mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, at data processing hardware , from at least one user equipment , observations , each observation comprising a signal measurement of a signal (S) emitted from a base station and a corresponding location of the signal measurement , wherein the signal measurement comprises a location uncertainty measurement ; generating, by the data processing hardware , a coverage map for the base station based on the received observations , the coverage map indicating a signal characteristic of the emitted signal (S) about the base station and a location uncertainty map based on the location uncertainty measurement ; and determining, by the data processing hardware , an estimated characteristic of the base station by feeding the coverage map and the location uncertainty map into a neural network configured to output the estimated characteristic of the base station . receiving, at data processing hardware , from at least one user equipment , observations , each observation comprising a signal measurement of a signal (S) emitted from a base station and a corresponding location of the signal measurement , wherein the signal measurement comprises a location uncertainty measurement ; generating, by the data processing hardware , a coverage map for the base station based on the received observations , the coverage map indicating a signal characteristic of the emitted signal (S) about the base station and a location uncertainty map based on the location uncertainty measurement ; and determining, by the data processing hardware , an estimated characteristic of the base station by feeding the coverage map and the location uncertainty map into a neural network configured to output the estimated characteristic of the base station .
A bone anchor assembly , comprising: a head that defines a cavity , the head including proximal and distal ends that define a central proximal-distal axis (A1); a collet disposed in the cavity , the collet comprising a plurality of fingers configured to expand radially-outward to retain the collet within the cavity ; and a shank having a head portion retained within the collet ; wherein the collet is insertable into a distal end of the head ; and characterized in that the cavity includes one or more keyways and the collet includes one or more wings or projections slidably received within the one or more keyways to restrict rotation of the collet relative to the head while allowing longitudinal translation of the collet relative to the head . a head that defines a cavity , the head including proximal and distal ends that define a central proximal-distal axis (A1); a collet disposed in the cavity , the collet comprising a plurality of fingers configured to expand radially-outward to retain the collet within the cavity ; and a shank having a head portion retained within the collet ; wherein the collet is insertable into a distal end of the head ; and characterized in that
An ultrasonic cutting device for osteotomy, said device comprising: - a blade extending in a longitudinal direction (L); - an attachment member configured to be connected, through a suitable extension member, with a handpiece configured to generate vibrations that are mainly directed in said longitudinal direction (L), said attachment member being connected to a proximal end of said blade ; wherein the blade further comprises a plurality of cutting elements formed on a distal portion thereof, wherein said cutting elements comprise: - an arcuate portion arranged at a free end of said distal portion in the longitudinal direction (L), said arcuate portion having a continuous cutting edge ; - a plurality of teeth having a triangular shape, said teeth being formed on opposite sides of the blade symmetrically with respect to a longitudinal axis (A) thereof, the teeth being aligned with each other along respective directions that are incident relative to said longitudinal axis (A), the overall configuration of the distal portion of the blade being symmetrical relative to the longitudinal axis (A) and progressively widening from the arcuate portion towards the proximal portion of the blade in the portion where the teeth are formed. - a blade extending in a longitudinal direction (L); - an attachment member configured to be connected, through a suitable extension member, with a handpiece configured to generate vibrations that are mainly directed in said longitudinal direction (L), said attachment member being connected to a proximal end of said blade ; - an arcuate portion arranged at a free end of said distal portion in the longitudinal direction (L), said arcuate portion having a continuous cutting edge ; - a plurality of teeth having a triangular shape, said teeth being formed on opposite sides of the blade symmetrically with respect to a longitudinal axis (A) thereof, the teeth being aligned with each other along respective directions that are incident relative to said longitudinal axis (A),
Apparatus for cleaning or pre-cleaning medical or surgical devices having a lumen, the apparatus comprising: • a sink for holding cleaning liquid, the sink having at least a first wall and a bottom and being adapted to expose objects to the cleaning liquid; • an overflow for draining cleaning liquid that reaches the overflow; • a drain located in the bottom of the sink for draining cleaning liquid from the sink; • an inlet for injecting cleaning liquid through the first wall ; • a movable draining layer in the sink, movable in a vertical direction by a lifting system to lift the draining layer out of the cleaning liquid for an inspection and brushing step and to lower it into the cleaning liquid for a rinsing step, • a bottom skimmer configured for moving sunken debris or detritus along the bottom of the sink towards and down the drain , and • an image capture device configured for capturing images of the medical or surgical devices to be or being cleaned. • a sink for holding cleaning liquid, the sink having at least a first wall and a bottom and being adapted to expose objects to the cleaning liquid; • an overflow for draining cleaning liquid that reaches the overflow; • a drain located in the bottom of the sink for draining cleaning liquid from the sink; • an inlet for injecting cleaning liquid through the first wall ; • a movable draining layer in the sink, movable in a vertical direction by a lifting system to lift the draining layer out of the cleaning liquid for an inspection and brushing step and to lower it into the cleaning liquid for a rinsing step, • a bottom skimmer configured for moving sunken debris or detritus along the bottom of the sink towards and down the drain , and • an image capture device configured for capturing images of the medical or surgical devices to be or being cleaned.
Expression cassette for a heterologous protein or fragment thereof in the intergenic E/NS1 region of the yellow fever 17D vaccine virus, wherein the expression cassette comprises two coding sequences for two functional domains, whereby the first functional domain serves to remove transmembrane segments from the protein, and the second functional domain serves to confer stability on the protein to be obtained, said coding sequence for functional domains consisting of: a first coding sequence for a furin protease recognition motif or a 2A self-cleaving peptide to release the recombinant heterologous protein from its C-terminus containing the transmembrane domains, said coding sequences being located after the coding sequence for the heterologous protein and before the coding sequence of the C-terminal stem and anchor domain of the E protein of DEN4 comprising SEQ ID NO:69 or SEQ ID NO:71; and a second coding sequence for a N-glycosylation motif, located after the coding sequence for a NS1 N-terminal motif of the yellow fever 17D vaccine virus comprising the sequence of SEQ ID NO: 27, and before the coding sequence for the heterologous protein, wherein, when the heterologous protein or fragment thereof is expressed, it will be processed normally by a host cell and induce an immune response. a first coding sequence for a furin protease recognition motif or a 2A self-cleaving peptide to release the recombinant heterologous protein from its C-terminus containing the transmembrane domains, said coding sequences being located after the coding sequence for the heterologous protein and before the coding sequence of the C-terminal stem and anchor domain of the E protein of DEN4 comprising SEQ ID NO:69 or SEQ ID NO:71; and a second coding sequence for a N-glycosylation motif, located after the coding sequence for a NS1 N-terminal motif of the yellow fever 17D vaccine virus comprising the sequence of SEQ ID NO: 27, and before the coding sequence for the heterologous protein, wherein, when the heterologous protein or fragment thereof is expressed, it will be processed normally by a host cell and induce an immune response.
An ultra-high molecular weight polyethylene composition, comprising the following components: modified graphene, modified silicon carbide whisker, and ultra-high molecular weight polyethylene wherein: - the modified graphene has a content of 0.5-5 wt% of the ultra-high molecular weight polyethylene; - the modified silicon carbide whisker has a content of 0.5-5 wt% of the ultra-high molecular weight polyethylene and the modified silicon carbide whisker is silicon carbide whisker modified with a silane coupling agent, the silicon carbide whisker and the silane coupling agent have a weight ratio of 1:(0.1-0.5); - the silicon carbide whiskers in the modified silicon carbide whiskers have a diameter of 100-600 nm and a length of 10-50 μm; - the silane coupling agent is a mixture of an alkyl silane coupling agent and an amino silane coupling agent, and the alkyl silane coupling agent has 12 carbon atoms in the alkyl group; - the alkyl silane coupling agent and the amino silane coupling agent have a weight ratio of (2:3)-(3 :2); - the ultra-high molecular weight polyethylene has a weight-average molecular weight of 2-2.4 million; - the modified graphene is an aminated graphene comprising piperazine modified graphene and octadecylamine modified graphene in a weight ratio of 1 : (2-3). - the modified graphene has a content of 0.5-5 wt% of the ultra-high molecular weight polyethylene; - the modified silicon carbide whisker has a content of 0.5-5 wt% of the ultra-high molecular weight polyethylene and the modified silicon carbide whisker is silicon carbide whisker modified with a silane coupling agent, the silicon carbide whisker and the silane coupling agent have a weight ratio of 1:(0.1-0.5); - the silicon carbide whiskers in the modified silicon carbide whiskers have a diameter of 100-600 nm and a length of 10-50 μm; - the silane coupling agent is a mixture of an alkyl silane coupling agent and an amino silane coupling agent, and the alkyl silane coupling agent has 12 carbon atoms in the alkyl group; - the alkyl silane coupling agent and the amino silane coupling agent have a weight ratio of (2:3)-(3 :2); - the ultra-high molecular weight polyethylene has a weight-average molecular weight of 2-2.4 million; - the modified graphene is an aminated graphene comprising piperazine modified graphene and octadecylamine modified graphene in a weight ratio of 1 : (2-3).
A heat exchanger with mutually adjacent first flow channels and second flow channels , wherein the first flow channels and the second flow channels at a first end region are received in a first header and at a second end region in a second header , wherein the first header consists of a first base and a first cover and the second header consists of a second base and a second cover , wherein the first base and the second base have a plurality of openings in which the end regions of the flow channels are received, wherein the first header has a first longitudinal channel and a second longitudinal channel , wherein the first flow channels are in fluid communication with the first longitudinal channel and the second flow channels are in fluid communication with the second longitudinal channel , characterised in that the second header together with the second base of the second header forms cross channels , wherein in each case a first flow channel and a second flow channel are in fluid communication with one another via a cross channel .
Set of parts for forming a secondary part for a linear motor with a length which amounts to at least an integer multiple of twice a unit length, comprising - a multiplicity of identically dimensioned magnetic pole plates , wherein each magnetic pole plate has the unit length; - a multiplicity of substantially rectangular holders , each of which is designed to receive at least two of the magnetic pole plates , wherein the holders comprise at least two identically dimensioned first holders and at least one second holder , - a multiplicity of spacing elements , each of which is designed to receive, on both sides, at least in each case one of the holders , wherein a first spacing element has a length that differs from the length of one of the first holders by at least one unit length; characterized in that the at least one second holder is dimensioned to be at least twice as long as each of the first holders such that it can receive at least twice the number of magnetic pole plates . - a multiplicity of identically dimensioned magnetic pole plates , wherein each magnetic pole plate has the unit length; - a multiplicity of substantially rectangular holders , each of which is designed to receive at least two of the magnetic pole plates , wherein the holders comprise at least two identically dimensioned first holders and at least one second holder , - a multiplicity of spacing elements , each of which is designed to receive, on both sides, at least in each case one of the holders , wherein a first spacing element has a length that differs from the length of one of the first holders by at least one unit length;
A service transmission method using a Flexible Optical Transport Network, FlexO, comprising: mapping (S301) customer service data into N FlexO frames on M Physical Layer, PHY, links of a FlexO transmission group; and sending (S302) the N FlexO frames through the FlexO transmission group; the FlexO transmission group comprises M PHY links, wherein the M is greater than or equal to 1, and the N is greater than or equal to the M, characterized in that the customer service data occupies the same number of cells in the FlexO frame of each PHY link, and cell locations of the occupied cells are the same. mapping (S301) customer service data into N FlexO frames on M Physical Layer, PHY, links of a FlexO transmission group; and sending (S302) the N FlexO frames through the FlexO transmission group; the FlexO transmission group comprises M PHY links, wherein the M is greater than or equal to 1, and the N is greater than or equal to the M, characterized in that the customer service data occupies the same number of cells in the FlexO frame of each PHY link, and cell locations of the occupied cells are the same.
A system comprising: a vehicle capable of semi-autonomous or autonomous operation; a plurality of forward-facing cameras coupled to the vehicle and configured to have a field of view in front of the vehicle, each of at least three forward-facing cameras of the plurality of forward-facing cameras having respective different focal lengths; a right-side camera coupled to a right side of the vehicle, the right-side camera configured to have a field of view to a right of the vehicle; a left-side camera coupled to a left side of the vehicle, the left-side camera configured to have a field of view to a left of the vehicle; and at least two backward-facing cameras coupled to the vehicle and configured to have a field of view behind the vehicle, the at least two backward-facing cameras having a focal length that is same as a focal length of one of the at least three forward-facing cameras. a vehicle capable of semi-autonomous or autonomous operation; a plurality of forward-facing cameras coupled to the vehicle and configured to have a field of view in front of the vehicle, each of at least three forward-facing cameras of the plurality of forward-facing cameras having respective different focal lengths; a right-side camera coupled to a right side of the vehicle, the right-side camera configured to have a field of view to a right of the vehicle; a left-side camera coupled to a left side of the vehicle, the left-side camera configured to have a field of view to a left of the vehicle; and at least two backward-facing cameras coupled to the vehicle and configured to have a field of view behind the vehicle, the at least two backward-facing cameras having a focal length that is same as a focal length of one of the at least three forward-facing cameras.
A frame of a loom comprising a pair of side frames connected to each other by means of a plurality of beam members (3a, 3b, 3c and 3d) attached to attachment parts on inner surfaces of each of the side frames, and each configured to support a heddle frame guide configured to guide up-and-down movement of a heddle frame of an opening device, the frame of a loom being characterized in that at least one of the pair of side frames (2 and 2) has, as a reference surface , a part located in a position of the inner surface in which the heddle frame guide in a warp direction is supported and the attachment part to which at least one of the plurality of beam members (3a, 3b, 3c and 3d) is attached is formed to be an offset attachment part (17; 18) located on a more inner side of the frame than the reference surface .
A coated conductor, comprising: (a) a conductor; and (b) a peelable polymeric coating surrounding at least a portion of said conductor, wherein said peelable polymeric coating comprises a polymeric matrix material and in the range of from 1 to 8 microcapillaries which extend substantially in the direction of elongation of said peelable polymeric coating, wherein said microcapillaries comprise a low-viscosity filler material which is a liquid filler at 100°C that has a kinematic viscosity at 100°C in the range of from 1 to 45,000 centistokes; wherein the microcapillaries define individual, discrete void spaces, and wherein the microcapillaries are completely surrounded by the polymeric matrix material when viewed as a cross section taken orthogonal to the direction of elongation of the microcapillaries. (a) a conductor; and (b) a peelable polymeric coating surrounding at least a portion of said conductor, wherein said peelable polymeric coating comprises a polymeric matrix material and in the range of from 1 to 8 microcapillaries which extend substantially in the direction of elongation of said peelable polymeric coating, wherein said microcapillaries comprise a low-viscosity filler material which is a liquid filler at 100°C that has a kinematic viscosity at 100°C in the range of from 1 to 45,000 centistokes; wherein the microcapillaries define individual, discrete void spaces, and wherein the microcapillaries are completely surrounded by the polymeric matrix material when viewed as a cross section taken orthogonal to the direction of elongation of the microcapillaries.
A connector for medium and low voltage application with a housing with a first chamber for receiving a first terminal and at least a part of a second terminal , wherein the first chamber is embodied to receive an inner plug , wherein the inner plug is provided for electrically connecting the first terminal with the second terminal , wherein the housing comprises a connecting means that is fixed with the housing , wherein the connecting means is arranged at least partly within the first chamber , wherein the connecting means is provided for connection with the first terminal , wherein the connecting means improves the mechanical connection between the first terminal and the housing , wherein the first chamber of the housing comprises an inner rim that is assigned to the first connecting means , wherein the inner rim abuts on a face of the first connecting means that is assigned to the first chamber , wherein the inner rim defines a diameter of the first chamber that is smaller than the cross section of the first connecting means perpendicular to the first axis , wherein the inner rim has to be expanded over an outer face of the first connecting means to remove the housing from the first terminal , characterized in that a further connecting means is arranged at an outer face of the housing , wherein the further connecting means has the shape of a shell that covers at least a part of the face of the housing , the shell is arranged at the outer face of the housing in an area of the inner rim , the further connecting means comprises fixing means for fixing the further connecting means to the housing, wherein the fixing means is for example form fit means.
A data migration method, comprising: in a process in which a second node migrates data to a first node, reading, by the first node from the second node, to-be-migrated data and a version number of the to-be-migrated data, and reading, by the first node from at least one third node, a version number of data that belongs to a same first service as the to-be-migrated data, wherein the data of the first service is distributively stored in the second node and the at least one third node; and when the first node determines that the version number of the to-be-migrated data read from the second node is different from a version number of data read from any one of the at least one third node, discarding, by the first node, the to-be-migrated data read from the second node. in a process in which a second node migrates data to a first node, reading, by the first node from the second node, to-be-migrated data and a version number of the to-be-migrated data, and reading, by the first node from at least one third node, a version number of data that belongs to a same first service as the to-be-migrated data, wherein the data of the first service is distributively stored in the second node and the at least one third node; and when the first node determines that the version number of the to-be-migrated data read from the second node is different from a version number of data read from any one of the at least one third node, discarding, by the first node, the to-be-migrated data read from the second node.
A device for producing a neovalve through a percutaneous minimally invasive method, comprising: a support scaffold defining a lumen; and a patch removably attached to a luminal surface of the support scaffold , wherein the patch traverses only a portion of a circumference of a luminal surface of the support scaffold such that the patch does not fully encircle the lumen of the support scaffold , wherein the patch is coated with a drug or includes a surface texture to encourage cellular proliferation across a majority of the patch. a support scaffold defining a lumen; and a patch removably attached to a luminal surface of the support scaffold , wherein the patch traverses only a portion of a circumference of a luminal surface of the support scaffold such that the patch does not fully encircle the lumen of the support scaffold , wherein the patch is coated with a drug or includes a surface texture to encourage cellular proliferation across a majority of the patch.
Actuating mechanism for a lifting or lifting-sliding wing , having a rotatably mounted gear nut into which a polygon can be inserted and which is connected in an articulated manner to a toggle lever which drives a displaceable drive rod , wherein the gear nut is rotatable between an initial position with lowered wing into an end position with raised wing , and the toggle lever , when the gear nut is rotated, passes through a dead center at which the wing is arranged in the maximum raised position, characterized in that a damping element is arranged on the toggle lever and, in the position of the toggle lever at the dead center, rests in a clamping manner against the polygon .