mhurhangee/ep-ind-claims huggingface dataset:
A food and condiment container comprising: a base; first and second vertically opposed sidewalls (208, 210) connected to the base; and an upwardly extending back wall connected to the base and extending between the first and second sidewalls (208, 210), the back wall including first and second weakened bend-lines (218, 220) generally parallel to the base, the first bend-line adapted to bend inwardly and the second bend-line being above the first bend-line and above the first and second sidewalls (208, 210) and adapted to bend outwardly, wherein the upward extending back wall forms an elongate channel for a condiment between the first and second vertically opposed sidewalls (208, 210) when folded along the first and second bend-lines, the elongate channel being above the base and between the first and second vertically opposed sidewalls (208, 210). a base; first and second vertically opposed sidewalls (208, 210) connected to the base; and an upwardly extending back wall connected to the base and extending between the first and second sidewalls (208, 210), the back wall including first and second weakened bend-lines (218, 220) generally parallel to the base, the first bend-line adapted to bend inwardly and the second bend-line being above the first bend-line and above the first and second sidewalls (208, 210) and adapted to bend outwardly, wherein the upward extending back wall forms an elongate channel for a condiment between the first and second vertically opposed sidewalls (208, 210) when folded along the first and second bend-lines, the elongate channel being above the base and between the first and second vertically opposed sidewalls (208, 210).
A method for identifying the strain-composition of a mixture of stress tolerant soil inoculant strains isolated from stress soil under stress conditions, wherein the strains tolerate the propagation of each other, colonize each other, or help each other, which is a the Colonization and Competition and Helper (CoCoHelp) method comprising the steps of: a) examining the ST strain for - siderophore production, - capability for forming antibiosis against the Gram negative Pseudomonas fluorescens NCAIM B. 01102 and nitrogen binding Raoultella terrigena NCAIM B. 02149 and Gram positive Bacillus circulans NCAIM B. 01115 bacteria characteristically present in soils, and - exopolysaccharide production, b) classifying the strains after the antobiosis studies into aggressive, resistant and sensitive groups, c) testing the less aggressive, resistant and sensitive strains of step b) in paired inhibition assay; d) identifying the strains that inhibit each other marginally or partially or help each other as suitable for use in the mixture. a) examining the ST strain for - siderophore production, - capability for forming antibiosis against the Gram negative Pseudomonas fluorescens NCAIM B. 01102 and nitrogen binding Raoultella terrigena NCAIM B. 02149 and Gram positive Bacillus circulans NCAIM B. 01115 bacteria characteristically present in soils, and - exopolysaccharide production, - siderophore production, - capability for forming antibiosis against the Gram negative Pseudomonas fluorescens NCAIM B. 01102 and nitrogen binding Raoultella terrigena NCAIM B. 02149 and Gram positive Bacillus circulans NCAIM B. 01115 bacteria characteristically present in soils, and - exopolysaccharide production, b) classifying the strains after the antobiosis studies into aggressive, resistant and sensitive groups, c) testing the less aggressive, resistant and sensitive strains of step b) in paired inhibition assay; d) identifying the strains that inhibit each other marginally or partially or help each other as suitable for use in the mixture.
A method for determining a shortest path between two locations comprising: preprocessing, at a central processing unit, CPU, of a computing device, a graph comprising a plurality of vertices and a plurality of edges to generate preprocessed data comprising a partitioned graph; performing, at a graphics processing unit, GPU, of the computing device, metric customization using the partitioned graph to generate metric customization data for augmenting the partitioned graph with metrics encoding a cost of traversing one or more edges of the partitioned graph; and computing, at the CPU, a shortest path between the two locations using the preprocessed data and the metrics customization data, wherein the method further comprises: the CPU sending the metrics to the GPU for use by the GPU during the metric customization; and the CPU copying the metric customization data from the GPU to memory of the CPU. preprocessing, at a central processing unit, CPU, of a computing device, a graph comprising a plurality of vertices and a plurality of edges to generate preprocessed data comprising a partitioned graph; performing, at a graphics processing unit, GPU, of the computing device, metric customization using the partitioned graph to generate metric customization data for augmenting the partitioned graph with metrics encoding a cost of traversing one or more edges of the partitioned graph; and computing, at the CPU, a shortest path between the two locations using the preprocessed data and the metrics customization data, the CPU sending the metrics to the GPU for use by the GPU during the metric customization; and the CPU copying the metric customization data from the GPU to memory of the CPU.
A system for automatically executing a navigational task based on a proximity of a vehicle to an obstacle, the system comprising: a hub attachable to a vehicle, the hub including an oscillating circuit having an oscillating frequency; a member coupled to the hub, the member including an inductive element adapted to alter the oscillating frequency commensurate with its proximity to the oscillating circuit; and a navigation sensor adapted to: determine the oscillating frequency of the oscillating circuit; and identify a navigational task using a set of calibration data and the oscillating frequency of the oscillating circuit. a hub attachable to a vehicle, the hub including an oscillating circuit having an oscillating frequency; a member coupled to the hub, the member including an inductive element adapted to alter the oscillating frequency commensurate with its proximity to the oscillating circuit; and a navigation sensor adapted to: determine the oscillating frequency of the oscillating circuit; and identify a navigational task using a set of calibration data and the oscillating frequency of the oscillating circuit. determine the oscillating frequency of the oscillating circuit; and identify a navigational task using a set of calibration data and the oscillating frequency of the oscillating circuit.
Hazardous goods container, in particular as a fire protection container, having a drip tray on the floor, a roof and side walls which connect the drip tray and the roof and are fixed to a frame (4, 5, 11), characterized in that at least one sliding door (6, 7) for opening and closing an opening on the hazardous goods container is mounted in a movable manner on at least one side, wherein the at least one sliding door (6, 7) is supported by rollers and guided by a guide rail on its upper side, wherein the sliding door (6, 7) is pretensioned into the closed position by a spring element comprising a weight movable by means of a cable pull, and a damper is provided which slows down a closing movement of the sliding door (6, 7).
A method for hydrothermal liquefaction of biomass, wherein the biomass supplied by pumps from a tank is provided to a reactor, in which the biomass is heated to obtain reactor products in the form of volatile, liquid and solid fractions, which are separated in a separator, characterized in that the biomass supplied from the tank is pressurized in pumps to a pressure from 220 atm. to 250 atm., after which it is preliminarily heated in a heat exchanger to a temperature of at least -150-250°C by the thermal energy of the reactor products and next the preheated biomass is reheated in the reactor using microwave radiation emitted by generators with a frequency from 900 MHz to 4 GHz through radiators of polarised waves, wherein the radiation directions are perpendicular with respect to the directions of the neighbouring radiators (143A, 143B), and the width (a) of the radiator slot is smaller than half of the radiation wavelength (λ), when measured for vacuum conditions, emitted from the generators, and wherein the reflections of electromagnetic wave supplied to the radiators are measured using reflectometers placed between the radiators and the generators, and wherein the temperature of the biomass inside the reactor is measured using temperature sensors and a controller, and wherein based on the measurements of the temperature sensors and reflectometers, the power of radiation generated by the generators is adjusted to retain the biomass inside the reactor at the temperature of 374°C to 400°C.
A method for assembling a container, the container comprising • a side wall, the side wall comprising a cellulose-based material, in particular veneer, and the side wall being bent to have a tubular shape, • at least one bottom part, the bottom part comprising a cellulose-based material, in particular veneer; • a connecting element, the connecting element being made of a fusible material; the method comprising the steps of • arranging the connecting element and the bottom part at one end of the tubular shape in the side wall; • imparting energy to the connecting element, thereby softening the connecting element; • compressing the connecting element and in particular also the bottom part in a direction substantially normal to a plane in which the bottom part extends, thereby expanding the softened connecting element in the plane in which the bottom part extends; • thereby bonding the connecting element to the side wall and to the bottom part. • a side wall, the side wall comprising a cellulose-based material, in particular veneer, and the side wall being bent to have a tubular shape, • at least one bottom part, the bottom part comprising a cellulose-based material, in particular veneer; • a connecting element, the connecting element being made of a fusible material; • arranging the connecting element and the bottom part at one end of the tubular shape in the side wall; • imparting energy to the connecting element, thereby softening the connecting element; • compressing the connecting element and in particular also the bottom part in a direction substantially normal to a plane in which the bottom part extends, thereby expanding the softened connecting element in the plane in which the bottom part extends; • thereby bonding the connecting element to the side wall and to the bottom part.
A substrate holding apparatus configured to rotate a substrate about its axis while causing the substrate to make a circular motion, comprising: rollers (11a, 11b) capable of contacting a periphery of the substrate; electric motors (29a, 29b) configured to rotate the rollers (11a, 11b); eccentric shafts (13a, 13b) arranged around a predetermined central axis; and actuators, wherein the eccentric shafts (13a, 13b) have first shaft portions (14a, 14b) and second shaft portions (15a, 15b), the second shaft portions (15a, 15b) being eccentric relative to the first shaft portions (14a, 14b), respectively, the rollers (11a, 11b) are fixed to the second shaft portions (15a, 15b), respectively, the first shaft portions (14a, 14b) are coupled to the electric motors (29a, 29b), respectively, the eccentric shafts (13a, 13b) include movable shafts and reference shafts, the actuators are coupled to the movable shafts, respectively, and each actuator is configured to move the respectively coupled movable shaft in a direction closer to the reference shafts and in a direction away from the reference shafts. rollers (11a, 11b) capable of contacting a periphery of the substrate; electric motors (29a, 29b) configured to rotate the rollers (11a, 11b); eccentric shafts (13a, 13b) arranged around a predetermined central axis; and actuators, wherein the eccentric shafts (13a, 13b) have first shaft portions (14a, 14b) and second shaft portions (15a, 15b), the second shaft portions (15a, 15b) being eccentric relative to the first shaft portions (14a, 14b), respectively, the rollers (11a, 11b) are fixed to the second shaft portions (15a, 15b), respectively, the first shaft portions (14a, 14b) are coupled to the electric motors (29a, 29b), respectively, the eccentric shafts (13a, 13b) include movable shafts and reference shafts, the actuators are coupled to the movable shafts, respectively, and each actuator is configured to move the respectively coupled movable shaft in a direction closer to the reference shafts and in a direction away from the reference shafts.
A method of observing axial magnetization (Mz) in an object located in a main magnetic field (B 0), comprising the steps of determining magnetic field intensity B Pi, with i = 1 to n, n ≥ 1, in at least one magnetic field probe P i, with i = 1 to n, n ≥ 1, arranged in the neighborhood of the object, each one of said magnetic field probes comprising a magnetic resonance active substance, means for pulsed MR excitation of said substance and means for receiving an MR signal generated by said substance, said step of determining magnetic field intensity (B Pi) comprising pulsed excitation of said substance with said means for pulsed MR excitation and reception of an MR signal in response thereto with said receiving means, characterized in that said method further comprises the step of subtracting a background magnetic field (B B), measured initially with each one of said at least one magnetic field probe, from each one of said respective magnetic field intensities B Pi, said step of determining magnetic field intensity being repeated at a predetermined sampling rate, said sampling rate being up to 100 Hz, thereby yielding a magnetic field time series comprising a contribution from Mz in the object.
A liquid composition for subcutaneous, intramuscular or transdermal administration comprising a therapeutic antibody in high concentration formulation buffer, wherein the buffer is at a pH of 5.2 and comprises 6.2 mM citric acid monohydrate, 105 mM sodium chloride, 1.2 mM sodium citrate dihydrate, 8.7 mM sodium phosphate dibasic, 5.5 mM sodium phosphate monobasic, 0.1% polysorbate 80 and 66 mM mannitol, the antibody is at a concentration of at least 100 mg/ml, wherein the antibody is an IgG1 antibody, and wherein the antibody is veltuzumab which is an anti-CD20 antibody, epratuzumab which is an anti-CD22 antibody, milatuzumab which is an anti-CD74 antibody, or hL243 which is an anti-HLA-DR antibody, wherein the amino acid sequence of the heavy chain of hL243 is an amino acid sequence of SEQ ID NO: 37 and wherein the amino acid sequence of the light chain of hL243 is an amino acid sequence of SEQ ID NO: 39.
A method for transmitting information between a control network element and a transceiver network element in a communications system, said method comprising: providing a first connection (140, 112) connecting a control network element and a transceiver network element; providing a second connection connecting the control network element and the transceiver network element, the first connection (140, 112) having a higher guaranteed quality of service than the second connection; selecting at least one of the first connection and the second connection for transmitting a piece of information using a predetermined criterion; and transmitting the piece of information using at least one of the first connection (140, 112) and the second connection using the predetermined criterion. providing a first connection (140, 112) connecting a control network element and a transceiver network element; providing a second connection connecting the control network element and the transceiver network element, the first connection (140, 112) having a higher guaranteed quality of service than the second connection; selecting at least one of the first connection and the second connection for transmitting a piece of information using a predetermined criterion; and transmitting the piece of information using at least one of the first connection (140, 112) and the second connection using the predetermined criterion.
A battery management system, comprising: a sensing unit, the sensing unit adapted for sensing cell voltages and cell currents of a plurality of battery cells; and a main control unit MCU, the MCU being adapted to determine a state of charge, SOC, of the plurality of the battery cells and controlling charging and discharging based on the cell voltages and cell currents of the plurality of the battery cells, wherein the MCU includes: an SOC measurer, the SOC measurer being adapted to measure first SOCs of each of the battery cells and, after a predetermined duration, second SOCs of each of the battery cells, and a controller, the controller being adapted to perform (i): (i) to determine whether a first difference value between a maximum value from among the second SOCs of the plurality of battery cells and the second SOCs of each battery cell is greater than a first reference value, and wherein the controller is furthermore adapted: - if step (i) was performed, to determine which battery cell among the plurality of the battery cells is a shorted battery cell when the first difference value for the battery cell is greater than the first reference value. a sensing unit, the sensing unit adapted for sensing cell voltages and cell currents of a plurality of battery cells; and a main control unit MCU, the MCU being adapted to determine a state of charge, SOC, of the plurality of the battery cells and controlling charging and discharging based on the cell voltages and cell currents of the plurality of the battery cells, an SOC measurer, the SOC measurer being adapted to measure first SOCs of each of the battery cells and, after a predetermined duration, second SOCs of each of the battery cells, and a controller, the controller being adapted to perform (i): (i) to determine whether a first difference value between a maximum value from among the second SOCs of the plurality of battery cells and the second SOCs of each battery cell is greater than a first reference value, and (i) to determine whether a first difference value between a maximum value from among the second SOCs of the plurality of battery cells and the second SOCs of each battery cell is greater than a first reference value, and - if step (i) was performed, to determine which battery cell among the plurality of the battery cells is a shorted battery cell when the first difference value for the battery cell is greater than the first reference value.
A gearing assembly comprising a rotary input member and a rotary output member and a gearing arrangement between the input member and the output member selectively engageable to effect a driving engagement between the input member and the output member through at least a first torque connection having a first gear ratio, a second torque connection having a second gear ratio and a third torque connection having a third gear ratio; wherein the gearing arrangement includes a first engagement member operable selectively to effect the first torque connection in a 1:1 ratio, a first planetary gear stage (10, 14) and a second planetary gear stage (11, 15), and a second engagement member operable selectively to effect the second torque connection and a third engagement member operable selectively to effect the third torque connection respectively through one or more of the planetary gear stages; and wherein the first engagement member is located on a first side of the input member and the first planetary gear stage, second engagement member, second planetary gear stage and third engagement member are located on a second side of the input member opposite to said first side, and, characterised in that the gearing assembly further comprises a rotary drive mechanism consisting of a rotary electric motor to drive the input member, wherein the first engagement member is located on a first side of the rotary drive mechanism and the first planetary gear stage, second engagement member, second planetary gear stage and third engagement member are located on a second side of the rotary drive mechanism opposite to said first side.
A composition intended for topical administration to the eye, comprising at least one analogue of prostaglandin selected from the group comprising latanoprost, bimatoprost and travoprost, as active compound, characterized in that said composition comprises a stabilizing amount ranging from 0.1 to 0.2% in weight to the total volume of the composition of at least one hyaluronic acid or a salt thereof having a molecular weight ranging from 1.6 to 4 MDa, said composition being free of preservatives with antimicrobial or microstatic properties, being cyclodextrine-free and being microspheres-free.
A method of processing a salivary cell sample for stress response biomarker analysis comprising: (a) applying a biological sample comprising live whole salivary cells to a substrate, wherein the cells contain stress response biomarkers; (b) contacting the sample with a blocking solution of bovine serum albumin or normal goat serum in phosphate buffered saline; (c) applying an anti-biomarker antibody for at least one stress response of a stress response biomarker panel; and (d) detecting binding of the anti-biomarker antibody using computerized analysis. (a) applying a biological sample comprising live whole salivary cells to a substrate, wherein the cells contain stress response biomarkers; (b) contacting the sample with a blocking solution of bovine serum albumin or normal goat serum in phosphate buffered saline; (c) applying an anti-biomarker antibody for at least one stress response of a stress response biomarker panel; and (d) detecting binding of the anti-biomarker antibody using computerized analysis.
Heating display unit for storing and displaying heated goods wherein the display unit comprises walls, multiple shelves, an air duct (22, 24, 32), an air forcing apparatus and air temperature regulating means, in which the walls comprise a bottom, side walls, a top wall, and a rear wall, at least part of the walls is at least partially double-walled, at least part of the walls of the display unit delimit a chamber including an open front side, wherein the chamber is enclosed on five sides by the inside of the bottom, side, rear and top walls; the multiple shelves each comprise an upper placing side; the multiple shelves each extend substantially horizontally in the chamber and are provided above each other to define an individual storage space above each shelf; the air duct (22, 24, 32) extends from an inlet opening to multiple outlets in which the outlets are positioned at front edges of the shelves wherein all the outlets define a flow direction of a generated air flow; at least one outlet per storage space discharges into the corresponding storage space wherein a flow direction of the at least one outlet points away from a corresponding placing side to the rear such that the generated air flow is directed substantially entirely into the corresponding storage space, characterised in that each storage space is closed at the rear by the inside of the rear wall such that the generated air flow turns around in the storage space and leaves the storage space at the front side of the storage space.