system upon the first detecting; and - when the measurement is positive, taking a second action in order to prevent further contamination; and - when the second measurement is negative, undoing the first action further characterized in that the performing a second measurement further comprises guiding the second larger volume of air through an air filter for a certain amount of time, extracting the air filter and performing a microbiological culture on air particles from the air filter.
Blade for a turbomachine comprising a shroud which is positioned on a tip side of the blade having an outer surface having at least one circumferential web arranged thereon, at least one pocket recessed in the outer surface and a hardfacing provided on at least one edge of the shroud wherein a first pocket recessed in the outer surface is arranged adjacent to the hardfacing wherein the first pocket is open to the edge and wherein between the first pocket and the hardfacing a supporting wall is arranged for supporting the hardfacing during contact of the edge of the shroud with the edge of another shroud , characterized in that a side face of the first pocket joins the supporting wall with a radius (R) corresponding at least to the length of the shorter extension of the supporting wall and at most to 1.5 times the length of the larger extension of the supporting wall and in that the shroud further comprises a closed second pocket and an axially adjacent closed third pocket which are separated by a first reinforcement rib .
A method of manufacturing an imaging apparatus, comprising steps of: preparing a substrate (SS) comprising a wafer and a silicon layer arranged directly on the wafer, the wafer and the silicon layer being made of a single crystal silicon, the wafer including a first semiconductor region with an oxygen concentration not less than 2 × 10 16 atoms/cm 3 and not greater than 4 × 10 17 atoms/cm 3 , the silicon layer consisting of a second semiconductor region with an oxygen concentration lower than the oxygen concentration in the first semiconductor region, no insulating region existing between the first semiconductor region and the second semiconductor region so that the second semiconductor region continues from the first semiconductor region, and the second semiconductor region having a thickness of not less than 5 μm and not greater than 50 μm; annealing the substrate (SS) in an atmosphere containing oxygen and setting the oxygen concentration in the first semiconductor region and the second semiconductor region directly on the first semiconductor region within the range not less than 2 × 10 16 atoms/cm 3 and not greater than 4 × 10 17 atoms/cm 3 ; and forming a photoelectric conversion element (PD) in the second semiconductor region after the annealing. preparing a substrate (SS) comprising a wafer and a silicon layer arranged directly on the wafer, the wafer and the silicon layer being made of a single crystal silicon, the wafer including a first semiconductor region with an oxygen concentration not less than 2 × 10 16 atoms/cm 3 and not greater than 4 × 10 17 atoms/cm 3 , the silicon layer consisting of a second semiconductor region with an oxygen concentration lower than the oxygen concentration in the first semiconductor region, no insulating region existing between the first semiconductor region and the second semiconductor region so that the second semiconductor region continues from the first semiconductor region, and the second semiconductor region having a thickness of not less than 5 μm and not greater than 50 μm; annealing the substrate (SS) in an atmosphere containing oxygen and setting the oxygen concentration in the first semiconductor region and the second semiconductor region directly on the first semiconductor region within the range not less than 2 × 10 16 atoms/cm 3 and not greater than 4 × 10 17 atoms/cm 3 ; and forming a photoelectric conversion element (PD) in the second semiconductor region after the annealing.