mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a user equipment (UE) to transmit control information, to a network node in a wireless communication network, in association with a plurality of repetitions of a data packet, the method comprising: selecting , from a plurality of configured starting transmit positions, a starting transmit position for an initial repetition of the plurality of repetitions; selecting a sequence of cyclic shift, CS, values from a plurality of configured CS values, wherein: the plurality of configured CS values is less than at least one of the following: the plurality of repetitions, and the plurality of configured starting transmit positions; the sequence is selected based on the plurality of repetitions and at least one of the following: an identifier associated with the data packet, and the selected starting transmit position; and transmitting the plurality of repetitions of the data packet beginning at the starting transmit position, wherein at least a subset of the repetitions are transmitted in association with respective demodulation reference signals, DMRS, that are cyclic-shifted according to corresponding CS values of the selected sequence. selecting , from a plurality of configured starting transmit positions, a starting transmit position for an initial repetition of the plurality of repetitions; selecting a sequence of cyclic shift, CS, values from a plurality of configured CS values, wherein: the plurality of configured CS values is less than at least one of the following: the plurality of repetitions, and the plurality of configured starting transmit positions; the sequence is selected based on the plurality of repetitions and at least one of the following: an identifier associated with the data packet, and the selected starting transmit position; and the plurality of configured CS values is less than at least one of the following: the plurality of repetitions, and the plurality of configured starting transmit positions; the plurality of repetitions, and the plurality of configured starting transmit positions; the sequence is selected based on the plurality of repetitions and at least one of the following: an identifier associated with the data packet, and the selected starting transmit position; and an identifier associated with the data packet, and the selected starting transmit position; and transmitting the plurality of repetitions of the data packet beginning at the starting transmit position, wherein at least a subset of the repetitions are transmitted in association with respective demodulation reference signals, DMRS, that are cyclic-shifted according to corresponding CS values of the selected sequence.
A heat exchanger core comprising: a first layer including two adjacent parting sheets and a hot fin forming a first plurality of channels extending in a flow direction and a first slot formed in the hot fin that extends across only some of the first plurality of channels, the first slot fluidly connects at least two of the first plurality of channels; and a second layer adjacent to the first layer, the second layer including two adjacent parting sheets and a second plurality of channels extending in a second direction that is different from the flow direction; the layers share a parting sheet and wherein the first layer further comprising: a pair of hot closure bars extend parallel to the first plurality of channels; and wherein the second layer further comprising : a pair of cold closure bars extend parallel to the second plurality of channels, characterized in that the first layer further comprises a reinforcing bar extending across the first layer; in that the first slot is positioned downstream of the reinforcing bar in the downstream direction; and in that the first slot extends at a first angle between thirty and sixty degrees from the flow direction. a first layer including two adjacent parting sheets and a hot fin forming a first plurality of channels extending in a flow direction and a first slot formed in the hot fin that extends across only some of the first plurality of channels, the first slot fluidly connects at least two of the first plurality of channels; and a second layer adjacent to the first layer, the second layer including two adjacent parting sheets and a second plurality of channels extending in a second direction that is different from the flow direction; the layers share a parting sheet and wherein the first layer further comprising: a pair of hot closure bars extend parallel to the first plurality of channels; and wherein the second layer further comprising : a pair of cold closure bars extend parallel to the second plurality of channels, characterized in that the first layer further comprises a reinforcing bar extending across the first layer; in that the first slot is positioned downstream of the reinforcing bar in the downstream direction; and in that the first slot extends at a first angle between thirty and sixty degrees from the flow direction. a pair of cold closure bars extend parallel to the second plurality of channels, characterized in that the first layer further comprises a reinforcing bar extending across the first layer; in that the first slot is positioned downstream of the reinforcing bar in the downstream direction; and in that the first slot extends at a first angle between thirty and sixty degrees from the flow direction.
A method of forming a doped bismuth-silicate seed crystal with a controlled crystallization process to form a high purity, bismuth-silicate seed crystal comprising from 10 mole % to 50 mole % bismuth trioxide, from 20 mole % to 60 mole % silicon dioxide, and less than 10 mole % of a rare earth dopant A, which is combined and melted from 1093-1371 °C (2000-2500°F) for 1-2 hours to form a glass melt having a nominal stoichiometry of Bi 2-x A x SiO 5 , where x=0.001 to 0.1.
Device for purifying a particle-laden gaseous medium, including an electrostatic filtering chamber having a passage for the particle-laden gaseous medium which extends between an inlet of this medium into the chamber and an outlet thereof; a plurality of emitting structures arranged in the passage, one after another between the inlet and the outlet of the chamber ; on either side of these emitting structures , collecting structures in the form of plates for collecting the particles; each emitting structure being in the form of a plate including at the periphery thereof, tips directed towards the collecting structures ; characterised in that each plate of the emitting structures is designed to force the particle-laden gaseous medium to flow in the vicinity of said collecting structures ; each collecting structure includes, for trapping the particles contained in the particle-laden gaseous medium, a metallic fabric and/or a series of drawn metal plates; and the device includes suction means fluidically connected to the outlet of the chamber for extracting the gaseous medium cleared of the particles thereof from the chamber.
A computer-implemented method of video inpainting, comprising: receiving a plurality of sensor data sets comprising depth frames and image frames; for each depth frame, removing one or more objects from the depth frame thereby producing a plurality of resulting depth frames without the one or more objects; stitching the plurality of resulting depth frames into a three-dimensional map; refining a camera pose of a first image frame having a target inpainting region; and projecting the 3D map onto the first image frame to generate a corresponding depth map, the method further comprising: for each target pixel within the target inpainting region of the first image frame, based on the corresponding depth map, mapping the target pixel within the target inpainting region of the first image frame to a candidate pixel in a second image frame included in the image frames, and determining a candidate color to fill the target pixel, wherein the refining comprises: compensating pose offset between image sensor and depth sensor; characterized in that , the determining the candidate color to fill the target pixel comprises: (i) finding the candidate color from a window of pixels around the candidate pixel , or (ii) warping neighboring pixels around the candidate pixel into the second image frame by depth values of the neighboring pixels to sample expected colors to fill the target pixel . receiving a plurality of sensor data sets comprising depth frames and image frames; for each depth frame, removing one or more objects from the depth frame thereby producing a plurality of resulting depth frames without the one or more objects; stitching the plurality of resulting depth frames into a three-dimensional map; refining a camera pose of a first image frame having a target inpainting region; and projecting the 3D map onto the first image frame to generate a corresponding depth map, based on the corresponding depth map, mapping the target pixel within the target inpainting region of the first image frame to a candidate pixel in a second image frame included in the image frames, and determining a candidate color to fill the target pixel, wherein the refining comprises: compensating pose offset between image sensor and depth sensor; characterized in that , the determining the candidate color to fill the target pixel comprises: (i) finding the candidate color from a window of pixels around the candidate pixel , or (ii) warping neighboring pixels around the candidate pixel into the second image frame by depth values of the neighboring pixels to sample expected colors to fill the target pixel .
Metering device for an automatic dishwasher, in particular a household dishwasher, for dispensing pourable cleaning agent in a metered manner, the metering device having a cleaning agent channel which opens into a cleaning agent dispensing opening and having a pulse generator which acts on a channel wall of the cleaning agent channel , characterised in that the pulse generator is a hammer mechanism having a striking lever which can be rotated against the force of a spring , which striking lever has a drive extension which interacts with a cam provided by a storage container , which is rotatably received by the metering device , for storing cleaning agent.
Wrapping machine for wrapping a plurality of products with a film , wherein the products are stacked and overlapped on a pallet , comprising: - first moving means for conveying a plurality of separated products on a movement plane (H) along a first direction (A). - wrapping means for wrapping said film around said products , when stacked and overlapped on a pallet ; - grouping means designed to receive said products from said first moving means and arranging and maintaining said products stacked and overlapped along a second direction (B) on said pallet . - a supporting platform , designed to support said pallet and movable in a wrapping phase along said second direction (B) so as to extract and disengage said products from said grouping means stacked and overlapped in order to allow the latter ones to be wrapped by the film dispensed by the wrapping means . characterised by the fact that said grouping means comprises a hopper provided with an upper portion , having an upper opening for the input of said products and converging towards an underlying lower portion , the latter forming a grouping volume (V) and arranged to contain and support said products progressively stacked and overlapped along said second direction (B), said lower portion having a lower opening for the output of said products arranged on said pallet , said hopper comprising a plurality of side walls , forming said upper portion and said lower portion , which are movable to adjust said grouping volume (V) according to dimensions and/or size and/or shapes of said products and/or dimensions of said pallet . - first moving means for conveying a plurality of separated products on a movement plane (H) along a first direction (A). - wrapping means for wrapping said film around said products , when stacked and overlapped on a pallet ; - grouping means designed to receive said products from said first moving means and arranging and maintaining said products stacked and overlapped along a second direction (B) on said pallet . - a supporting platform , designed to support said pallet and movable in a wrapping phase along said second direction (B) so as to extract and disengage said products from said grouping means stacked and overlapped in order to allow the latter ones to be wrapped by the film dispensed by the wrapping means .
A method for controlling an operation of a mobile terminal, the method comprising: displaying (S200), on a display module , an operation screen corresponding to a menu item or an operation selected by a user command; when (S205) a user input for activating pointer display which is a function of displaying a pointer is received while the operation screen is being displayed, displaying (S210) the pointer including a click region and an indication region on the operation screen; when (S215) a position of a proximity touch input is moved after the proximity touch input is made by the user on the click region with the pointer being displayed, moving (S220) the pointer in response to movement of a position of a proximity touch input on the click region ; characterized in that when the pointer indicates a specific object after moving the pointer , displaying a magnified image of the specific object in the click region and detailed information associated with the specific object in an area adjacent to the click region ; when the user performs (S225) a drag input of dragging a region after touching the click region for a predetermined time or longer with no object being at a position indicated by the indication region of the pointer , selecting (S230) the dragged region corresponding to the drag input; and when (S235) an input of touching the click region is made by the user, performing (S240) an operation corresponding to the specific object indicated by the pointer or the dragged region selected by the drag input. displaying (S200), on a display module , an operation screen corresponding to a menu item or an operation selected by a user command; when (S205) a user input for activating pointer display which is a function of displaying a pointer is received while the operation screen is being displayed, displaying (S210) the pointer including a click region and an indication region on the operation screen; when (S215) a position of a proximity touch input is moved after the proximity touch input is made by the user on the click region with the pointer being displayed, moving (S220) the pointer in response to movement of a position of a proximity touch input on the click region ; characterized in that when the pointer indicates a specific object after moving the pointer , displaying a magnified image of the specific object in the click region and detailed information associated with the specific object in an area adjacent to the click region ; when the user performs (S225) a drag input of dragging a region after touching the click region for a predetermined time or longer with no object being at a position indicated by the indication region of the pointer , selecting (S230) the dragged region corresponding to the drag input; and when (S235) an input of touching the click region is made by the user, performing (S240) an operation corresponding to the specific object indicated by the pointer or the dragged region selected by the drag input.
Drinking bottle closure (100; 100') with a rotatable closure cap for an insulated bottle or for an insulated mug, at least comprising: - a housing with a pouring rim (11; 11') surrounding a pouring opening delimited by a sealing edge (12; 12'); - the closure cap , which is rotatably mounted above a support element connected to the housing; - a sealing element (30; 30') for sealing the closure cap on the sealing edge (12; 12') of the housing, wherein: - at least one sealing lip of the sealing element (30; 30') is arranged below the sealing edge (12; 12'), - an outer edge of the closure cap is arranged below the sealing lip and wherein: - the closure cap is secured to the support element (44; 44') by a threaded joint and - the closure cap is coupled to the housing such that clockwise rotation of the closure cap causes a vertical stroke from below toward the sealing lip (31; 31'). - a housing with a pouring rim (11; 11') surrounding a pouring opening delimited by a sealing edge (12; 12'); - the closure cap , which is rotatably mounted above a support element connected to the housing; - a sealing element (30; 30') for sealing the closure cap on the sealing edge (12; 12') of the housing, - at least one sealing lip of the sealing element (30; 30') is arranged below the sealing edge (12; 12'), - an outer edge of the closure cap is arranged below the sealing lip and wherein: - the closure cap is secured to the support element (44; 44') by a threaded joint and - the closure cap is coupled to the housing such that clockwise rotation of the closure cap causes a vertical stroke from below toward the sealing lip (31; 31').
Sowing coulter having a coulter carrier on which there are arranged two discs which are positioned at an angle to the direction of travel and in opposite directions in a V-shaped manner with respect to one another and between which the end piece of at least one seed and/or fertilizer supply line opens out, wherein the end piece is arranged removably on the coulter carrier with the aid of a first connecting element , having a fixing element, and at least one second connecting element , in the form of a plug connection, on the coulter carrier , wherein the end piece of the seed and/or fertilizer supply line is removable without it being necessary to take off one of the discs , wherein the coulter carrier has an upright region adjacent to which the end piece is arranged, wherein the plug connection has at least one plug element arranged on the end piece , wherein at least one cutout that is open towards the end piece and is arranged on the side adjacent to the end piece is arranged in this upright region of the coulter carrier , wherein this cutout is located at the level of a plug element attached to the end piece , wherein the plug element is configured to engage in the cutout , wherein the plug element engages in the cutout in a form-fitting manner and is configured to be unable to rotate with respect to the cutout , characterized in that the plug element is formed with a square or rectangular cross section in its basic configuration, in that two opposite side faces of the plug element formed with a square or rectangular cross section bear in a planar manner against two opposite side faces of the cutout .
Medical treatment system comprising a portable ultrafiltration unit (A) and a stationary device (B) for supplying dialysate to the ultrafiltration unit, the portable ultrafiltration unit comprising a blood pump for conveying blood and an ultrafiltration pump for conveying ultrafiltrate and being in the form of a unit (A) to be connected to the stationary device (B) for supplying dialysate to the ultrafiltration unit, such that a fluid connection can be established for feeding in fresh dialysate and removing used dialysate, characterised in that the stationary device (B) for supplying dialysate to the ultrafiltration unit comprises an apparatus for providing fresh dialysate, an apparatus for removing used dialysate, and a balancing unit for balancing fresh and used dialysate, wherein the device (B) for supplying the ultrafiltration unit (A) is designed such that a fluid connection can be established for feeding fresh dialysate from the apparatus for providing fresh dialysate to the ultrafiltration unit (A) and removing used dialysate from the ultrafiltration unit (A) to the apparatus for removing used dialysate so that a dialysis treatment can be carried out using the ultrafiltration unit.
Telescopic strut (TS) comprising an outer tube (AR) and an inner tube (IR) which is introduced into the outer tube (AR) and is longitudinally movable relative to the outer tube (AR), and which can be locked at one end in the outer tube (AR) by means of an expansion dowel (SD), wherein a connection means (SH1, SH2) and a fixing means (FM) are arranged on opposite ends (ES) of the telescopic strut (TS) in each case, wherein the fixing means (FM) can be screwed together with the connection means (SH1, SH2) at threaded connections (IG, AG), and wherein the threaded connections (IG, AG) between the connection means (SH1, SH2) and the fixing means (FM) have opposing thread turns on the opposite ends (ES) of the telescopic strut (TS), so that the connection means (SH1, SH2) and the fixing means (FM) interact in the manner of a turnbuckle when the inner tube (IR) locked to the outer tube (AR) is rotated about an axis of rotation of the telescopic strut (TS), wherein the connection means (SH1, SH2) are provided on the end of the outer tube (AR) and on the end of the inner tube (IR).
A coated substrate comprising: a metallic substrate; a bondcoat atop the substrate; and a ceramic barrier coat atop the bondcoat, wherein: the bondcoat comprises by weight at least 50 percent chromium; and the bondcoat comprises by weight: at least 6.0 percent nickel; and/or at least 10.0 percent cobalt. a metallic substrate; a bondcoat atop the substrate; and a ceramic barrier coat atop the bondcoat, the bondcoat comprises by weight at least 50 percent chromium; and the bondcoat comprises by weight: at least 6.0 percent nickel; and/or at least 10.0 percent cobalt. at least 6.0 percent nickel; and/or at least 10.0 percent cobalt.
A method for producing a rare earth-Mg-Ni based hydrogen storage alloy comprising element A, Mg, and element B, wherein said element A consists of at least one element R selected from rare earth elements including Sc and Y, and optionally at least one element selected from Zr, Hf, and Ca, and said element B consists of Ni and optionally at least one element selected from elements other than element A and Mg, and selected from Al, Ti, V, Nb, Ta, Cr, Mo, W, Mn, Fe, Co, Cu, Zn, B, Ga, Sn, Sb, In, Si, C, and P, said method comprising: first step of mixing an alloy consisting of elements A and B and Mg metal and/or a Mg-containing alloy having a melting point not higher than the melting point of Mg metal, and second step of heat-treating a mixture obtained from said first step for 0.5 to 240 hours at a temperature 5 to 250 °C lower than a melting point of said rare earth-Mg-Ni based hydrogen storage alloy to be obtained. first step of mixing an alloy consisting of elements A and B and Mg metal and/or a Mg-containing alloy having a melting point not higher than the melting point of Mg metal, and second step of heat-treating a mixture obtained from said first step for 0.5 to 240 hours at a temperature 5 to 250 °C lower than a melting point of said rare earth-Mg-Ni based hydrogen storage alloy to be obtained.