mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a first lead configured to connect to existing vehicle wiring for activating a signal light of a right side of a vehicle; a first strobing light module having a first microcontroller connected to the first lead and configured to operate a first strobing light; a second lead configured to connect to existing vehicle wiring for activating a signal light of a left side of the vehicle; and a second strobing light module having a second microcontroller connected to the second lead and configured to operate a second strobing light; wherein the first and second microcontrollers are communicatively coupled, the first microcontroller configured to provide a first signal to the second microcontroller when the first microcontroller detects activation of the first lead, and the second microcontroller configured to provide a second signal to the first microcontroller when the second microcontroller detects activation of the second lead; charactered in that the first microcontroller is configured to strobe the first strobing light upon detecting activation of the first lead and receiving the second signal, and in that the second microcontroller is configured to strobe the second strobing light upon detecting activation of the second lead and receiving the first signal. a first lead configured to connect to existing vehicle wiring for activating a signal light of a right side of a vehicle; a first strobing light module having a first microcontroller connected to the first lead and configured to operate a first strobing light; a second lead configured to connect to existing vehicle wiring for activating a signal light of a left side of the vehicle; and a second strobing light module having a second microcontroller connected to the second lead and configured to operate a second strobing light; wherein the first and second microcontrollers are communicatively coupled, the first microcontroller configured to provide a first signal to the second microcontroller when the first microcontroller detects activation of the first lead, and the second microcontroller configured to provide a second signal to the first microcontroller when the second microcontroller detects activation of the second lead; charactered in that the first microcontroller is configured to strobe the first strobing light upon detecting activation of the first lead and receiving the second signal, and in that the second microcontroller is configured to strobe the second strobing light upon detecting activation of the second lead and receiving the first signal.
An extraction system comprising an extraction device and a bone staple, wherein the bone staple is provided with a first element comprising a plate from which four tips extend and a second element, which can be placed in contact, below the plate of the first element and enclosed inside the volume defined by the four tips, said extraction device comprising a main gripping body which has a proximal end and a distal end, a central rod comprising a proximal end and a distal end, said distal end of said central rod being adapted to couple with the first element of said staple; said central rod can slide axially within the main gripping body between a first position and a second position; wherein the extraction device further comprises movement means for moving the central rod and an abutment element protruding axially from said distal end of the main gripping body, adapted to act on the second element of the staple to obtain, in cooperation with the movement of the central rod, the separation of the second element of the staple from the first element of the staple and the removal thereof characterized in that the plate is having a central through hole and the second element is having a central through hole; and in that the abutment element comprises a plurality of abutment elements that are arranged circumferentially around the central rod.
A ball bearing having a first and a second race (3, 4) and, disposed in the gap between the two said races (3, 4), al least one row of balls of radius R K that roll along facing tracks (8, 9) of the two said races (3, 4), wherein the centers of the balls of a row move on a circular path that is surrounded by a torus circumscribing all the balls of said row and having the toroidal radius R K, a toroidal angle coordinate φ and a poloidal angle coordinate θ, and wherein each track (8, 9) has with cach ball two nearly punctiform contact areas or contact points (P 1, P 2; P 3 P 4) at the respective contact angle (θ P1, θ P2; θ P3 and θ P4), and wherein in the region of said contact angles (θ P1, θ P2; θ P3 and θ P4) the respective cross sections of the tracks have transverse curvatures possessing finite radii of curvature (R L1...R L4) cach of which is greater than the ball radius (R K): R Lv > R K, wherein said transverse radius of curvature (R L) of said track(s) (8, 9) is, in the vicinity of said contact angles (θ P1, θ P2; θ P3 and θ P4), always a continuous and differentiable function of the poloidal angle coordinate θ: R L - R L (θ), wherein both races (3, 4) each comprise a respective planar contact face for connection to a foundation, frame or other machine part or system part, as well as fastening bores coronally distributed therein for connection to a foundation, frame or other machine part or system part, characterized in that a) in the region of the contact angles, i.e., where θ Pv - 5° < θ < θ Pv + 5°, the track contour presents in each case an osculation S - (R K /R L) · 100% between 98% to 90%, wherein b) the function R L (θ) increases outward from the respective contact-angle region (θ P1, θ P2; θ P3 and θ P4) in both poloidal directions: R L (θ) ≥ R L (θ Pv), where appropriate even transforming to convex transverse radii of curvature R L < 0. a) in the region of the contact angles, i.e., where θ Pv - 5° < θ < θ Pv + 5°, the track contour presents in each case an osculation S - (R K /R L) · 100% between 98% to 90%, wherein b) the function R L (θ) increases outward from the respective contact-angle region (θ P1, θ P2; θ P3 and θ P4) in both poloidal directions: R L (θ) ≥ R L (θ Pv), where appropriate even transforming to convex transverse radii of curvature R L < 0.
A method for wireless communication, employing a first cellular RAT and a second Wi-Fi RAT in a node communicating in the first RAT, the method comprising: performing a Listen Before Talk, LBT, procedure to contend for access to an unlicensed radio frequency spectrum band shared by the first RAT and the second RAT; if winning contention for access to the unlicensed radio frequency spectrum band determining whether a resynchronization boundary has passed, wherein transmissions occurring prior to the resynchronization boundary are out-of-sync, and transmissions occurring after the resynchronization boundary are in sync; if it is determined that a resynchronization boundary has not passed, inserting, in a first transmission using a first radio access technology, RAT, a channel occupancy identifier (350, 375, 510, 535, 555, 580) for a second transmission using a second RAT, wherein the channel occupancy identifier (350, 375, 510, 535, 555, 580) comprises at least a portion of a Wi-Fi preamble; and transmitting the first transmission having the channel occupancy identifier (350, 375, 510, 535, 555, 580) over the unlicensed radio frequency spectrum band to stations employing the first RAT and to stations employing the second RAT; if it is determined that a resynchronization boundary has passed, transmitting the first transmission without the channel occupancy identifier to stations employing the first RAT and to stations employing the second RAT. performing a Listen Before Talk, LBT, procedure to contend for access to an unlicensed radio frequency spectrum band shared by the first RAT and the second RAT; if winning contention for access to the unlicensed radio frequency spectrum band determining whether a resynchronization boundary has passed, wherein transmissions occurring prior to the resynchronization boundary are out-of-sync, and transmissions occurring after the resynchronization boundary are in sync; if it is determined that a resynchronization boundary has not passed, inserting, in a first transmission using a first radio access technology, RAT, a channel occupancy identifier (350, 375, 510, 535, 555, 580) for a second transmission using a second RAT, wherein the channel occupancy identifier (350, 375, 510, 535, 555, 580) comprises at least a portion of a Wi-Fi preamble; and transmitting the first transmission having the channel occupancy identifier (350, 375, 510, 535, 555, 580) over the unlicensed radio frequency spectrum band to stations employing the first RAT and to stations employing the second RAT; if it is determined that a resynchronization boundary has passed, transmitting the first transmission without the channel occupancy identifier to stations employing the first RAT and to stations employing the second RAT.
An integrated electrode/separator structure layer suitable for forming an electrochemical cell with integrated folded layers comprising: a separator layer; one or more protective layers comprising a multi-layered structure comprising a single-ion conductive layer and a polymer layer deposited_overlying the separator layer; an electrode active material deposited overlying the one or more protective layers, and a current collector layer overlaying the electrode active material, wherein the separator layer, the one or more protective layers and the electrode active material form an integrated structure, wherein the integrated structure includes one or more Z-folds to form adjacent sections of the separator layer; and wherein the integrated electrode/separator structure comprises folded flattened contact regions at least partially not coated with active material to form contact to the current collector. a separator layer; one or more protective layers comprising a multi-layered structure comprising a single-ion conductive layer and a polymer layer deposited_overlying the separator layer; an electrode active material deposited overlying the one or more protective layers, and a current collector layer overlaying the electrode active material, wherein the separator layer, the one or more protective layers and the electrode active material form an integrated structure, wherein the integrated structure includes one or more Z-folds to form adjacent sections of the separator layer; and wherein the integrated electrode/separator structure comprises folded flattened contact regions at least partially not coated with active material to form contact to the current collector.
A system (100, 200), comprising: a camera (110, 224) to detect the position of a physical object positioned in a workspace; a projector to project first digital information in the workspace; a layering module to associate the physical object with a first layer in the workspace and to associate the projection of the first digital information with a second layer in the workspace and whereby the layering module maintains state information about the visual order of the layers; a user input module to receive user input; and a controller to control the visual order of the first and second layers via projection of the first digital information and to alter the projection of the first digital information to alter the visual order of the first and second layers in response to user input and the state information from the layering module such that foreground and background layers are swapped. a camera (110, 224) to detect the position of a physical object positioned in a workspace; a projector to project first digital information in the workspace; a layering module to associate the physical object with a first layer in the workspace and to associate the projection of the first digital information with a second layer in the workspace and whereby the layering module maintains state information about the visual order of the layers; a user input module to receive user input; and a controller to control the visual order of the first and second layers via projection of the first digital information and to alter the projection of the first digital information to alter the visual order of the first and second layers in response to user input and the state information from the layering module such that foreground and background layers are swapped.
A multi-layered polyethylene film comprising at least a core layer and at least one other layer adjacent thereto, the core layer comprising within a range from 5 wt% to 50 wt% of a cyclic olefin copolymer based on the weight of the core layer, and within a range from 50 wt% to 95 wt% of a polyethylene based on the weight of the core layer, wherein the cyclic olefin copolymer has a glass transition temperature (T g), as measured in the description, of at least 80°C, the core layer is sandwiched between two polyethylene skin layers, each skin layer independently comprises at least 50 wt% linear low density polyethylene by weight of each skin layer and each skin layer further independently comprises within a range from 0.5 wt% to 20 wt% LDPE, the polyethylene of the core layer is i) a linear low density polyethylene comprising within a range from 0.5 to 20 wt% C 4 to C 12 α-olefin derived units by weight of the copolymer, the remainder of the copolymer comprising ethylene-derived units, ii) a low density polyethylene, or iii) a combination thereof, and the film has a TD shrink of at least 18% and an MD shrink within a range from 55 to 90%, as measured by cutting circular specimens using a 50 mm die, embedding the obtained specimens in a layer of silicon oil and heating them on a 150°C hot plate. the core layer comprising within a range from 5 wt% to 50 wt% of a cyclic olefin copolymer based on the weight of the core layer, and within a range from 50 wt% to 95 wt% of a polyethylene based on the weight of the core layer, wherein the cyclic olefin copolymer has a glass transition temperature (T g), as measured in the description, of at least 80°C, the core layer is sandwiched between two polyethylene skin layers, each skin layer independently comprises at least 50 wt% linear low density polyethylene by weight of each skin layer and each skin layer further independently comprises within a range from 0.5 wt% to 20 wt% LDPE, the polyethylene of the core layer is i) a linear low density polyethylene comprising within a range from 0.5 to 20 wt% C 4 to C 12 α-olefin derived units by weight of the copolymer, the remainder of the copolymer comprising ethylene-derived units, ii) a low density polyethylene, or iii) a combination thereof, and the film has a TD shrink of at least 18% and an MD shrink within a range from 55 to 90%, as measured by cutting circular specimens using a 50 mm die, embedding the obtained specimens in a layer of silicon oil and heating them on a 150°C hot plate.
An epoxy-based crash durable adhesive composition comprising: a liquid resin system consisting of: (a) at least one epoxy resin; and (b) at least one capped polyurethane toughener; wherein the viscosity of the liquid resin system, component, is less than about 800 Pa·s at a temperature of about 15 °C; and wherein the viscosity of the liquid resin system, component, is greater than about 5 Pa·s at a temperature of about 60 °C, wherein viscosity is measured according to the method disclosed in the description; a solid material comprising: (c) at least one hydrophobic fumed silica, wherein the fumed silica is present in the adhesive composition at a concentration of greater than 5 weight percent; and a curative material comprising: (d) at least one latent heat-activated curing agent; wherein the epoxy-based crash durable adhesive composition is pumpable at a temperature of about 15 °C or greater. a liquid resin system consisting of: (a) at least one epoxy resin; and (b) at least one capped polyurethane toughener; wherein the viscosity of the liquid resin system, component, is less than about 800 Pa·s at a temperature of about 15 °C; and wherein the viscosity of the liquid resin system, component, is greater than about 5 Pa·s at a temperature of about 60 °C, wherein viscosity is measured according to the method disclosed in the description; (a) at least one epoxy resin; and (b) at least one capped polyurethane toughener; a solid material comprising: (c) at least one hydrophobic fumed silica, wherein the fumed silica is present in the adhesive composition at a concentration of greater than 5 weight percent; and a curative material comprising: (d) at least one latent heat-activated curing agent;
A thrust reverser comprising an actuator gimbal assembly, the actuator gimbal assembly characterised by comprising: a gimbal; an extendable thrust reverser actuator; first and second gimbal pins (110,111) defining a first pivot axis, the first and second gimbal pins (110,111) adapted to form a pivotal joint with a fixed structure of the thrust reverser; third and fourth gimbal pins (120,121) mounted between the gimbal and the thrust reverser actuator and creating a pivotal joint therebetween, and defining a second pivot axis normal to the first pivot axis; and wherein the first and second gimbal pins (110,111) each include a shaft and a flange integrally formed together, the flange including a pair of bores (206a,206b) for receiving a fastener (302a to 302d) to fasten the respective gimbal pin (110,111) to the thrust reverser fixed structure. a gimbal; an extendable thrust reverser actuator; first and second gimbal pins (110,111) defining a first pivot axis, the first and second gimbal pins (110,111) adapted to form a pivotal joint with a fixed structure of the thrust reverser; third and fourth gimbal pins (120,121) mounted between the gimbal and the thrust reverser actuator and creating a pivotal joint therebetween, and defining a second pivot axis normal to the first pivot axis; and wherein the first and second gimbal pins (110,111) each include a shaft and a flange integrally formed together, the flange including a pair of bores (206a,206b) for receiving a fastener (302a to 302d) to fasten the respective gimbal pin (110,111) to the thrust reverser fixed structure.
A chip package, comprising a package substrate and a metal cap covering the package substrate, wherein: a silicon chip placement area is arranged on an upper surface of the package substrate, first conductive parts are arranged in a peripheral area of the silicon chip placement area, and an edge of the metal cap is in contact with the package substrate and electrically connected to the first conductive parts, wherein at least one first conductive part of the first conductive parts is electrically connected to a grounding part by using the metal cap, and the grounding part is arranged on the package substrate, and configured to ground the package substrate, characterized in that the package substrate is further provided with second conductive parts, wherein the second conductive parts are arranged on side walls of the package substrate, extended to the upper surface of the package substrate, and electrically connected to the first conductive parts, so that the first conductive parts, the second conductive parts, and the metal cap form a Faraday cage.
Vehicle with an electrically heatable latent heat accumulator (100, 100', 10) with a phase-change material (104, 7) as storage medium to heat a passenger compartment and/or a vehicle interior, the latent heat accumulator having a fluidly sealed housing in which the PCM is arranged, characterized in that a plurality of electrically effective heating elements are essentially uniformly distributed throughout the volume of the PCM (104, 7) and/or that at least one electrically effective heating element is provided and a plurality of thermal conductivity structures are essentially distributed uniformly throughout the volume of the PCM (104, 7), characterised in that a ratio of the heating output of the heating elements or of the heating element to a heat accumulator capacity of the phase-change material is at least 5 h- 1, wherein the effective parts of the heating elements or of the heating element are completely covered by the phase-change material (104, 7) independently of the aggregate state of the phase-change material (104, 7). a plurality of thermal conductivity structures are essentially distributed uniformly throughout the volume of the PCM (104, 7), characterised in that a ratio of the heating output of the heating elements or of the heating element to a heat accumulator capacity of the phase-change material is at least 5 h- 1, wherein the effective parts of the heating elements or of the heating element are completely covered by the phase-change material (104, 7) independently of the aggregate state of the phase-change material (104, 7).
A surgical tool, comprising a proximal coupling portion from which two hydraulically actuatable, pivotably connected members extend, each having an active portion, at least at their distal ends, wherein the members in the coupling portion form a boundary for at least a part of a fluid-tight, fluid-fillable cavity, such that a pivot position of the members and a volume of the fluid are operatively coupled together in the cavity characterized in that the surgical tool in the coupling portion comprises a tool housing with at least one recess in which the pivotably connected members are led by a guide portion (145"), such that at the tool housing a hydraulic connection is disposed and such that the tool housing forms the cavity with the members, said cavity being fluidically connected with the hydraulic connection.
A camera for industrial image processing, comprising a camera module and an objective module that is releasably connected thereto and has an optical system having at least one optical lens, further an image sensor for capturing an image and a camera control unit for controlling the camera module and/or the objective module are provided in the camera module, and a storage unit having lens data is provided in the objective module, characterized in that interacting wireless near field communication units (25, 35) are provided in the camera module and in the objective module, wherein the near field communication unit in the objective module converts an electromagnetic alternating field emitted from the near field communication unit in the camera module into electrical energy for supplying energy to the objective module and that the camera module reads the lens data out via the near field communication units (25, 35) and the camera control unit controls therewith a function of the camera module and/or of the objective module.