mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-specific antibody molecule comprising or consisting of: a) a polypeptide chain of formula ( I ): V H -CH 1 -X-V 1 ; and b) a polypeptide chain of formula ( II ): V L -C L -Y-V 2 ; wherein: V H represents a heavy chain variable domain; CH 1 represents a domain of a heavy chain constant region, for example domain 1 thereof; X represents a bond or linker; Y represents a bond or linker; V 1 represents a dsFv or a dsscFv; V L represents a light chain variable domain; C L represents a domain from a light chain constant region, such as Ckappa; V 2 represents a dsFv or a dsscFv. a) a polypeptide chain of formula ( I ): V H -CH 1 -X-V 1 ; and b) a polypeptide chain of formula ( II ): V L -C L -Y-V 2 ; wherein: V H represents a heavy chain variable domain; CH 1 represents a domain of a heavy chain constant region, for example domain 1 thereof; X represents a bond or linker; Y represents a bond or linker; V 1 represents a dsFv or a dsscFv; V L represents a light chain variable domain; C L represents a domain from a light chain constant region, such as Ckappa; V 2 represents a dsFv or a dsscFv. V H represents a heavy chain variable domain; CH 1 represents a domain of a heavy chain constant region, for example domain 1 thereof; X represents a bond or linker; Y represents a bond or linker; V 1 represents a dsFv or a dsscFv; V L represents a light chain variable domain; C L represents a domain from a light chain constant region, such as Ckappa; V 2 represents a dsFv or a dsscFv.
A composition, comprising: 0.5 to 91 weight percent of a poly(phenylene ether)-polysiloxane block copolymer reaction product comprising a first poly(phenylene ether) and a poly(phenylene ether)-polysiloxane block copolymer; 4 to 25 weight percent of a flame retardant comprising an organophosphate ester, a phosphazene, or a combination thereof; and 5 to 40 weight percent of a reinforcing filler, wherein the reinforcing filler is selected from the group consisting of glass fibers, carbon fibers, wollastonite, halloysite, clays, talcs, micas, glass flakes, solid glass beads, hollow glass beads, solid ceramic beads, hollow ceramic beads, and combinations thereof; wherein all weight percents are based on the total weight of the composition. 0.5 to 91 weight percent of a poly(phenylene ether)-polysiloxane block copolymer reaction product comprising a first poly(phenylene ether) and a poly(phenylene ether)-polysiloxane block copolymer; 4 to 25 weight percent of a flame retardant comprising an organophosphate ester, a phosphazene, or a combination thereof; and 5 to 40 weight percent of a reinforcing filler, wherein the reinforcing filler is selected from the group consisting of glass fibers, carbon fibers, wollastonite, halloysite, clays, talcs, micas, glass flakes, solid glass beads, hollow glass beads, solid ceramic beads, hollow ceramic beads, and combinations thereof; wherein all weight percents are based on the total weight of the composition.
Lock with a latch displaceable by rotation of a lock cylinder between a retracted position and an advanced position extended from a housing , and with a main slide arranged in the housing and having a toothing meshing with a circumferential toothing of a transmission gear which, in the pre-closed position of the latch , occupies a first position from which it can be displaced into a second position by engagement of a lock member of the lock cylinder during its rotation on a driver of the main slide while driving the latch into its retracted position, from which it can be displaced back into the first position by engagement of the lock member when the latter rotates in the opposite direction, characterized by a drive slide having a toothing meshing with the circumferential toothing , which has a nose (22") which is acted upon by the closing member during rotation in the opposite direction.
A device for rendering an image in a graphics processing system, the image being divided into a plurality of tiles, each tile corresponding to one or more display pixels and at least some of the tiles containing at least one primitive of an object, which was binned into the respective tile during a binning pass of the image, the device being configured to: calculate (Step 701), for a tile, in dependence on the prominence of the tile, a scale factor for the respective tile; and, for at least some of the tiles: shrink (Step 702) the primitive(s) of the tile to a sub-area of the tile, the site of the sub-area being dependent on the calculated scale factor for the tile; render (Step 703) the whole tile to form an intermediate image; and generate (Step 704) display pixels by upscaling the intermediate image; characterized in that the device is configured to calculate the scale factor based at least in part on a minimum depth value of the respective tile; wherein the minimum depth value is a minimum z distance of the tile to the camera, wherein the minimum z distance of the tile is determined and stored during the binning pass of the image; and the larger the tile's minimum depth the smaller the tile's scale factor is and the scale factor is less than one. shrink (Step 702) the primitive(s) of the tile to a sub-area of the tile, the site of the sub-area being dependent on the calculated scale factor for the tile; render (Step 703) the whole tile to form an intermediate image; and generate (Step 704) display pixels by upscaling the intermediate image; characterized in that the device is configured to calculate the scale factor based at least in part on a minimum depth value of the respective tile; wherein the minimum depth value is a minimum z distance of the tile to the camera, wherein the minimum z distance of the tile is determined and stored during the binning pass of the image; and the larger the tile's minimum depth the smaller the tile's scale factor is and the scale factor is less than one.
An n-type semiconductor element, comprising: a substrate ; a source electrode , a drain electrode , and a gate electrode ; a semiconductor layer in contact with both the source electrode and the drain electrode ,; a gate insulating layer for insulating the semiconductor layer from the gate electrode ; and a second insulating layer positioned on the opposite side of the semiconductor layer from the gate insulating layer and in contact with the semiconductor layer ; wherein the semiconductor layer contains nanocarbon, wherein the second insulating layer contains: (a) a compound with an ionization potential in vacuum of more than 5.8 eV and 6.6 eV or less (hereinafter, referred to as "compound (a)") where the ionization potential value of compound (a) is determined in accordance with the description of the specification, and (b) a polymer; wherein the compound (a) is an organic compound, wherein the organic compound is a hydrocarbon compound, an organic compound having a heteroatom as a part of a ring structure, or an organic compound having a heteroatom bound to at least one group or atom selected from hydrogen, alkyl, and cycloalkyl. a substrate ; a source electrode , a drain electrode , and a gate electrode ; a semiconductor layer in contact with both the source electrode and the drain electrode ,; a gate insulating layer for insulating the semiconductor layer from the gate electrode ; and a second insulating layer positioned on the opposite side of the semiconductor layer from the gate insulating layer and in contact with the semiconductor layer ; wherein the semiconductor layer contains nanocarbon, wherein the second insulating layer contains: (a) a compound with an ionization potential in vacuum of more than 5.8 eV and 6.6 eV or less (hereinafter, referred to as "compound (a)") where the ionization potential value of compound (a) is determined in accordance with the description of the specification, and (b) a polymer; (a) a compound with an ionization potential in vacuum of more than 5.8 eV and 6.6 eV or less (hereinafter, referred to as "compound (a)") where the ionization potential value of compound (a) is determined in accordance with the description of the specification, and (b) a polymer; wherein the compound (a) is an organic compound, wherein the organic compound is a hydrocarbon compound, an organic compound having a heteroatom as a part of a ring structure, or an organic compound having a heteroatom bound to at least one group or atom selected from hydrogen, alkyl, and cycloalkyl.
A method for protecting the surface of a wind turbine blade manufactured with a composite material by preventing aerodynamic profile modifications during its useful life that would consequently impair its level of performance, and comprising steps of: a) sanding down an area on a leading edge of the blade intended for protection until its capacity of adherence attains a given level in relation with at least one of the following properties: glossiness, roughness, surface tension; b) applying a first coating onto said area, comprising a two-component compound primer of a polyurethane nature and thickness range falling within 400-600 μm; and c) applying a second coating to said area, comprising a two-component paint with a content of solids comprising 70-80% of its mass, including a base of aliphatic polyols as a binding agent and aliphatic polyisocyanate as a curing agent in a given proportion of 70-80% and 30-20% of its mass respectively, and a thickness range falling within 200-250 μm, wherein the second coating further includes, in a proportion falling within 5-10% in mass, a solution prepared with nanoparticles of hydrophilic silicon oxides and fluorinated polyhedral oligomeric silsesquioxanes in a proportion comprising 10-30% of its mass. a) sanding down an area on a leading edge of the blade intended for protection until its capacity of adherence attains a given level in relation with at least one of the following properties: glossiness, roughness, surface tension; b) applying a first coating onto said area, comprising a two-component compound primer of a polyurethane nature and thickness range falling within 400-600 μm; and c) applying a second coating to said area, comprising a two-component paint with a content of solids comprising 70-80% of its mass, including a base of aliphatic polyols as a binding agent and aliphatic polyisocyanate as a curing agent in a given proportion of 70-80% and 30-20% of its mass respectively, and a thickness range falling within 200-250 μm, wherein the second coating further includes, in a proportion falling within 5-10% in mass, a solution prepared with nanoparticles of hydrophilic silicon oxides and fluorinated polyhedral oligomeric silsesquioxanes in a proportion comprising 10-30% of its mass.
An anti-PAD4 (peptidylarginine deiminase 4) monoclonal antibody, wherein the antibody specifically binds to a peptide, the amino acid sequence of which is set forth in SEQ ID NO: 1, and does not bind to a peptide, the amino acid sequence of which is set forth in SEQ ID NO: 32, 34, or 35; and wherein the antibody inhibits citrullination activity of PAD4.
A method for reporting channel state information, comprising: acquiring reference signal resource configuration information, wherein the reference signal resource configuration information comprises antenna port configuration information, and the antenna port configuration information is used to indicate an antenna port structure; receiving , according to the reference signal resource configuration information, a reference signal sent by a base station; selecting a precoding matrix from a codebook based on the received reference signal, wherein a structure of the precoding matrix corresponds to the antenna port structure indicated by the antenna port configuration information; and reporting a precoding matrix indicator, PMI, to the base station, wherein the PMI is used to indicate the selected precoding matrix, wherein the structure of the precoding matrix is W=W 1 W 2 , wherein W 1 = X 0 0 X , and X=A ⊗ B; ⊗ indicates a Kronecker product; A and B are matrices of m×p and (n/2)×q respectively, or A and B are matrices of (m/2)×p and n×q respectively; W 2 is a matrix of r columns, wherein m corresponds to a quantity of rows in the antenna port structure, n corresponds to a quantity of columns in the antenna port structure, p and q are positive integers, and r is a rank of the precoding matrix. acquiring reference signal resource configuration information, wherein the reference signal resource configuration information comprises antenna port configuration information, and the antenna port configuration information is used to indicate an antenna port structure; receiving , according to the reference signal resource configuration information, a reference signal sent by a base station; selecting a precoding matrix from a codebook based on the received reference signal, wherein a structure of the precoding matrix corresponds to the antenna port structure indicated by the antenna port configuration information; and reporting a precoding matrix indicator, PMI, to the base station, wherein the PMI is used to indicate the selected precoding matrix, wherein the structure of the precoding matrix is W=W 1 W 2 , wherein W 1 = X 0 0 X , and X=A ⊗ B; ⊗ indicates a Kronecker product; A and B are matrices of m×p and (n/2)×q respectively, or A and B are matrices of (m/2)×p and n×q respectively; W 2 is a matrix of r columns, wherein m corresponds to a quantity of rows in the antenna port structure, n corresponds to a quantity of columns in the antenna port structure, p and q are positive integers, and r is a rank of the precoding matrix.
Arrangement for determining a magnitude for an active brake force on a brake, comprising a carrier , comprising, furthermore, a brake mount , characterized in that the brake mount is arranged such that it can be displaced elastically and laterally with respect to the carrier , the brake mount being fixed on the carrier by way of at least one elastic bending element , a sensor apparatus for the determination of the displacement travel (Δx) of the brake mount with respect to the carrier being provided.
A nebulizer assembly comprising a nebulizer , said nebulizer comprising: a piezoelectric element having a central aperture and lower and upper opposing surface; characterised by an orifice plate disposed adjacent the lower surface and extending into the central aperture and beyond the upper surface of the piezoelectric element ; and a stainless steel plate disposed adjacent the orifice plate such that the orifice plate is contained between the stainless steel plate and the piezoelectric element , the stainless steel plate including a disc-shaped portion with a central hole and a cylindrical portion surrounding the central hole and extending upward toward the second upper surface of the piezoelectric element wherein the stainless steel plate is configured such that, in use, an absorbent member is in contact with the stainless steel plate . a stainless steel plate disposed adjacent the orifice plate such that the orifice plate is contained between the stainless steel plate and the piezoelectric element , the stainless steel plate including a disc-shaped portion with a central hole and a cylindrical portion surrounding the central hole and extending upward toward the second upper surface of the piezoelectric element wherein the stainless steel plate is configured such that, in use, an absorbent member is in contact with the stainless steel plate .
Driving assistance method for increasing driving comfort, wherein a state of a route section which is to be travelled on and lanes of the route section which is to be travelled on are sensed and a lane recommendation is output for the route section to be travelled on, wherein the sensing of the state of the route section to be travelled on is carried out by means of interrogation of information stored about the vehicle in question; characterized in that the sensed state of the route section to be travelled on comprises the presence of pot holes, ruts, track grooves, chippings and/or gravel, in that the lanes of route sections are assigned qualities, and in that a volume during the rolling of the vehicle on the roadway and/or the extent to which the vehicle sways owing to the underlying surface are used for the evaluation of qualities.
A method comprising: establishing a data connection between a wireless communication device and a wireless data provider, the wireless communication device being in a geographic area that is served by the wireless data provider; streaming video through the data connection and displaying the video to a user of the wireless communication device; querying the wireless data provider by the wireless communication device regarding a data transfer rate that is currently available from the wireless data provider in the geographic area of the wireless communication device; receiving an indication from the wireless data provider regarding the data transfer rate that is currently available from the wireless data provider in the geographic area, the data transfer rate being dependent at least in part on demand for data by multiple wireless communication devices in the geographic area; and based at least on the data transfer rate, displaying on the wireless communication device a notification for a user to expect degraded video streaming. establishing a data connection between a wireless communication device and a wireless data provider, the wireless communication device being in a geographic area that is served by the wireless data provider; streaming video through the data connection and displaying the video to a user of the wireless communication device; querying the wireless data provider by the wireless communication device regarding a data transfer rate that is currently available from the wireless data provider in the geographic area of the wireless communication device; receiving an indication from the wireless data provider regarding the data transfer rate that is currently available from the wireless data provider in the geographic area, the data transfer rate being dependent at least in part on demand for data by multiple wireless communication devices in the geographic area; and based at least on the data transfer rate, displaying on the wireless communication device a notification for a user to expect degraded video streaming.
An operation device for an autonomous driving vehicle that is communicable with a management center provided outside the vehicle and configured to start traveling in autonomous driving according to a travel start instruction inputted by an on-board operator on condition that traveling in autonomous driving is permitted from the management center, the operation device comprising: an input portion for inputting an autonomous-driving travel start instruction; and a variable sign configured to indicate a first form when the management center does not permit the autonomous driving vehicle to travel in autonomous driving and to indicate a second form different from the first form when the management center permits the autonomous driving vehicle to travel in autonomous driving, wherein the variable sign is configured to indicate a third form different from the first form and the second form when the autonomous driving vehicle is traveling in autonomous driving, and the input portion and the variable sign are a touch panel capable of displaying an autonomous driving start button for inputting an autonomous-driving travel start instruction to the autonomous driving vehicle and displaying a deceleration button for inputting a deceleration instruction to the autonomous driving vehicle ; and a display control unit is further provided to display, as the first form, a screen not displaying the autonomous driving start button on the touch panel and, as the second form, a screen displaying the autonomous driving start button on the touch panel , the display control unit causing the touch panel to display, as the third form, a screen displaying the deceleration button instead of the autonomous driving start button . an input portion for inputting an autonomous-driving travel start instruction; and a variable sign configured to indicate a first form when the management center does not permit the autonomous driving vehicle to travel in autonomous driving and to indicate a second form different from the first form when the management center permits the autonomous driving vehicle to travel in autonomous driving, wherein the variable sign is configured to indicate a third form different from the first form and the second form when the autonomous driving vehicle is traveling in autonomous driving, and the input portion and the variable sign are a touch panel capable of displaying an autonomous driving start button for inputting an autonomous-driving travel start instruction to the autonomous driving vehicle and displaying a deceleration button for inputting a deceleration instruction to the autonomous driving vehicle ; and a display control unit is further provided to display, as the first form, a screen not displaying the autonomous driving start button on the touch panel and, as the second form, a screen displaying the autonomous driving start button on the touch panel , the display control unit causing the touch panel to display, as the third form, a screen displaying the deceleration button instead of the autonomous driving start button .
A non-therapeutic method of strengthening a skin barrier by application of a composition comprising at least one mRNA biomarker and/or mRNA biomarker group enhancement compound in which the mRNA biomarker/mRNA biomarker group is involved in cornified envelope formation, wherein the composition comprises a piroctone compound.
A head mounted bone-conductive acoustic device, comprising: a head wearable equipment which is eyeglasses comprising a leg , a bone-conductive acoustic member, and a connection structure, through which the bone-conductive acoustic member is at least rotatably connected to the leg of the head wearable equipment, the connection structure includes a rotating shaft bracket and a connecting member, the rotating shaft bracket being connected to the leg , characterized in that the rotating shaft bracket is provided with a hole to be passed through by the connecting member, and the bone-conductive acoustic member comprises at least two housings, respectively a first housing and a second housing , and the connecting member comprises a rotating shaft , which is connected to an inner side of the first housing at one end and connected to an inner side of the second housing after passing through the hole in the rotating shaft bracket . a head wearable equipment which is eyeglasses comprising a leg , a bone-conductive acoustic member, and a connection structure, through which the bone-conductive acoustic member is at least rotatably connected to the leg of the head wearable equipment, the connection structure includes a rotating shaft bracket and a connecting member, the rotating shaft bracket being connected to the leg , characterized in that the rotating shaft bracket is provided with a hole to be passed through by the connecting member, and the bone-conductive acoustic member comprises at least two housings, respectively a first housing and a second housing , and the connecting member comprises a rotating shaft , which is connected to an inner side of the first housing at one end and connected to an inner side of the second housing after passing through the hole in the rotating shaft bracket .