mhurhangee/patent-ind-claim-en huggingface dataset:
An adapter for coupling a ground engaging tool to a work tool, the adapter comprising: a nose portion shaped to fit inside a cavity formed in the ground engaging tool, the nose portion including a side surface ; a post formed in the side surface of the nose portion , the post including a side surface and an end surface ; and a half-annular-shaped cut extending into the side surface of the nose portion and circumferentially around a rear portion of the post , wherein the cut is sized to receive a C-shaped portion of a rotatable lock of the ground engaging tool, the C-shaped portion defining a slot formed therein for accepting a portion of the post . a nose portion shaped to fit inside a cavity formed in the ground engaging tool, the nose portion including a side surface ; a post formed in the side surface of the nose portion , the post including a side surface and an end surface ; and a half-annular-shaped cut extending into the side surface of the nose portion and circumferentially around a rear portion of the post , wherein the cut is sized to receive a C-shaped portion of a rotatable lock of the ground engaging tool, the C-shaped portion defining a slot formed therein for accepting a portion of the post .
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: a lithium salt; an organic solvent; and an additive, wherein the additive includes vinylene carbonate, vinyl ethylene carbonate, and a compound represented by a following chemical formula 1: and wherein each of R 1 to R 3 is each independently hydrogen or an alkyl group having 1 to 3 carbon atoms. a lithium salt; an organic solvent; and an additive, wherein the additive includes vinylene carbonate, vinyl ethylene carbonate, and a compound represented by a following chemical formula 1: and wherein each of R 1 to R 3 is each independently hydrogen or an alkyl group having 1 to 3 carbon atoms.
A method for detecting and tracking a moving object using real-time camera motion estimation, comprising: generating a feature map representing a change in an image pattern in an input image, and extracting feature information of the image; estimating a global motion for recognizing a motion of a camera using the extracted feature information; and correcting the input image by reflecting the estimated global motion, and detecting a moving object by comparing the corrected previous image with a current image; characterized by generating an appearance model by accumulating the detected area of the moving object obtained in the previous images; and if the moving object is not detected in the current image due to its stoppage or a slight motion, tracking the moving object through pattern matching in an area which is extended by a predetermined offset from the moving object's area detected in the previous image, using the appearance model. generating a feature map representing a change in an image pattern in an input image, and extracting feature information of the image; estimating a global motion for recognizing a motion of a camera using the extracted feature information; and correcting the input image by reflecting the estimated global motion, and detecting a moving object by comparing the corrected previous image with a current image; characterized by generating an appearance model by accumulating the detected area of the moving object obtained in the previous images; and if the moving object is not detected in the current image due to its stoppage or a slight motion, tracking the moving object through pattern matching in an area which is extended by a predetermined offset from the moving object's area detected in the previous image, using the appearance model.
A piston rod for pumping fluid, the piston rod comprising: a piston rod body elongated along a longitudinal axis, the piston rod body comprising: a downstream end ; an upstream end disposed opposite the downstream end; at least two ridges located along the upstream end; and one or more flutes , each of the one or more flutes respectively comprising an open groove that extends along an exterior of the piston rod body, wherein fluid flows within the one or more flutes during pumping, and wherein the one or more flutes comprise at least two flutes located along the upstream end, and the at least two flutes are defined by a corresponding number of the at least two ridges, and characterized in that threading is formed on the at least two ridges. a piston rod body elongated along a longitudinal axis, the piston rod body comprising: a downstream end ; an upstream end disposed opposite the downstream end; at least two ridges located along the upstream end; and a downstream end ; an upstream end disposed opposite the downstream end; at least two ridges located along the upstream end; and one or more flutes , each of the one or more flutes respectively comprising an open groove that extends along an exterior of the piston rod body, wherein fluid flows within the one or more flutes during pumping, and wherein the one or more flutes comprise at least two flutes located along the upstream end, and the at least two flutes are defined by a corresponding number of the at least two ridges, and characterized in that threading is formed on the at least two ridges.
An optical system (L0) consisting of a first lens unit (L1) having positive refractive power, a second lens unit (L2) having negative refractive power and configured to move in focusing, and a third lens unit (L3) having negative refractive power that are arranged in order from an object side to an image side, wherein a distance between adjacent two of the lens units changes in focusing, characterized in that among distances on the optical axis between two adjacent lenses in the optical system (L0), a distance between a lens closest to the object side and a lens adjacent thereto is largest, and in that the optical system (L0) satisfies the following conditional inequalities: 0.10 < TL 3 / TL < 0.40 , 0.70 < SD 3 / TL 3 < 0.90 , and 0.05 < DM 3 / TL 3 < 0.14 , where TL is a distance on an optical axis from a lens surface closest to the object side to a lens surface closest to the image side, TL3 is a distance on the optical axis from a lens surface closest to the object side in the third lens unit (L3) to a lens surface closest to the image side in the third lens unit (L3), SD3 is a sum of thicknesses, on the optical axis, of lenses in the third lens unit (L3), and DM3 is the largest of the thicknesses, on the optical axis, of the lenses in the third lens unit (L3). wherein a distance between adjacent two of the lens units changes in focusing, characterized in that among distances on the optical axis between two adjacent lenses in the optical system (L0), a distance between a lens closest to the object side and a lens adjacent thereto is largest, and in that the optical system (L0) satisfies the following conditional inequalities: 0.10 < TL 3 / TL < 0.40 , 0.70 < SD 3 / TL 3 < 0.90 , and 0.05 < DM 3 / TL 3 < 0.14 , where TL is a distance on an optical axis from a lens surface closest to the object side to a lens surface closest to the image side, TL3 is a distance on the optical axis from a lens surface closest to the object side in the third lens unit (L3) to a lens surface closest to the image side in the third lens unit (L3), SD3 is a sum of thicknesses, on the optical axis, of lenses in the third lens unit (L3), and DM3 is the largest of the thicknesses, on the optical axis, of the lenses in the third lens unit (L3).
A computer-implemented method for routing a client request to a server module , the computer-implemented method comprising computer-implemented operations for: receiving a client request from a client computer at a router module ; and in response to receiving the client request , the router module : querying a load balancer for a target network address of a server module to fulfill the client request ; comparing the target network address to one or more network addresses in a list of network addresses to determine if the router module and the server module to fulfill the client request are executing on the same physical computer ; in response to determining that the router module and the server module are executing on the same physical computer, forwarding the client request from the router module to the server module via a transport that utilizes binary encoding and that does not utilize a network stack; and in response to determining that the router module and the server module to fulfill the client request are not executing on the same physical computer , forwarding the client request from the router module to the server module utilizing a standard network transport . receiving a client request from a client computer at a router module ; and in response to receiving the client request , the router module : querying a load balancer for a target network address of a server module to fulfill the client request ; comparing the target network address to one or more network addresses in a list of network addresses to determine if the router module and the server module to fulfill the client request are executing on the same physical computer ; in response to determining that the router module and the server module are executing on the same physical computer, forwarding the client request from the router module to the server module via a transport that utilizes binary encoding and that does not utilize a network stack; and in response to determining that the router module and the server module to fulfill the client request are not executing on the same physical computer , forwarding the client request from the router module to the server module utilizing a standard network transport . querying a load balancer for a target network address of a server module to fulfill the client request ; comparing the target network address to one or more network addresses in a list of network addresses to determine if the router module and the server module to fulfill the client request are executing on the same physical computer ; in response to determining that the router module and the server module are executing on the same physical computer, forwarding the client request from the router module to the server module via a transport that utilizes binary encoding and that does not utilize a network stack; and in response to determining that the router module and the server module to fulfill the client request are not executing on the same physical computer , forwarding the client request from the router module to the server module utilizing a standard network transport .
LED module for installation in a luminaire, in particular in a street luminaire, wherein the LED module has a power interface which is set up for detachable connection to an electronic ballast , EB, in the luminaire in order to supply the LED module with electrical power when it is installed in the luminaire, wherein the LED module has at least one group of LEDs and the power interface is connected to the group of LEDs, so that the electrical power provided at the power interface is supplied to the LED group, wherein the LED module furthermore has a data bus interface which is set up to be coupled to a data bus in the EB, characterized in that the LED module is set up to communicate an available functional scope of the LED module to the EB via the data bus interface. wherein the LED module has a power interface which is set up for detachable connection to an electronic ballast , EB, in the luminaire in order to supply the LED module with electrical power when it is installed in the luminaire, wherein the LED module has at least one group of LEDs and the power interface is connected to the group of LEDs, so that the electrical power provided at the power interface is supplied to the LED group, wherein the LED module furthermore has a data bus interface which is set up to be coupled to a data bus in the EB, characterized in that the LED module is set up to communicate an available functional scope of the LED module to the EB via the data bus interface.
Use of a composition, comprising: a complex of a bisulfite-converted B3GALT6 nucleic acid and at least one oligonucleotide, wherein at least a portion of said oligonucleotide is hybridized to said B3GALT6 nucleic acid, wherein said bisulfite-converted B3GALT6 nucleic acid is used as a methylated reference marker and internal control that is processed and detected alongside marker DNA indicative of disease in methylation assays. a complex of a bisulfite-converted B3GALT6 nucleic acid and at least one oligonucleotide, wherein at least a portion of said oligonucleotide is hybridized to said B3GALT6 nucleic acid, wherein said bisulfite-converted B3GALT6 nucleic acid is used as a methylated reference marker and internal control that is processed and detected alongside marker DNA indicative of disease in methylation assays.
An antenna structure comprising: a first signal connector ; a second signal connector ; a cavity antenna defined by a set of planar walls , the cavity antenna being coupled to the first signal connector and configured for emitting a field polarized linearly in a first direction when driven by a signal at the first signal connector ; a dipole antenna defined by a pair of arms that are integrated with a wall of the cavity antenna , the dipole antenna being coupled to the second signal connector and configured for emitting a field polarized linearly in a second direction offset from the first direction when driven by a signal at the second signal connector , wherein the cavity comprises a slit extending between the dipole arms at least part-way through the wall of the cavity. a first signal connector ; a second signal connector ; a cavity antenna defined by a set of planar walls , the cavity antenna being coupled to the first signal connector and configured for emitting a field polarized linearly in a first direction when driven by a signal at the first signal connector ; a dipole antenna defined by a pair of arms that are integrated with a wall of the cavity antenna , the dipole antenna being coupled to the second signal connector and configured for emitting a field polarized linearly in a second direction offset from the first direction when driven by a signal at the second signal connector , wherein the cavity comprises a slit extending between the dipole arms at least part-way through the wall of the cavity.
A transfer guard member comprising: a body for being positioned in a laterally extending gap between conveying surfaces; at least one attachment member of the body configured for being detachably fixed to a mounting bar , the attachment member having an upper transfer surface ; an outboard portion extending longitudinally outward from the attachment member; at least one recess of the body adjacent the attachment member for receiving at least one attachment member of another transfer guard member fixed to the mounting bar so that the upper transfer surfaces of the attachment members are adj acent one another; and a lateral width of the outboard portion being greater than a lateral width of the attachment member due to the at least one recess adjacent the at least one attachment member, characterised in that the body includes at least one protrusion extending longitudinally outward from the attachment member and being configured to interfere with the other transfer guard member fixed to the mounting bar and tightly engage the transfer guard members together on the mounting bar. a body for being positioned in a laterally extending gap between conveying surfaces; at least one attachment member of the body configured for being detachably fixed to a mounting bar , the attachment member having an upper transfer surface ; an outboard portion extending longitudinally outward from the attachment member; at least one recess of the body adjacent the attachment member for receiving at least one attachment member of another transfer guard member fixed to the mounting bar so that the upper transfer surfaces of the attachment members are adj acent one another; and a lateral width of the outboard portion being greater than a lateral width of the attachment member due to the at least one recess adjacent the at least one attachment member, characterised in that the body includes at least one protrusion extending longitudinally outward from the attachment member and being configured to interfere with the other transfer guard member fixed to the mounting bar and tightly engage the transfer guard members together on the mounting bar.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one longitudinal slit, in which slit at least one longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for a rod-like extension of an oscillating arm, wherein said rod-like extension can be pivotally connected to said connecting device about a pivot axis near a free end thereof, wherein said connecting device comprises a first part and a second part , wherein said rod-like extension of said oscillating arm can be pivotally connected to said first part about said pivot axis, with the interposition of said second part , wherein said first part is connected to said wiper blade and said second part is detachably snapped onto said first part , wherein said second part comprises a channel arranged to receive said free end of said rod-like extension , and wherein said second part has a U-shaped cross-section having an inclined base and two legs extending downwardly from said base , characterised in that said second part comprises reinforcement means to arrange that bending locations of said legs upon snapping said second part onto said first part lie in the same horizontal plane (A), wherein said legs have the same height and the same thickness below said horizontal plane (A).
A buffer device for being installed in the area of a truck loading station, in particular a loading ramp , comprising a loading opening in order to absorb energy when coming into contact with a truck rear end driving backward against the truck loading station, the buffer device comprising at least one spring clip assembly extending along a longitudinal axis (L) and a width axis (B) perpendicular thereto, the spring clip assembly having at least one spring clip and being mounted in such a manner in a bearing portion in the area of a first end that it can be moved about a pivot axis of a pivot bearing , which is oriented parallel to the width axis (B), and being fixed to a front of a support plate comprising two preferably parallel side edges (16; 17) spaced apart along the width axis (B), the pivot bearing having two force absorber elements which are spaced apart by a bearing distance (A) along the width axis (B) and between which the bearing portion is accommodated and which preferably support a bearing bolt defining the pivot axis , the spring clip assembly being supported on the front of the support plate with a support surface in the area of a second end, which is spaced apart from the first end along the longitudinal axis (L), in order to slide along a sliding distance (S) on the support plate when it is elastically deformed along the longitudinal axis (L), and the spring clip assembly being secured against springing off in a direction perpendicular to a support plate front surface dimension in the area of the second end by a preferably bow-shaped securing element , which defines a receiving opening for a tongue portion of the spring clip assembly , characterized in that the spring clip assembly has a greater width along the width axis (B) in an intermediate portion formed between the bearing portion and the tongue portion than in the bearing portion and/or in the tongue portion , in particular along the width axis (B) up to at least one of the side edges (16; 17) of the support plate or beyond.
Encapsulation-housing arrangement comprising - a first tube portion with a first tube-portion end region , - a second tube portion with a second tube-portion end region , which is directed towards the first tube-portion end region , - a connecting part which connects the two tube-portion end regions , which is connected fixedly to the first tube portion , and on which the second tube portion is mounted in such a way that it is displaceable parallel to a longitudinal axis of the second tube portion relative to the first tube portion and is tiltable in relation to the first tube portion , - a perforated disc which is arranged around the first tube-portion end region and which is connected fixedly to the second tube portion , - a first corrugated bellows which is arranged in a ring-like manner around the first tube-portion end region between the connecting part and the perforated disc , and - a second corrugated bellows which is arranged in a ring-like manner around the first corrugated bellows between the connecting part and the perforated disc , wherein - the first corrugated bellows , the second corrugated bellows , the perforated disc and the connecting part enclose a compensating volume , said compensating volume being connected by at least one connecting channel , which extends in the connecting part , to a tube volume , which is surrounded by the tube portions and the connecting part . - a first tube portion with a first tube-portion end region , - a second tube portion with a second tube-portion end region , which is directed towards the first tube-portion end region , - a connecting part which connects the two tube-portion end regions , which is connected fixedly to the first tube portion , and on which the second tube portion is mounted in such a way that it is displaceable parallel to a longitudinal axis of the second tube portion relative to the first tube portion and is tiltable in relation to the first tube portion , - a perforated disc which is arranged around the first tube-portion end region and which is connected fixedly to the second tube portion , - a first corrugated bellows which is arranged in a ring-like manner around the first tube-portion end region between the connecting part and the perforated disc , and - a second corrugated bellows which is arranged in a ring-like manner around the first corrugated bellows between the connecting part and the perforated disc , wherein - the first corrugated bellows , the second corrugated bellows , the perforated disc and the connecting part enclose a compensating volume , said compensating volume being connected by at least one connecting channel , which extends in the connecting part , to a tube volume , which is surrounded by the tube portions and the connecting part .
Grinding roller having a cylindrical roller body and at least one side wall which is arranged on an end side of the roller body and non-rotationally fixed to the roller body , and which protrudes beyond the outer casing surface of the roller body on the outside, wherein the connection between the roller body and the side wall is formed by means of at least one screw connection , wherein, in the unconnected state, the side wall bears on the end wall of the roller body in a first section and, in a second section , a gap which, in the connected state, is at least partly eliminated as a result of elastic deformation of the side wall , is formed between the side wall and the end wall of the roller body , characterized in that at least one further section is provided, in which, even in the connected state, a gap is formed between the side wall and the end wall of the roller body .