mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack comprising: a case comprising a cell accommodation portion (G1) to accommodate a battery cell; and output terminals (E1, E2) protruding upward from a first side of an upper portion of the case, wherein the output terminals (E1, E2) protrude from first height-difference surfaces (S1) stepped downward from a first surface (P1) that is an uppermost surface of the first side of the case, and wherein a second surface (P2) inclined with respect to the first surface (P1) is on a second side of a lower portion which is opposite the first side of the battery pack. a case comprising a cell accommodation portion (G1) to accommodate a battery cell; and output terminals (E1, E2) protruding upward from a first side of an upper portion of the case, wherein the output terminals (E1, E2) protrude from first height-difference surfaces (S1) stepped downward from a first surface (P1) that is an uppermost surface of the first side of the case, and wherein a second surface (P2) inclined with respect to the first surface (P1) is on a second side of a lower portion which is opposite the first side of the battery pack.
A printing station for use in a packaging material manufacturing system , comprising a printing unit being configured to provide a print at a pre-set position on the packaging material , a detecting unit arranged downstream the printing unit and configured to determine the actual lateral distance (Xc) between a reference position and the provided print , and a control unit being configured to store a desired lateral distance between the print and the reference position, and to adjust the pre-set position of a subsequent print based on a comparison between a desired lateral distance and the actual lateral distance (Xc). a printing unit being configured to provide a print at a pre-set position on the packaging material , a detecting unit arranged downstream the printing unit and configured to determine the actual lateral distance (Xc) between a reference position and the provided print , and a control unit being configured to store a desired lateral distance between the print and the reference position, and to adjust the pre-set position of a subsequent print based on a comparison between a desired lateral distance and the actual lateral distance (Xc).
Use of an absorbent pad for identifying and/or quantifying a biomolecule analyte in a blot assay, the pad comprising: a fibrous material and a liquid formulation which comprises a luminescent substrate; wherein the pad: (i) has a thickness from 0.2 mm to 3 mm; (ii) has an extrinsic absorbency from 150 mL/m 2 to 500 mL/m 2 ; and (iii) is impregnated with the liquid formulation, wherein the fibrous material comprises a polyester/cellulose polymer blend, a hydroentangled polyester/cellulose blend, a polyamide, or a combination of one or more thereof.
A method of wireless communications, comprising: transmitting a single grant to a first device (115-a-1), the grant identifying one or more scheduling assignment, SA, resources on which an SA is to be transmitted by the first device (115-a-1) for device-to-device, D2D, communications between the first device (115-a-1) and a second device (115-3-2, 115-3-3), and the grant identifying one or more data resources on which data is to be transmitted by the first device (115-a-1) for the D2D communications between the first device (115-a-1) and the second device (115-a-2, 115-3-3); wherein the SA indicates to the second device (115-a-2, 115-a-3) the data resources on which the data is to be transmitted by the first device (115-a-1) for the D2D communications; and wherein the method further comprises scrambling a cyclic redundancy check, CRC, of the grant according to a scrambling type, the scrambling type indicating that the one or more SA resources and the one or more data resources are allocated for D2D communications. transmitting a single grant to a first device (115-a-1), the grant identifying one or more scheduling assignment, SA, resources on which an SA is to be transmitted by the first device (115-a-1) for device-to-device, D2D, communications between the first device (115-a-1) and a second device (115-3-2, 115-3-3), and the grant identifying one or more data resources on which data is to be transmitted by the first device (115-a-1) for the D2D communications between the first device (115-a-1) and the second device (115-a-2, 115-3-3); wherein the SA indicates to the second device (115-a-2, 115-a-3) the data resources on which the data is to be transmitted by the first device (115-a-1) for the D2D communications; and wherein the method further comprises scrambling a cyclic redundancy check, CRC, of the grant according to a scrambling type, the scrambling type indicating that the one or more SA resources and the one or more data resources are allocated for D2D communications.
A transistor, the transistor being a HEMT or a MESFET , comprising: an active region having a channel; source and drain electrodes (20, 22, 88, 90,) in contact with said active region; a gate between said source and drain electrodes and on said active region, said gate directly on said active region; a plurality of field plates and a plurality of spacer layers arranged and alternating over said active region, a first of said spacer layers on the surface of said active region between said gate and said source and drain electrodes, wherein said first of said field plates is isolated from said active region by said first of said spacer layers and the others of said field plates are isolated from said field plates below by a respective one of the remaining said spacer layers , wherein the topmost of said field plates is electrically connected to said source electrode and each of the others of said field plates is electrically connected to said gate or said source electrode; and wherein each of said plurality of field plates extends from said gate toward the drain electrode and is isolated from said active region and from the others of said field plates, wherein the topmost of said field plates furthermore overlaps said gate and extends from said gate toward said source electrode, the lowest of said field plates at most partly overlapping said gate. an active region having a channel; source and drain electrodes (20, 22, 88, 90,) in contact with said active region; a gate between said source and drain electrodes and on said active region, said gate directly on said active region; a plurality of field plates and a plurality of spacer layers arranged and alternating over said active region, a first of said spacer layers on the surface of said active region between said gate and said source and drain electrodes, wherein said first of said field plates is isolated from said active region by said first of said spacer layers and the others of said field plates are isolated from said field plates below by a respective one of the remaining said spacer layers , wherein the topmost of said field plates is electrically connected to said source electrode and each of the others of said field plates is electrically connected to said gate or said source electrode; and wherein each of said plurality of field plates extends from said gate toward the drain electrode and is isolated from said active region and from the others of said field plates, wherein the topmost of said field plates furthermore overlaps said gate and extends from said gate toward said source electrode, the lowest of said field plates at most partly overlapping said gate.
A method comprising: receiving a request for a lane change trajectory for a lane change of a host vehicle that is traveling along a roadway ; determining whether a preferred offset exists for the host vehicle , the preferred offset being an amount of asymmetry of the lane change trajectory , and whereby the preferred offset is indicative of a preference for a certain shape of the lane change trajectory , namely an aggressive entry and relaxed exit, a symmetrical lane change, a relaxed entry and aggressive exit, or anything in between; responsive to determining that the preferred offset exists, calculating the lane change trajectory based on the preferred offset ; and providing the lane change trajectory to a vehicle component effective to cause the vehicle component to execute the lane change according to the lane change trajectory . receiving a request for a lane change trajectory for a lane change of a host vehicle that is traveling along a roadway ; determining whether a preferred offset exists for the host vehicle , the preferred offset being an amount of asymmetry of the lane change trajectory , and whereby the preferred offset is indicative of a preference for a certain shape of the lane change trajectory , namely an aggressive entry and relaxed exit, a symmetrical lane change, a relaxed entry and aggressive exit, or anything in between; responsive to determining that the preferred offset exists, calculating the lane change trajectory based on the preferred offset ; and providing the lane change trajectory to a vehicle component effective to cause the vehicle component to execute the lane change according to the lane change trajectory .
A non-aqueous inkjet ink composition comprising an acrylic resin, a pigment, a pigment dispersant, and an organic solvent, the non-aqueous inkjet ink composition characterized by comprising, as the organic solvent, a propylene carbonate and a diethylene glycol dialkyl ether, wherein the propylene carbonate is compounded by 5 to 25 percent by mass in the ink composition, and the diethylene glycol dialkyl ether is compounded in a manner providing a ratio of diethylene glycol dialkyl ether/propylene carbonate in a range of 3.0 to 8.0.
A benefit agent delivery particle having a core-shell structure in which a porous shell of polymeric material entraps a core containing the benefit agent; in which the pores in the shell are at least partially occluded by a wash-removable coating provided at the exterior surface of the shell; and characterized in that the wash-removable coating is formed from deposited melamine/acid complex.
A computer-implemented method for predicting airflow from a plurality of openings in a plenum, the method comprising: (A) receiving input data from a storage device, the input data including data related to the plenum; (B) determining an average air pressure in the plenum; (C) determining an airflow value for each of the openings based on the average air pressure; (D) dividing the plenum into a plurality of grid cells; (E) using a first iterative method, determine a value for airflow velocity for each of the grid cells; (F) determining an air pressure value at each of the openings based on the airflow velocity; (G) using a second iterative method, determine a new airflow value for each one of the plurality of openings based on the air pressure value at the one of the openings; (H) determining whether a difference between the new airflow values and previous airflow values is greater than a threshold; (I) repeating acts (E) through (H) until the difference is not greater than the threshold, and then storing the new airflow value for each one of the plurality of openings as a final airflow value; and (J) controlling at least one of a cooling device and an equipment rack in a data center based on at least one final airflow value. (A) receiving input data from a storage device, the input data including data related to the plenum; (B) determining an average air pressure in the plenum; (C) determining an airflow value for each of the openings based on the average air pressure; (D) dividing the plenum into a plurality of grid cells; (E) using a first iterative method, determine a value for airflow velocity for each of the grid cells; (F) determining an air pressure value at each of the openings based on the airflow velocity; (G) using a second iterative method, determine a new airflow value for each one of the plurality of openings based on the air pressure value at the one of the openings; (H) determining whether a difference between the new airflow values and previous airflow values is greater than a threshold; (I) repeating acts (E) through (H) until the difference is not greater than the threshold, and then storing the new airflow value for each one of the plurality of openings as a final airflow value; and (J) controlling at least one of a cooling device and an equipment rack in a data center based on at least one final airflow value.
An extendable bag roller for supporting a bag of material during removal of the material from the bag, the extendable bag roller comprising: a bag support having a curved surface configured to support the bag of material on the curved surface, the bag support comprising: a base defining a first portion of the curved surface of the bag support; and an extension defining a second portion of the curved surface of the bag support, the extension being moveable to selectively increase and decrease the area of the curved surface of the bag support to accommodate different bag sizes; and a roller that rolls along the curved surface of the bag support to squeeze the material out of the bag. a bag support having a curved surface configured to support the bag of material on the curved surface, the bag support comprising: a base defining a first portion of the curved surface of the bag support; and an extension defining a second portion of the curved surface of the bag support, the extension being moveable to selectively increase and decrease the area of the curved surface of the bag support to accommodate different bag sizes; and a base defining a first portion of the curved surface of the bag support; and an extension defining a second portion of the curved surface of the bag support, the extension being moveable to selectively increase and decrease the area of the curved surface of the bag support to accommodate different bag sizes; and a roller that rolls along the curved surface of the bag support to squeeze the material out of the bag.
Method for determining fresh grazed grass intake over a grazing time period for a cow population, said method comprising the steps of: a) providing a number of milk samples that are collected from the cow population over said grazing time period and over a reference time period without fresh grass grazing; b) analyzing said milk samples and determine the amount of one or more biomarkers present in each of the milk samples; c) comparing the amount of one or more biomarkers present in the milk during said grazing time period to the amount of one or more biomarkers present in the milk during the reference time period to obtain an indicator of fresh grazed grass intake for the cow population over the grazing time period. a) providing a number of milk samples that are collected from the cow population over said grazing time period and over a reference time period without fresh grass grazing; b) analyzing said milk samples and determine the amount of one or more biomarkers present in each of the milk samples; c) comparing the amount of one or more biomarkers present in the milk during said grazing time period to the amount of one or more biomarkers present in the milk during the reference time period to obtain an indicator of fresh grazed grass intake for the cow population over the grazing time period.
A method for atomic layer deposition comprising: a. exposing a substrate to a single source precursor gas of a compound at a first temperature and a first pressure in a first chamber to form a single layer of the precursor adsorbed on the substrate; b. transporting the substrate to a second chamber at a second temperature and a second pressure; c. purging the second chamber with an inert gas to remove unadsorbed precursor; d. transporting the substrate to a third chamber ; e. heating the substrate in an inert or reactive atmosphere at a third temperature and third pressure to decompose the precursor to desired amorphous or crystalline forms of a new material on the substrate, wherein the third temperature is from 500°C to 2000°C; f. transporting the substrate to the second chamber ; g. purging the second chamber with an inert gas to remove unreacted precursor and loose reactant; h. transporting the substrate to the first chamber ; i. repeating steps a to h until a desired thickness of new material is formed. a. exposing a substrate to a single source precursor gas of a compound at a first temperature and a first pressure in a first chamber to form a single layer of the precursor adsorbed on the substrate; b. transporting the substrate to a second chamber at a second temperature and a second pressure; c. purging the second chamber with an inert gas to remove unadsorbed precursor; d. transporting the substrate to a third chamber ; e. heating the substrate in an inert or reactive atmosphere at a third temperature and third pressure to decompose the precursor to desired amorphous or crystalline forms of a new material on the substrate, wherein the third temperature is from 500°C to 2000°C; f. transporting the substrate to the second chamber ; g. purging the second chamber with an inert gas to remove unreacted precursor and loose reactant; h. transporting the substrate to the first chamber ; i. repeating steps a to h until a desired thickness of new material is formed.
A feed mechanism comprising: a feed screw that includes a screw shaft and a nut ; and a moving body , wherein the nut is moved on the screw shaft by a rotation of the screw shaft , so that the moving body is moved in a direction of the screw shaft , the moving body or the nut includes a convex portion , and the moving body is pushed by the nut through only the convex portion to allow an inclination of the moving body with respect to the nut in a case in which the moving body is moved by a movement of the nut wherein two convex portions are present, and an imaginary straight line connecting the two convex portions passes through a center of the screw shaft , characterized in that the moving body is a scanning unit, the scanning unit is moved in a sub-scanning direction by a movement using the feed screw , the scanning unit includes an optical head that is moved inside the scanning unit in a main scanning direction, and the two convex portions are positioned so as to be arranged in the main scanning direction a feed screw that includes a screw shaft and a nut ; and a moving body , wherein the nut is moved on the screw shaft by a rotation of the screw shaft , so that the moving body is moved in a direction of the screw shaft , the moving body or the nut includes a convex portion , and the moving body is pushed by the nut through only the convex portion to allow an inclination of the moving body with respect to the nut in a case in which the moving body is moved by a movement of the nut wherein two convex portions are present, and an imaginary straight line connecting the two convex portions passes through a center of the screw shaft , characterized in that the moving body is a scanning unit, the scanning unit is moved in a sub-scanning direction by a movement using the feed screw , the scanning unit includes an optical head that is moved inside the scanning unit in a main scanning direction, and the two convex portions are positioned so as to be arranged in the main scanning direction
A method for extracting changes in characteristics of a tire supporting a vehicle , the method comprising the steps of: extracting selected tire characteristics from at least one sensor mounted on the tire ; transmitting the selected tire characteristics to a remote processor ; storing the selected tire characteristics in a historical data login communication with the remote processor ; selecting at least one tire characteristic of interest; applying a time series decomposition model to data from the historical data log to delineate exogenous inputs from an underlying trend in the selected tire characteristic of interest; applying a learning model to the underlying trend in the selected tire characteristic of interest to model a relationship between the selected tire characteristic of interest and a condition of the tire ; and outputting from the learning model a prediction value for a condition of the tire . extracting selected tire characteristics from at least one sensor mounted on the tire ; transmitting the selected tire characteristics to a remote processor ; storing the selected tire characteristics in a historical data login communication with the remote processor ; selecting at least one tire characteristic of interest; applying a time series decomposition model to data from the historical data log to delineate exogenous inputs from an underlying trend in the selected tire characteristic of interest; applying a learning model to the underlying trend in the selected tire characteristic of interest to model a relationship between the selected tire characteristic of interest and a condition of the tire ; and outputting from the learning model a prediction value for a condition of the tire .
A cooling device including a cooling surface adapted to be in contact with a component to be cooled, wherein the device comprises a first (2;40;50) extruded piece including a plurality of grooves (21;53) and a second (1;42;54) extruded piece including a plurality of protruding elements (8;56) extending into the grooves of the first piece, the first and second pieces are joined together and the protruding elements and the corresponding grooves are designed such that a plurality of flow channels for transportation of a cooling fluid (30;70) are formed between the grooves and corresponding protruding elements, the flow channels are elongated and characterized in that they are arranged with their longitudinal axes inclined with respect to the cooling surface by having the angle between the longitudinal axes of the flow channels and an axis orthogonal to the cooling surface between 5° and 45°.
A printing apparatus having at least one sheet feeder to which sheet information is set, comprising: receiving means for receiving a print instruction for executing printing from a user; printing means for executing printing based on a print job for which the print instruction is received; storing means for storing a print job for which a print instruction is not received by the receiving means; determination means for determining (S1307) whether or not sheet information of a sheet to be used in the print job stored by the storing means is sheet information set in the sheet feeder which the printing apparatus can use; and display means for displaying a list of print jobs stored by the storing means, wherein the display means displays, on the list, a notification based on a determination result by the determination means before the receiving means receives the print instruction for the print job stored by the storing means. receiving means for receiving a print instruction for executing printing from a user; printing means for executing printing based on a print job for which the print instruction is received; storing means for storing a print job for which a print instruction is not received by the receiving means; determination means for determining (S1307) whether or not sheet information of a sheet to be used in the print job stored by the storing means is sheet information set in the sheet feeder which the printing apparatus can use; and display means for displaying a list of print jobs stored by the storing means, wherein the display means displays, on the list, a notification based on a determination result by the determination means before the receiving means receives the print instruction for the print job stored by the storing means.