mhurhangee/ep-ind-claims huggingface dataset:
A surgical stapling instrument, comprising: a shaft configured to store a plurality of staple cartridges, wherein each said staple cartridge comprises a cartridge body, a plurality of staples, and a tissue contacting surface; a firing member configured to move along a firing path; a first jaw comprising: a proximal portion attached to said shaft; a distal portion; and a plurality of staple drivers; a second jaw comprising an anvil; and a cartridge driver configured to sequentially advance a said staple cartridge into said first jaw, wherein: said firing member is configured to engage said staple drivers and lift each said staple driver toward said second jaw as the firing member is moved between said proximal portion and said distal portion, and wherein said firing member is configured to engage said staple drivers and lower said staple drivers away from said second jaw as the firing member is moved between said distal portion and said proximal portion; and said anvil is configured to contact said staples when said staple drivers are lifted toward said second jaw. a shaft configured to store a plurality of staple cartridges, wherein each said staple cartridge comprises a cartridge body, a plurality of staples, and a tissue contacting surface; a firing member configured to move along a firing path; a first jaw comprising: a proximal portion attached to said shaft; a distal portion; and a plurality of staple drivers; a proximal portion attached to said shaft; a distal portion; and a plurality of staple drivers; a second jaw comprising an anvil; and a cartridge driver configured to sequentially advance a said staple cartridge into said first jaw,
A catalyst for olefin polymerization containing at least one metal complex comprising at least one -SF 5 group attached to a ligand bound to the metal.
A solid support for detecting the presence of antibodies in a biological sample, said solid support comprising microbial antigens immobilized on said solid support, wherein said microbial antigens comprise at least one antigen prepared from the group consisting of pleomorphic round bodies of a species of Borrelia genus, wherein said species of Borrelia genus is selected from the group consisting of Borrelia afzelii and Borrelia garinii, and said antigen is a lysate of said pleomorphic round bodies of a species of Borrelia genus. wherein said species of Borrelia genus is selected from the group consisting of Borrelia afzelii and Borrelia garinii, and said antigen is a lysate of said pleomorphic round bodies of a species of Borrelia genus.
Method for displaying the course of a trajectory in front of a vehicle or in front of a person, a pedestrian, a bicycle or a motorcycle with the aid of an augmented reality display unit in the form of a head-up display, data glasses or a monitor, on which a camera image is displayed, wherein the trajectory is overlaid in the field of view of the driver, the person or the pedestrian on the augmented reality display unit, wherein the trajectory course is represented in grid form, characterized in that the points of the grid are represented using symbols, of which only the border or the completely filled symbols are represented depending on the environmental condition, wherein the ambient brightness is detected and analysed as a first environmental condition, wherein, in the case of low ambient brightness, the points of the grid are represented using symbols, of which only the border is represented, and wherein, in the case of high ambient brightness, the points of the grid are represented using symbols which are represented filled up over the full surface.
An auxiliary hood lock for a holding a vehicle hood in a closed position, reducing injury to a pedestrian, and/or damage to the hood lock during a collision, comprising: catch engagement means comprising a lever interface portion, the catch engaging means being configured to engage a catch attached to a chassis of the vehicle; lever means comprising an engaging portion configured to operably engage the catch engagement means at the lever interface portion; first resilient means configured to bias the catch engagement means toward an engaged position with the catch; and second resilient means configured to bias the lever means toward a release direction of the auxiliary hood lock, wherein the lever interface portion is configured to enable the engaging portion to move from a normal position with the vehicle hood in the closed position in a direction (Ro) opposite to the release direction without exerting a force on the catch engagement means, wherein the biasing force of the second resilient means is configured such that the engaging portion remains in contact with a portion of the lever interface portion during normal operation of the vehicle, characterised in that the second resilient means is further configured to absorb energy during an impact on the hood lock in the direction (Ro) opposite to the release direction. catch engagement means comprising a lever interface portion, the catch engaging means being configured to engage a catch attached to a chassis of the vehicle; lever means comprising an engaging portion configured to operably engage the catch engagement means at the lever interface portion; first resilient means configured to bias the catch engagement means toward an engaged position with the catch; and second resilient means configured to bias the lever means toward a release direction of the auxiliary hood lock, wherein the lever interface portion is configured to enable the engaging portion to move from a normal position with the vehicle hood in the closed position in a direction (Ro) opposite to the release direction without exerting a force on the catch engagement means, wherein the biasing force of the second resilient means is configured such that the engaging portion remains in contact with a portion of the lever interface portion during normal operation of the vehicle, characterised in that the second resilient means is further configured to absorb energy during an impact on the hood lock in the direction (Ro) opposite to the release direction.
An apparatus comprising a large roller bearing and a monitoring apparatus for monitoring the large roller bearing, wherein the large roller bearing has two bearing rings (2, 4) and roller bodies (17, 18, 19; 27) running between them, and wherein the monitoring apparatus has a sensor (S1, S2, S3, S4) for detecting relative movements of the bearing rings (2, 4) with respect to one another, characterised in that the monitoring apparatus has a tilt clearance detection apparatus for detecting a tilt clearance of the two bearing rings (2, 4) which has at least two contactless path measurement sensors (S1, S2,) of which one is provided for determining radial movements and one is provided for determining axial movements of the bearing rings (2, 4) relative to one another, and which has an evaluation unit connectable to the path measurement sensors (S1, S2), wherein the evaluation unit is configured to determine tilt clearance movements of the two bearing rings (2, 4) relative to one another from the sensor signals, to compare the tilt clearance movements with predefined limit values and to determine the bearing state with reference to the comparison.
Interrupter unit of an electrical switching device having a flow-conducting body for guiding a gas dispersing in a first direction, the flow-conducting body being assembled from at least a first and a second element (7a, 7b) while forming a joint gap, characterized in that the joint gap has a section in which the two elements are formed with a complementary shape while forming a labyrinth structure, and the first element is connected to a carrier element while interposing a contact piece, wherein the second element is held positively locked between carrier element and first element by the joint gap.
A method of fabricating a three-dimensional structural element on an aerodynamic surface of a component, the three-dimensional structural element being configured to modify flow of a fluid passing over the aerodynamic surface, characterised by comprising the steps of: i) depositing one or more layers of material directly on the aerodynamic surface; and ii) then curing the deposited material on the aerodynamic surface to form the three dimensional structural element. i) depositing one or more layers of material directly on the aerodynamic surface; and ii) then curing the deposited material on the aerodynamic surface to form the three dimensional structural element.
A biometric authentication device configured to perform an authentication based on a similarity between fingerprints or veins of a biometric image that is an object of comparing and fingerprints or veins of an enrolled biometric image, the biometric authentication device comprising: A) a storage (103, 30, 43) configured to store a plurality of two-dimensional simulation images as a plurality of model images and combinations of bending angles of a joint as correction information, the combinations corresponding to the plurality of model images, the plurality of two-dimensional simulation images being generated by deforming a biometric three-dimensional model defined by a bending angle of a bone joint and a deformation of a skin with respect to each of the combinations of bending angles of the joint; B) a biometric sensor configured to capture a biometric image that is an object of comparing; C) a comparator configured to determine similarities between the biometric image captured by the biometric sensor and the plurality of model images; D) a selector configured to select a model image based on the similarities; E) a reader configured to read correction information corresponding to the model image that is selected, from the storage; and F) a corrector configured to make consistent the bending angle of the bone joint of the biometric image captured by the biometric sensor and the bending angle of the bone joint of the enrolled biometric image by correcting one of the biometric image captured by the biometric sensor or the enrolled biometric image based on the read correction information. A) a storage (103, 30, 43) configured to store a plurality of two-dimensional simulation images as a plurality of model images and combinations of bending angles of a joint as correction information, the combinations corresponding to the plurality of model images, the plurality of two-dimensional simulation images being generated by deforming a biometric three-dimensional model defined by a bending angle of a bone joint and a deformation of a skin with respect to each of the combinations of bending angles of the joint; B) a biometric sensor configured to capture a biometric image that is an object of comparing; C) a comparator configured to determine similarities between the biometric image captured by the biometric sensor and the plurality of model images; D) a selector configured to select a model image based on the similarities; E) a reader configured to read correction information corresponding to the model image that is selected, from the storage; and F) a corrector configured to make consistent the bending angle of the bone joint of the biometric image captured by the biometric sensor and the bending angle of the bone joint of the enrolled biometric image by correcting one of the biometric image captured by the biometric sensor or the enrolled biometric image based on the read correction information.
A method for characterizing a biological object (8, 9; 8, 90), wherein a stimulus is applied to the biological object (8, 9; 8, 90) in a contactless fashion, plural measurements are carried out on the biological object (8, 9; 8, 90) to ascertain a response of the biological object (8, 9; 8, 90) to the stimulus, wherein, to ascertain the response, - a measurement which comprises a detection of Raman scattering is performed on the biological object (8, 9; 8, 90) prior to application of the stimulus, and - a further measurement which comprises a further detection of Raman scattering is performed on the biological object (8, 9; 8, 90) after or during application of the stimulus, wherein a comparison of results of the measurement and the further measurement is performed, characterized in that the biological object (8, 9; 8, 90) is characterized as a function of the comparison of the results of the measurements. - a measurement which comprises a detection of Raman scattering is performed on the biological object (8, 9; 8, 90) prior to application of the stimulus, and - a further measurement which comprises a further detection of Raman scattering is performed on the biological object (8, 9; 8, 90) after or during application of the stimulus,
An ink set which is used for recording an image on a surface having a surface energy of 40 mN/m or greater and included in an impermeable base material, the ink set comprising: an ink containing water, a colorant, and resin particles; and a pretreatment liquid containing water and resin particles, wherein the resin particles contained in the pretreatment liquid include at least one of a mixture of acrylic resin particles and polyester resin particles or composite particles including an acrylic resin and a polyester resin, and the resin particles contained in the ink include at least one of acrylic resin particles or polyurethane resin particles. an ink containing water, a colorant, and resin particles; and a pretreatment liquid containing water and resin particles, wherein the resin particles contained in the pretreatment liquid include at least one of a mixture of acrylic resin particles and polyester resin particles or composite particles including an acrylic resin and a polyester resin, and the resin particles contained in the ink include at least one of acrylic resin particles or polyurethane resin particles.
A mobile handover method, comprising: receiving, by a second network device (110, 500), information from a first network device (100, 500) when the first network device (100, 500) learns that a terminal device (101, 300) is to be handed over to a target access network device (102, 400), wherein the information received from the first network device (100, 500) comprises: an identifier of the terminal device (101, 300) and an indication indicating that terminal device (101, 300) is to be handed over to the target access network device (102, 400); and reselecting, by the second network device (110, 500) based on the indication and target application server information corresponding to the target access network device (102, 400), a target user plane function device for the terminal device; and wherein the first network device (100, 500) learns that the terminal device (101, 300) is to be handed over to the target access network device (102, 400) by receiving information from a source access network device (102, 400) sent by the source access network device (102, 400) after it has received a handover response message indicating that the handover is agreed sent by the target access network device (102, 400) in response to a handover request sent by the source network access device. receiving, by a second network device (110, 500), information from a first network device (100, 500) when the first network device (100, 500) learns that a terminal device (101, 300) is to be handed over to a target access network device (102, 400), wherein the information received from the first network device (100, 500) comprises: an identifier of the terminal device (101, 300) and an indication indicating that terminal device (101, 300) is to be handed over to the target access network device (102, 400); and reselecting, by the second network device (110, 500) based on the indication and target application server information corresponding to the target access network device (102, 400), a target user plane function device for the terminal device; and wherein the first network device (100, 500) learns that the terminal device (101, 300) is to be handed over to the target access network device (102, 400) by receiving information from a source access network device (102, 400) sent by the source access network device (102, 400) after it has received a handover response message indicating that the handover is agreed sent by the target access network device (102, 400) in response to a handover request sent by the source network access device.
A method for mitigating a Denial of Service (DoS) attack against an entity in a service provider domain of a communication network, comprising: maintaining a list with identity data for each legitimate entity (11, 13) in said SP domain, wherein said identity data includes a L5/7 identity for each respective entity (11, 13); identifying the protocol used by an ingress PDU (P21, P22) received at a border element of said SP domain from a source outside said SP domain; inspecting the application layer payload of said PDU (P21, P22) to extract a source identity data of said source (21, 22), wherein said source identity data includes a L5/7 identity of said source (21, 22); verifying said source identity data against all identity data on said list; and declaring said source (21, 22) as illegitimate if said source identity data is present in said list. maintaining a list with identity data for each legitimate entity (11, 13) in said SP domain, wherein said identity data includes a L5/7 identity for each respective entity (11, 13); identifying the protocol used by an ingress PDU (P21, P22) received at a border element of said SP domain from a source outside said SP domain; inspecting the application layer payload of said PDU (P21, P22) to extract a source identity data of said source (21, 22), wherein said source identity data includes a L5/7 identity of said source (21, 22); verifying said source identity data against all identity data on said list; and declaring said source (21, 22) as illegitimate if said source identity data is present in said list.
A fuel supply system for an engine having a plurality of cylinders and intake passages connected to intake ports of the respective cylinders of the engine, the fuel supply system comprising: fuel injectors installed in the respective intake passages; and a fuel supply rail connected to the fuel injectors, wherein the fuel supply rail includes a first fuel supply rail and a second fuel supply rail, the fuel injectors include a first fuel injector group and a second fuel injector group, the first fuel supply rail is connected to the first fuel injector group, and the second fuel supply rail is connected to the second fuel injector group, and the first fuel supply rail and the second fuel supply rail are connected to each other through a connecting unit, characterized in that the first and second fuel supply rails (72, 73) are arranged to extend in a vehicle width direction in such a manner that each axis (e) thereof inclines rearward relative to a straight line extending normal to an engine center line (b), and the first and second fuel supply rails (72, 73) are arranged to incline in such a manner that their outside portions in the vehicle width direction are positioned more rearward in the vehicle than their inside portions and are positioned lower than the inside portions. fuel injectors installed in the respective intake passages; and a fuel supply rail connected to the fuel injectors, wherein the fuel supply rail includes a first fuel supply rail and a second fuel supply rail, the fuel injectors include a first fuel injector group and a second fuel injector group, the first fuel supply rail is connected to the first fuel injector group, and the second fuel supply rail is connected to the second fuel injector group, and the first fuel supply rail and the second fuel supply rail are connected to each other through a connecting unit, characterized in that the first and second fuel supply rails (72, 73) are arranged to extend in a vehicle width direction in such a manner that each axis (e) thereof inclines rearward relative to a straight line extending normal to an engine center line (b), and the first and second fuel supply rails (72, 73) are arranged to incline in such a manner that their outside portions in the vehicle width direction are positioned more rearward in the vehicle than their inside portions and are positioned lower than the inside portions.
A method for working a combustor float wall panel for a gas turbine engine, the combustor float wall panel having existing cooling pins and a contour characterised by: providing a supplemental body to the combustor float wall panel; and attaching at least one cooling pin to the supplemental body, the at least one cooling pin being longer than the existing cooling pins of the combustor float wall panel. providing a supplemental body to the combustor float wall panel; and attaching at least one cooling pin to the supplemental body, the at least one cooling pin being longer than the existing cooling pins of the combustor float wall panel.
A continuous process for preparing a crosslinked polymer comprising reacting a polymerization mixture comprising monomers of either (i) Formulae 11 and 22, (ii) Formulae 11 and 33, or (iii) Formulae 11, 22, and 33, wherein Formula 11, Formula 22, and Formula 33 are represented by the following structures: in a continuous process to form crosslinked polymer comprising structural units corresponding to Formulae 1 and 2, Formulae 1 and 3, or Formulae 1, 2, and 3, wherein Formula 1, Formula 2, and Formula 3 are represented by the following structures: wherein R 1 and R 2 are each independently hydrogen, alkyl, cycloalkyl, or aryl; A 1 is carboxylic, phosphonic, or phosphoric; A 11 is an optionally protected carboxylic, phosphonic, or phosphoric; X 1 is arylene; and X 2 is alkylene, an ether moiety, or an amide moiety, wherein the continuous process comprises a continuous reactor 30 with feeds from a mixer 10, that mixes the organic phase of monomers prior to addition to the reactor 30, and a vessel 20 which is a vessel to mix aqueous feeds to the reactor 30, and wherein the feeds from mixer 10 and vessel 20 are introduced and mixed upstream 32 of orifice 34, with an orifice design including one or more holes, wherein the orifice holes are shaped such as based on control of shear and droplet size. R 1 and R 2 are each independently hydrogen, alkyl, cycloalkyl, or aryl; A 1 is carboxylic, phosphonic, or phosphoric; A 11 is an optionally protected carboxylic, phosphonic, or phosphoric; X 1 is arylene; and X 2 is alkylene, an ether moiety, or an amide moiety,