mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a first case, having an accommodating cavity, wherein the accommodating cavity is recessed from a surface of the first case and the accommodating cavity is formed by a bottom plate, a first side wall and a second side wall being opposite to each other and perpendicular to the bottom plate, and two third side walls being opposite to each other and perpendicular to the bottom plate a click pad, having a switch; and a frame, disposed between the first case and the click pad, characterized in that, the frame has a first hook and a second hook disposed on opposite sides of the frame, wherein a first opening is formed in the first side wall of the accommodating cavity and a second opening is disposed on the bottom plate of the accommodating cavity, wherein the first hook and the second hook are configured to be inserted in the first opening and the second opening, respectively, the click pad is affixed to the frame, and a first protrusion is directly disposed on the bottom plate of the first case and faces directly to the switch. a first case, having an accommodating cavity, wherein the accommodating cavity is recessed from a surface of the first case and the accommodating cavity is formed by a bottom plate, a first side wall and a second side wall being opposite to each other and perpendicular to the bottom plate, and two third side walls being opposite to each other and perpendicular to the bottom plate a click pad, having a switch; and a frame, disposed between the first case and the click pad, characterized in that, the frame has a first hook and a second hook disposed on opposite sides of the frame, wherein a first opening is formed in the first side wall of the accommodating cavity and a second opening is disposed on the bottom plate of the accommodating cavity, wherein the first hook and the second hook are configured to be inserted in the first opening and the second opening, respectively, the click pad is affixed to the frame, and a first protrusion is directly disposed on the bottom plate of the first case and faces directly to the switch.
A device for amplifying the harmonics of a free-reed musical instrument having free reeds across which an airflow is driven, and of the accordion type or of the concertina or bandoneon type, said instrument having at least a right box and a left box that are mounted to move relative to each other in movements bringing them together and apart, a series of reeds mounted on reed blocks inside the right box, and means for actuating valves for enabling and disabling airflow across the reeds, said device including at least one removable independent case that is hollow, that is substantially rectangular block shaped, and that is disposed inside the instrument, said device being characterized in that the case is provided with slots formed through one of its faces and opening out into the case so as to modify the airflow.
A method for extracting a core from a percussion side wall core bullet for a digital tomographic description and direct numerical simulations, the method comprising: (a) pushing a free end of a wire of a wire saw through the core disposed within the percussion side wall core bullet; (b) attaching the free end of the wire to a locking mechanism of the wire saw after (a); (c) cutting the core from the percussion side wall core bullet with the wire after (b). (a) pushing a free end of a wire of a wire saw through the core disposed within the percussion side wall core bullet; (b) attaching the free end of the wire to a locking mechanism of the wire saw after (a); (c) cutting the core from the percussion side wall core bullet with the wire after (b).
Power semiconductor module comprising a housing of a first plastic, at least one substrate carrier with a circuit arrangement constructed thereon and electric terminating elements coming from it, wherein the housing has attachment means for the permanent connection with the substrate carrier, wherein the attachment means consists of projections of the housing which reach through recesses in the substrate carrier and wherein the projections of the housing form a rivet-like connection with the substrate carrier, wherein the housing has a permanently elastic sealing device of a second plastic which is constructed of one piece with the former and circulates and is directed towards a first inner main surface of the substrate carrier, wherein the substrate carrier is arranged in a recess of the housing and is laterally enclosed by the housing and the permanently elastic sealing device is arranged in this recess and wherein the sealing device at least partially encloses the attachment means of the substrate carrier and excludes them towards the recess.
A method to be performed by a wireless communication station, the method comprising: generating a Multi-User, MU, Physical Layer Protocol Data Unit, PPDU, comprising a first legacy header, L-header, field decodable by Directional Multi-Gigabit, DMG, stations, a second non-legacy header, Header A, field after the L-header field, a third non-legacy header, Header B, field after the Header A field, and a data field after the Header B field, the data field comprising a plurality of Medium Access Control, MAC, Protocol Data Units, MPDUs, addressed to a plurality of stations, STAs, the Header A field comprising information of a number of Spatial Streams, SSs, to be transmitted to the plurality of STAs, the Header B field comprising a length field to indicate, for each STA of the plurality of STAs, a length of a MPDU addressed to the STA; and transmitting said MU PPDU to said plurality of STAs over a frequency band above 45 Gigahertz, GHz. generating a Multi-User, MU, Physical Layer Protocol Data Unit, PPDU, comprising a first legacy header, L-header, field decodable by Directional Multi-Gigabit, DMG, stations, a second non-legacy header, Header A, field after the L-header field, a third non-legacy header, Header B, field after the Header A field, and a data field after the Header B field, the data field comprising a plurality of Medium Access Control, MAC, Protocol Data Units, MPDUs, addressed to a plurality of stations, STAs, the Header A field comprising information of a number of Spatial Streams, SSs, to be transmitted to the plurality of STAs, the Header B field comprising a length field to indicate, for each STA of the plurality of STAs, a length of a MPDU addressed to the STA; and transmitting said MU PPDU to said plurality of STAs over a frequency band above 45 Gigahertz, GHz.
Handle (6, 7) for a hand-held implement, wherein the handle (6, 7) has a shaft, said shaft having a fastening end, at which the handle (6, 7) is fixed, and having a free end, wherein the handle (6, 7) has an outer side which is at least partially intended for abutment against the palm of a hand of a user, wherein the handle (6, 7) has an inner side which is situated opposite the outer side, wherein the handle (6, 7) has a longitudinal axis, wherein the shaft forms at its free end a bearing surface for a hand of a user, characterized in that, on the inner side of the handle (6, 7), there is arranged a thumb bearing surface which, in a side view perpendicular to the inner side, includes with the longitudinal axis an angle (β) of at least 20° and at most 70° at every point.
A method for generating a color image and a depth image of a scene comprising: obtaining pixels of an image of the scene; obtaining a depth map of the image comprising depth values (Z M (u,v)); characterized by determining a number of depth layers (z i) for the depth map; projecting the pixels of the image to the depth layers (z i) to obtain projected pixels on the depth layers (z i); determining cost values for the projected pixels for each depth layer (z i) by a difference of a depth value (Z M (u,v)) and the projected depth value for the same projection to obtain a cost map (Ci) for each depth layer (z i); filtering the cost values of the cost maps (Ci); aggregating the filtered cost maps (Ci) of each depth layer (z i) to obtain an aggregated depth map (Z M U) by finding the smallest cost value for each pixel of each depth layer (z i); generating the depth image of the scene based on the depth values of the pixels of the aggregated depth map; wherein the method further comprises for each depth layer (z i): estimating a projective transform (Hi) of the colour image for the depth layers (z i); back-projecting the colour data by the projective transform (H i,) to obtain back-projected data: and resampling the back-projected data to obtain resampled colour image (RGBi). obtaining pixels of an image of the scene; obtaining a depth map of the image comprising depth values (Z M (u,v)); characterized by determining a number of depth layers (z i) for the depth map; projecting the pixels of the image to the depth layers (z i) to obtain projected pixels on the depth layers (z i); determining cost values for the projected pixels for each depth layer (z i) by a difference of a depth value (Z M (u,v)) and the projected depth value for the same projection to obtain a cost map (Ci) for each depth layer (z i); filtering the cost values of the cost maps (Ci); aggregating the filtered cost maps (Ci) of each depth layer (z i) to obtain an aggregated depth map (Z M U) by finding the smallest cost value for each pixel of each depth layer (z i); generating the depth image of the scene based on the depth values of the pixels of the aggregated depth map; wherein the method further comprises for each depth layer (z i): estimating a projective transform (Hi) of the colour image for the depth layers (z i); back-projecting the colour data by the projective transform (H i,) to obtain back-projected data: and resampling the back-projected data to obtain resampled colour image (RGBi). estimating a projective transform (Hi) of the colour image for the depth layers (z i); back-projecting the colour data by the projective transform (H i,) to obtain back-projected data: and resampling the back-projected data to obtain resampled colour image (RGBi).
A display apparatus, comprising: a substrate; a first electrode on the substrate, the first electrode including a first portion (21a; 221a, 321a; 421a; 521a) that has a flat upper surface; a second electrode facing the first electrode in parallel on the substrate, the second electrode including a first portion that has a flat upper surface; a plurality of light-emitting devices separate from each other between the first electrode and the second electrode; a first connection electrode that contacts the first end of each of the plurality of light-emitting devices and the first electrode; and a second connection electrode that contacts the second end of each of the plurality of light-emitting devices and the second electrode, wherein the first connection electrode covers at least a portion of an upper surface of the first electrode, and the second connection electrode covers at least a portion of an upper surface of the second electrode, wherein the first electrode further includes a second portion (21b; 221b; 321b; 421b; 521b) that protrudes from the first portion (21a; 221a; 321a; 421a; 521a) and has an inclined surface, and in that the second electrode further includes a second portion that protrudes from the first portion and has an inclined surface. a substrate; a first electrode on the substrate, the first electrode including a first portion (21a; 221a, 321a; 421a; 521a) that has a flat upper surface; a second electrode facing the first electrode in parallel on the substrate, the second electrode including a first portion that has a flat upper surface; a plurality of light-emitting devices separate from each other between the first electrode and the second electrode; a first connection electrode that contacts the first end of each of the plurality of light-emitting devices and the first electrode; and a second connection electrode that contacts the second end of each of the plurality of light-emitting devices and the second electrode, wherein the first connection electrode covers at least a portion of an upper surface of the first electrode, and the second connection electrode covers at least a portion of an upper surface of the second electrode, wherein the first electrode further includes a second portion (21b; 221b; 321b; 421b; 521b) that protrudes from the first portion (21a; 221a; 321a; 421a; 521a) and has an inclined surface, and in that the second electrode further includes a second portion that protrudes from the first portion and has an inclined surface.
A wireless network based battery management system comprising an off-board subsystem and an on-board subsystem, wherein the on-board subsystem is an on-board battery system, wherein the off-board subsystem comprises an off-board data storage for storing historic data of the on-board subsystem and data of other battery systems, and comprises an off-board data processing device configured to process the stored data and to establish and validate accurate and complex off-board battery models, characterized in that the off-board data processing device is further configured to map the off-board battery models into a simple off-board battery model, and to generate parameters of the simple off-board battery model, wherein the off-board subsystem is configured to transmit the parameters of the simple off-board battery model to the on-board subsystem via wireless communication, and wherein the on-board subsystem is configured to select a simple on-board battery model corresponding to the simple off-board battery model, to update parameters of the simple on-board battery model with the received parameters of the simple off-board battery model, and to calculate a battery status of the on-board subsystem using the selected on-board battery model with the updated parameters.
An annuloplasty ring, comprising: a flexible core member extending around the entire periphery of the ring in either a closed or open shape, the flexible core member comprising a multi-stranded braided cable formed of multiple wire strands wound into multi-strand braids with the multi-strand braids being braided into the multi-stranded braided cable; a plurality of discrete control points (28, 30) located around the flexible core member at spaced apart locations, the control points (28, 30) creating localized regions of higher elastic modulus than the flexible core member; and a suture-permeable outer covering encasing the flexible core member. a flexible core member extending around the entire periphery of the ring in either a closed or open shape, the flexible core member comprising a multi-stranded braided cable formed of multiple wire strands wound into multi-strand braids with the multi-strand braids being braided into the multi-stranded braided cable; a plurality of discrete control points (28, 30) located around the flexible core member at spaced apart locations, the control points (28, 30) creating localized regions of higher elastic modulus than the flexible core member; and a suture-permeable outer covering encasing the flexible core member.
A silicon-based anode material, comprising a silicon-based active material and a composite layer coated on the surface of the silicon-based active material and composed of a flexible polymer and a conductive material; wherein the flexible polymer is any one of polyolefin and derivatives thereof, polyvinyl alcohol and derivatives thereof, polyacrylic acid and derivatives thereof, polyamide and derivatives thereof, carboxymethyl cellulose and derivatives thereof, or alginic acid and derivatives thereof, or a combination of at least two thereof; the conductive material comprises flake graphite and a nano-carbon based material; wherein the nano-carbon based material comprises any one of conductive graphite, graphene, carbon nanotubes or carbon nanofibers, or a combination of at least two thereof. wherein the flexible polymer is any one of polyolefin and derivatives thereof, polyvinyl alcohol and derivatives thereof, polyacrylic acid and derivatives thereof, polyamide and derivatives thereof, carboxymethyl cellulose and derivatives thereof, or alginic acid and derivatives thereof, or a combination of at least two thereof; the conductive material comprises flake graphite and a nano-carbon based material; wherein the nano-carbon based material comprises any one of conductive graphite, graphene, carbon nanotubes or carbon nanofibers, or a combination of at least two thereof.
Filter device with a filter element, which can be received in a housing, that can be closed by means of a cover part, which comprises fluid ducts (35, 41), wherein a connecting device is provided for forming a fluid-conducting connection between the filter element and an associated fluid duct of the cover part, wherein the connecting device is configured in the form of a coupling having a movable coupling part, which in the functional state creates the fluid-conducting connection, wherein the coupling part is movable axially and in the functional state is in contact, due to spring pre-tension, with a fixed arranged coupling part of the connecting device, with the formation of a seal, characterised in that the movable coupling part is provided at the filter element, and the fixed coupling part is provided at the cover part and is formed by the mouth edge of the associated fluid duct.
A chisel holder, comprising: - a body region having a chisel-receiving opening which is open at least toward a chisel insertion side of the body region, - a fastening shank which extends from a supporting side of the body region with a shank longitudinal axis (L B), wherein the body region has, on its supporting side, a first supporting surface region and a second supporting surface region which is angled in relation to the first supporting surface region, wherein the chisel-receiving opening is open toward that supporting side substantially in the region of the first supporting surface region and wherein the fastening shank extends from the body region substantially in the region of the second supporting surface region, characterized in that the second supporting surface region comprises a first supporting surface and a second supporting surface which is angled in relation to the first supporting surface and in that the first supporting surface region comprises a first supporting surface and a second supporting surface which is angled in relation to the first supporting surface. - a body region having a chisel-receiving opening which is open at least toward a chisel insertion side of the body region, - a fastening shank which extends from a supporting side of the body region with a shank longitudinal axis (L B),
A dry cement mixture comprising Portland cement and an ultra-fine component consisting of at least one ultra-fine additive, said ultra-fine component being a hydraulic binder, wherein Portland cement is present in an amount of at least 70 wt% of the mixture and the ultra-fine component is present in an amount of at least 5 wt% of the mixture, wherein the ultra-fine component has a particle size distribution characterized by a particle diameter D 10 of between 0,5μm and 2μm and a particle diameter D 90 of between 2μm and 8μm, characterized in that the at least one ultra-fine additive comprises slag, in particular ground blast furnace slag, in an amount of > 70 wt%, in particular > 80 wt%.
An arrangement for checking transverse-axially conveyed, rod-shaped articles of the tobacco processing industry, in particular for checking fluid-filled capsules in filters of filter cigarettes, having at least one trough conveying device (10, 20) with troughs (12, 22) for receiving and transverse-axially conveying rod-shaped articles and at least one microwave measuring device (30, 130) having at least one microwave resonator (34, 134), wherein the at least one microwave measuring device (30, 130) has, along a conveying path of the rod-shaped articles, at least one longitudinal lateral passage channel (40, 140) open at one end for a section of the articles protruding beyond the respective troughs (12, 22), wherein the at least one passage channel (40, 140) laterally penetrates the at least one microwave resonator (34, 134) so that protruding sections of the rod-shaped articles, on their conveying path through the passage channel (40, 140), pass through a microwave measuring field (50, 52, 144) in the at least one microwave resonator (34, 134), wherein the rod-shaped articles, particularly at a target position of the capsules, pass through the microwave measuring field (50, 52, 144), wherein the microwave resonator is designed as a waveguide resonator that is divided into two compartments (136, 136') by the passage channel, wherein one compartment of the waveguide resonator is connected to a microwave input unit and the other compartment is connected to an inductive or capacitive microwave output unit, which are each connected by a shutter (135, 135') to the waveguide resonator, wherein the compartments (136, 136') are arranged in alignment along a main direction of the waveguide resonator and wherein the main direction runs perpendicularly to a conveying plane of the rod-shaped articles.
A method, comprising: determining a set of neighbor nodes (11, 12, 21, 32) of a local node in a communication network; determining a respective occurrence frequency at which each particular neighbor node is to be probed based on a rate of change in distance between the local node and the particular neighbor node; probing each particular neighbor node according to the respective occurrence frequency to determine the rate of change in distance between the local node and each particular neighbor node, and one or more routing metrics for reaching each particular neighbor node; and selecting, based on the probing, a suitable preferred next-hop node of the set of neighbor nodes for a corresponding routing topology. determining a set of neighbor nodes (11, 12, 21, 32) of a local node in a communication network; determining a respective occurrence frequency at which each particular neighbor node is to be probed based on a rate of change in distance between the local node and the particular neighbor node; probing each particular neighbor node according to the respective occurrence frequency to determine the rate of change in distance between the local node and each particular neighbor node, and one or more routing metrics for reaching each particular neighbor node; and selecting, based on the probing, a suitable preferred next-hop node of the set of neighbor nodes for a corresponding routing topology.