mhurhangee/ep-ind-claims huggingface dataset:
A device for locating anchoring orifices for fastening scaffolding on a building, for the implementation of a method for thermally insulating a building from the outside, the device comprising: - a tube having a peripheral collar at a first end; - a plug for sealing the first end of the tube, characterised in that the tube is a tube split over its entire length, and in that the device comprises holding means for keeping a width of the slot of the tube constant, and in that the holding means are in the form of adhesive strips having a first portion secured to the tube on a first side of the slot, and a second portion intended to be secured to the other portion of the tube, on the other side of the slot. - a tube having a peripheral collar at a first end; - a plug for sealing the first end of the tube, characterised in that the tube is a tube split over its entire length, and in that the device comprises holding means for keeping a width of the slot of the tube constant, and in that the holding means are in the form of adhesive strips having a first portion secured to the tube on a first side of the slot, and a second portion intended to be secured to the other portion of the tube, on the other side of the slot.
A dispenser assembly, comprising: a rod having a plunger receiving end with a clip receiving portion, wherein the clip receiving portion is an annular recess formed on the rod; a plunger having a rod receiving structure with a rod engaging clip biased to fit to the clip receiving portion of the rod for movement therewith; a handle assembly having a cartridge receiving structure that includes a material dispensing end and a stopper supporting end with a stopper being attached to the stopper supporting end, wherein the handle assembly further includes a rod advancing mechanism configured to move the rod thereby causing the plunger to apply pressure to a removable cartridge (Ci) installed to the cartridge receiving structure in order to dispense contents of the removable cartridge (Ci); and the stopper having a plunger receiving space that defines an aperture extending through the plunger receiving space with the rod extending through the aperture, the plunger receiving space being dimensioned such that with the rod receiving structure of the plunger located within the plunger receiving space, movement of the rod engaging clip is restricted by contact with surfaces of the plunger receiving space preventing release of the rod from the plunger, wherein the stopper being further configured such that with the rod receiving structure being spaced apart from the plunger receiving space, movement of the rod engaging clip is unrestricted. a rod having a plunger receiving end with a clip receiving portion, wherein the clip receiving portion is an annular recess formed on the rod; a plunger having a rod receiving structure with a rod engaging clip biased to fit to the clip receiving portion of the rod for movement therewith; a handle assembly having a cartridge receiving structure that includes a material dispensing end and a stopper supporting end with a stopper being attached to the stopper supporting end, wherein the handle assembly further includes a rod advancing mechanism configured to move the rod thereby causing the plunger to apply pressure to a removable cartridge (Ci) installed to the cartridge receiving structure in order to dispense contents of the removable cartridge (Ci); and the stopper having a plunger receiving space that defines an aperture extending through the plunger receiving space with the rod extending through the aperture, the plunger receiving space being dimensioned such that with the rod receiving structure of the plunger located within the plunger receiving space, movement of the rod engaging clip is restricted by contact with surfaces of the plunger receiving space preventing release of the rod from the plunger, wherein the stopper being further configured such that with the rod receiving structure being spaced apart from the plunger receiving space, movement of the rod engaging clip is unrestricted.
A method to improve the performance in fail-safe trajectory planning for a moving entity, where the method uses at least three subsystems (COM, MON, DECIDE), wherein a first of said subsystems, the so-called commander, implements at least a sensor fusion stage and a trajectory planning stage (TRJ-PLN), and wherein a second of said subsystems, the so-called monitor implements at least a sensor fusion stage, and a safe envelope generating stage and wherein sensors (SENS1-SENS3, SENSk, SENSk1) are monitoring the surrounding of the moving entity, and wherein said sensor fusion stages (SF1, SF2) of the commander and the monitor accept raw and/or preprocessed sensor data from the monitoring of said sensors (SENS1-SENS3, SENSk, SENSk1) as input, and wherein based on said input the sensor fusion stages (SF1, SF2) of the commander and the monitor produce as output real-time images (COM-OBJ1, COM-OBJ2, MON-OBJ1, MON-OBJ2) of objects (OBJ1, OBJ2) detected due to the monitoring by the sensors, and wherein the trajectory planning stage (TRJ-PLN) of the commander generates one or more trajectories (COM-TRJ1, COM-TRJ2) based at least on the output of the sensor fusion stage of the commander, and wherein said safe envelope generating stage of the monitor generates a safety envelope based at least on the output of the sensor fusion stage of the monitor, and wherein the commander provides the one or more trajectories (COM-TRJ1, COM-TRJ2) to the monitor as well as to the decision subsystem (DECIDE), wherein a trajectory verification stage (TRJ-VRFY) of the monitor verifies a trajectory (COM-TRJ1, COM-TRJ2) generated by the commander if and only if said trajectory (COM-TRJ1, COM-TRJ2) is completely located inside said safety envelope generated by the safe envelope generating stage of the monitor, and wherein a moving entity uses a trajectory (COM-TRJ1, COM-TRJ2) generated by the commander only when said trajectory is verified by the monitor, and wherein the sensor fusion stages (SF1, SF2) of the commander and the monitor produce as output real-time images (COM-OBJ1, COM-OBJ2, MON-OBJ1, MON-OBJ2) of objects (OBJ1, OBJ2) detected due to the monitoring of the sensors, and wherein the trajectory planning stage (TRJ-PLN) of the commander generates one or more trajectories (COM-TRJ1, COM-TRJ2) based on the output of the sensor fusion stage of the commander, and wherein the safe envelope generation stage generates the safety envelope based at least on the output of the sensor fusion stage of the monitor.
An aluminum alloy wire, having an alloy composition which consists of: 0.01 to 1.2 mass% of Fe, 0.1 to 1.0 mass% of Mg, and 0.1 to 1.0 mass% of Si, optionally 0.01 to 0.5 mass% of Cu, and further optionally at least one of Ti and B in a total amount of 0.001 to 0.03 mass%, with the balance being Al and inevitable impurities, wherein a grain size is 1 to 30 μm, and wherein a dispersion density of Mg 2 Si needle precipitate in the aluminum alloy is 10 to 200/μm 2.
A pressure sensitive adhesive article comprising (a) a substrate (Sa); (b) in contact with said substrate (Sa), a layer (Lb) of a tackifier-free composition (Cb) that comprises one or more acrylic polymer (POLb) having Tg determined by the method described herein of -10°C or lower, said composition (Cb) being tackifier-free as the amount of all tackifiers in the composition is either zero or is less than 10% by weight based on the dry weight of the composition; and (c) in contact with said layer (Lb), a layer (Lc) of a tackifier-containing composition (Cc) that comprises one or more tackifier and one or more hydrocarbon polymer (POLc) having Tg determined by the method described herein of -10°C; wherein said acrylic polymer (POLb) is a latex of particles of polymer formed by emulsion polymerization; said acrylic polymer (POLb) has weight-average molecular weight of 50,000 or higher; and the amount of said tackifier in said article is 12% or less by weight, based on the sum of the weights of said composition (Cb) and said composition (Cc). (a) a substrate (Sa); (b) in contact with said substrate (Sa), a layer (Lb) of a tackifier-free composition (Cb) that comprises one or more acrylic polymer (POLb) having Tg determined by the method described herein of -10°C or lower, said composition (Cb) being tackifier-free as the amount of all tackifiers in the composition is either zero or is less than 10% by weight based on the dry weight of the composition; and (c) in contact with said layer (Lb), a layer (Lc) of a tackifier-containing composition (Cc) that comprises one or more tackifier and one or more hydrocarbon polymer (POLc) having Tg determined by the method described herein of -10°C;
A single trip multi-zone completion system, comprising: an outer completion string having at least one sand screen (122a-c) arranged thereabout and being deployable in an open hole section of a wellbore that penetrates at least one formation zone (108a-c); a production tubing arranged within the outer completion string and having at least one interval control valve (212a-c) disposed thereon; a control line extending external to the production tubing and being communicably coupled to the at least one interval control valve (212a-c); a surveillance line extending external to the outer completion string and interposing the at least one formation zone (108a-c) and the at least one sand screen (122a-c); and is characterised by a crossover coupling that communicably couples the production tubing to the outer completion string, the control line being extended through the crossover coupling; an outer completion string having at least one sand screen (122a-c) arranged thereabout and being deployable in an open hole section of a wellbore that penetrates at least one formation zone (108a-c); a production tubing arranged within the outer completion string and having at least one interval control valve (212a-c) disposed thereon; a control line extending external to the production tubing and being communicably coupled to the at least one interval control valve (212a-c); a surveillance line extending external to the outer completion string and interposing the at least one formation zone (108a-c) and the at least one sand screen (122a-c); and is characterised by a crossover coupling that communicably couples the production tubing to the outer completion string, the control line being extended through the crossover coupling;
A computer implemented method for performing fusion of 3D image data, which represent at least a part of a patient's body, with two 2D images of the patient's body with a known spatial relation between the viewing directions of the 2D images, wherein the two 2D images show an object, comprising the steps of: - acquiring the 3D image data, - acquiring the two 2D images, - calculating two virtual images from the 3D image data, the two virtual images corresponding to the two 2D images, - classifying the two 2D images into a primary and a secondary image, wherein the 2D image in which the visibility of the object is better is classified as the primary image, wherein the classification is based on at least one of histograms of the two 2D images and the structure of the 3D image data along rays used for calculating the virtual images corresponding to the two 2D images, - determining a primary alignment between the primary image and the corresponding virtual image such that they match, - calculating a spatial axis relative to the viewing directions of the two 2D images from the primary alignment and a predetermined point which is imaged in the virtual image which corresponds to the primary image, wherein the spatial axis is a line in space on which the predetermined point lies, and - performing fusion of the 3D image data with the two 2D images based on the calculated spatial axis in order to obtain a virtual position of the 3D image data in space. - acquiring the 3D image data, - acquiring the two 2D images, - calculating two virtual images from the 3D image data, the two virtual images corresponding to the two 2D images, - classifying the two 2D images into a primary and a secondary image, wherein the 2D image in which the visibility of the object is better is classified as the primary image, wherein the classification is based on at least one of histograms of the two 2D images and the structure of the 3D image data along rays used for calculating the virtual images corresponding to the two 2D images, - determining a primary alignment between the primary image and the corresponding virtual image such that they match, - calculating a spatial axis relative to the viewing directions of the two 2D images from the primary alignment and a predetermined point which is imaged in the virtual image which corresponds to the primary image, wherein the spatial axis is a line in space on which the predetermined point lies, and - performing fusion of the 3D image data with the two 2D images based on the calculated spatial axis in order to obtain a virtual position of the 3D image data in space.
A multiband loop antenna comprising a dielectric substrate having first and second opposed surfaces and a conductive track formed on the substrate, the conductive track having a total length of approximately half a wavelength at a lowest frequency of operation, wherein there is provided a feed point and a grounding point adjacent to each other on the first surface of the substrate, with the conductive track extending in generally opposite directions from the feed point and grounding point respectively, then extending towards an edge of the dielectric substrate, then passing to the second surface of the dielectric substrate and then passing across the second surface of the dielectric substrate along a path generally following the path taken on the first surface of the dielectric substrate, before connecting to respective sides of a series complex load formed on the second surface of the dielectric substrate that extends into a central part of a loop formed by the conductive track on the second surface of the dielectric substrate, the series complex load to improve matching of the antenna, characterised in that the series complex load comprises both inductive and capacitive elements formed as tracks on the second surface of the dielectric substrate, to define at least one slot between the tracks by running one of the tracks generally parallel to another of the tracks but not galvanically contacting the other track.
A printed circuit board inspection apparatus, characterized by a memory configured to store a machine-learning based model (320, 420) configured to derive a probability value that each of two solder pastes has measurement shape information when the two solder pastes are printed on a printed circuit board through two apertures having a predetermined aperture shape, which are formed in a stencil, using aperture shape information of the two apertures and the measurement shape information about each of the two solder pastes; an image sensor configured to obtain an image of a first printed circuit board; and a processor electrically connected with the memory, wherein the processor is configured to: obtain, from the image of the first printed circuit board obtained by the image sensor, measurement shape information about each of a plurality of solder pastes printed on the first printed circuit board through a plurality of apertures formed in the stencil, obtain aperture shape information about each of the plurality of apertures, obtain probability values that a first solder paste printed through a first aperture of the plurality of apertures and each of a plurality of second solder pastes printed through second apertures other than the first aperture of the plurality of apertures have the measurement shape information when the first solder paste and the plurality of second solder pastes are printed on the first printed circuit board, by applying the obtained measurement shape information and the obtained aperture shape information to the machine-learning based model (320, 420), and detect whether an anomaly in the first solder paste occurred based on the obtained probability values. obtain, from the image of the first printed circuit board obtained by the image sensor, measurement shape information about each of a plurality of solder pastes printed on the first printed circuit board through a plurality of apertures formed in the stencil, obtain aperture shape information about each of the plurality of apertures, obtain probability values that a first solder paste printed through a first aperture of the plurality of apertures and each of a plurality of second solder pastes printed through second apertures other than the first aperture of the plurality of apertures have the measurement shape information when the first solder paste and the plurality of second solder pastes are printed on the first printed circuit board, by applying the obtained measurement shape information and the obtained aperture shape information to the machine-learning based model (320, 420), and detect whether an anomaly in the first solder paste occurred based on the obtained probability values.
A food waste recycling appliance comprising: a liquid reservoir formed of a hollow, generally U-shaped body having first and second arm portions (14, 16) joined by a web portion, the first and second arm portions (14, 16) and the web portion defining an opening; a food waste container, wherein the opening is disposed over the food waste container; a liquid inlet at a distal end of the first arm portion connected to a source of liquid in the food waste recycling appliance; an air inlet (22,24) near the distal end of the first arm portion; an air outlet near a distal end of the second arm portion, and connected to a fan to draw air out of the hollow, generally U-shaped body; and a filter downstream of the fan to treat air exiting the hollow, generally U-shaped body; wherein the fan causes air to move from the air inlet (22, 24) through the first arm portion, the web portion, and the second arm portion to the air outlet where it is treated at the filter characterized in that the liquid reservoir further comprises a rib joining the first arm portion to the second arm portion near the distal ends of the first and second arm portions (14, 16) and in that a recessed area is formed around the air inlet, said recessed area opening toward said rib, whereby liquid overflowing through the air inlet will flow to the rib and then to the opening along the rib. a liquid reservoir formed of a hollow, generally U-shaped body having first and second arm portions (14, 16) joined by a web portion, the first and second arm portions (14, 16) and the web portion defining an opening; a food waste container, wherein the opening is disposed over the food waste container; a liquid inlet at a distal end of the first arm portion connected to a source of liquid in the food waste recycling appliance; an air inlet (22,24) near the distal end of the first arm portion; an air outlet near a distal end of the second arm portion, and connected to a fan to draw air out of the hollow, generally U-shaped body; and a filter downstream of the fan to treat air exiting the hollow, generally U-shaped body; wherein the fan causes air to move from the air inlet (22, 24) through the first arm portion, the web portion, and the second arm portion to the air outlet where it is treated at the filter characterized in that the liquid reservoir further comprises a rib joining the first arm portion to the second arm portion near the distal ends of the first and second arm portions (14, 16) and in that a recessed area is formed around the air inlet, said recessed area opening toward said rib, whereby liquid overflowing through the air inlet will flow to the rib and then to the opening along the rib.
A method comprising Encoding, in an encoder, several versions from an input image block, the encoding of the several versions being adjusted by different values of at least one coding parameter; Reconstructing, per each of the several versions, a reconstructed image block from the encoded image block; deriving a first distortion between the reconstructed image block and the input image block; inputting the reconstructed image block into a first neural network arranged to perform at least one of the following: object detection, scene classification, semantic segmentation, video event detection, anomaly detection, pedestrian tracking; characterized by obtaining a probability distribution over classes from an output of the first neural network; obtaining a second distortion on the basis of said probability distribution of the first neural network; selecting values of the at least one coding parameter among the several versions for minimizing a function J= w1 × D1 + w2×D2 + λ×R, where w1, w2 and λ are weights, D1 is the first distortion, D2 is the second distortion and R is a number of bits used for encoding the input image block; and encoding the selected values into a bitstream. Encoding, in an encoder, several versions from an input image block, the encoding of the several versions being adjusted by different values of at least one coding parameter; Reconstructing, per each of the several versions, a reconstructed image block from the encoded image block; deriving a first distortion between the reconstructed image block and the input image block; inputting the reconstructed image block into a first neural network arranged to perform at least one of the following: object detection, scene classification, semantic segmentation, video event detection, anomaly detection, pedestrian tracking; characterized by obtaining a probability distribution over classes from an output of the first neural network; obtaining a second distortion on the basis of said probability distribution of the first neural network; selecting values of the at least one coding parameter among the several versions for minimizing a function J= w1 × D1 + w2×D2 + λ×R, where w1, w2 and λ are weights, D1 is the first distortion, D2 is the second distortion and R is a number of bits used for encoding the input image block; and encoding the selected values into a bitstream.
A water flosser comprising: a main housing including a base; a self-supporting coil linear motor secured to the base and having a self-supporting coil; a pump housing located in the main housing and operably connected to the SSC linear motor; a reservoir configured to operably connect to the main housing at a location distal to the base, wherein the reservoir includes a reservoir outlet aperture.; a handle having a nozzle; tubing operably connecting the handle to the main housing; and a reservoir outlet check valve insertably engaging the reservoir outlet aperture, and characterised in that the reservoir outlet check valve includes an elastomeric reservoir outlet check valve body and an outlet check valve spring surrounding the elastomeric reservoir outlet check valve body. a main housing including a base; a self-supporting coil linear motor secured to the base and having a self-supporting coil; a pump housing located in the main housing and operably connected to the SSC linear motor; a reservoir configured to operably connect to the main housing at a location distal to the base, wherein the reservoir includes a reservoir outlet aperture.; a handle having a nozzle; tubing operably connecting the handle to the main housing; and a reservoir outlet check valve insertably engaging the reservoir outlet aperture, and characterised in that the reservoir outlet check valve includes an elastomeric reservoir outlet check valve body and an outlet check valve spring surrounding the elastomeric reservoir outlet check valve body.