mhurhangee/ep-ind-claims huggingface dataset:
A storage container, wherein the storage container is made of a material that comprises at least one of substances: manganese steel, stainless steel, chrome molybdenum steel, nickel alloy, aluminum alloy, cobalt alloy, gold and resin, wherein the material is at least partly coated with a passive film of fluoride formed by contact with a gas containing ClF, and has an inner surface coated with the passive film, wherein the storage container has a valve attached thereto, the valve having a flow passage for the gas to flow through, a valve seat through which the flow passage passes, and a valve member brought into contact with or away from the valve seat to close or open the flow passage, wherein the flow passage and the portions of the valve seat and valve member which are to be exposed to a gas are coated with the passive film, characterized in that the valve member has a sealing surface pressed against the valve seat to close the flow passage, and the sealing surface has a gold plating layer with a thickness of 2μm to 10μm. a flow passage for the gas to flow through, a valve seat through which the flow passage passes, and a valve member brought into contact with or away from the valve seat to close or open the flow passage, wherein the flow passage and the portions of the valve seat and valve member which are to be exposed to a gas are coated with the passive film, characterized in that the valve member has a sealing surface pressed against the valve seat to close the flow passage, and the sealing surface has a gold plating layer with a thickness of 2μm to 10μm.
A polyvinyl alcohol film comprising: a polyvinyl alcohol resin; and an ester of a C2 to C4 fatty acid and a polyhydric alcohol; wherein the ester is present in an amount of 1 to 4,000 ppm. a polyvinyl alcohol resin; and an ester of a C2 to C4 fatty acid and a polyhydric alcohol;
Packaging for aerosol-generating articles comprising a packaging body with a reception volume for receiving a plurality of aerosol-generating articles wherein the packaging body extends in a length direction (x), a width direction (y) and a height direction (z), with a lid, attached to the packaging body via a first attachment section, the lid being pivotable with respect to the packaging body for opening and closing the packaging, wherein before first opening of the packaging, the lid is attached to the packaging body in a second attachment section, the second attachment section comprising an inner surface and an outer surface facing the inner surface wherein the second attachment section is breakable to open the packaging and comprises at least a first and a second breaking line (66, 68, 76, 78), wherein one breaking line (66, 68) extends from the inner surface towards the outer surface without reaching the outer surface and another breaking line (76, 78) extends from the outer surface towards the inner surface without reaching the inner surface wherein the second attachment section has a predetermined width (w) from the inner surface to the outer surface characterized in that both the first and second breaking lines are cuts which extend at least over 50% of that width.
A gas regulating device (2A-E) for use in calibration of a gas analyzer, comprising an inlet for receiving a flow of calibration gas from a calibration gas supply, an outlet for passing on said flow of calibration gas to the gas analyzer to be calibrated, a valve arrangement comprising at least one valve (11; 11A, 11B) disposed in a gas flow path through which said inlet and outlet can be brought in gaseous connection, and valve regulating means for regulating said at least one valve, characterized in that the valve regulating means is configured to regulate the at least one valve (11; 11A, 11B) such that gas can flow between said inlet and outlet only when a gas pressure (P 1) in said gas flow path, between the at least one valve (11; 11A, 11B) and said outlet, falls below a predetermined threshold value, and when a gas pressure (P 2) in said gas flow path, between the inlet and the at least one valve (11; 11A, 11B), exceeds a predetermined threshold value.
An antenna management method, comprising: collecting resource use information from managed access networks; selecting the managed access networks joining antenna scheduling from the managed access networks according to the resource use information to form an antenna scheduling set, wherein the managed access networks using the same spectrum resource form the same antenna scheduling set; grouping wireless links of each managed access network in the antenna scheduling set into one or more wireless link clusters, wherein each wireless link cluster includes one or more wireless links of the same managed access network which have the same transmitting node or the same receiving node; allocating wireless resources to all the wireless link clusters of the antenna scheduling set such that interference between all the wireless link clusters of the antenna scheduling set is within a predetermined range. collecting resource use information from managed access networks; selecting the managed access networks joining antenna scheduling from the managed access networks according to the resource use information to form an antenna scheduling set, wherein the managed access networks using the same spectrum resource form the same antenna scheduling set; grouping wireless links of each managed access network in the antenna scheduling set into one or more wireless link clusters, wherein each wireless link cluster includes one or more wireless links of the same managed access network which have the same transmitting node or the same receiving node; allocating wireless resources to all the wireless link clusters of the antenna scheduling set such that interference between all the wireless link clusters of the antenna scheduling set is within a predetermined range.
An air containment system configured to span an aisle defined by rows of racks, the air containment system comprising: a frame structure including two end frames provided at respective ends of the air containment system, and at least two horizontal beams, one for each side of the air containment system, releasably secured to the end frames, the frame structure being adjustable to achieve a desired height, length and width as required for a particular application of the air containment system, characterized in that each horizontal beam is releasably secured to posts (26, 28) of the end frame at a desired elevation along lengths of the posts (26, 28), is configured to be extended and retracted to achieve a desired length, and includes an outer beam having an open channel formed therein, an inner beam received within the open channel of the outer beam, a spacer attached to the inner beam when connecting the outer beam to the inner beam, and fasteners accessible from the open channel of the outer beam to connect the outer beam to the inner beam. a frame structure including two end frames provided at respective ends of the air containment system, and at least two horizontal beams, one for each side of the air containment system, releasably secured to the end frames, the frame structure being adjustable to achieve a desired height, length and width as required for a particular application of the air containment system, characterized in that each horizontal beam is releasably secured to posts (26, 28) of the end frame at a desired elevation along lengths of the posts (26, 28), is configured to be extended and retracted to achieve a desired length, and includes an outer beam having an open channel formed therein, an inner beam received within the open channel of the outer beam, a spacer attached to the inner beam when connecting the outer beam to the inner beam, and fasteners accessible from the open channel of the outer beam to connect the outer beam to the inner beam.
Method comprising the steps of: - positioning at least one panel in a machining position on a supporting plane; - separating an end portion from the panel in the machining position by first carrying out a pre-incision and then a separating cut along the pre-incision; - performing at least one incision line on a face of the end portion with a circular tool driven to rotate around a rotation axis (x-x) that is moved on one side of, for example below, the supporting plane; - moving said rotation axis (x-x) in a direction that is transverse to said supporting plane beyond the supporting plane; characterised by comprising the step of: - performing a through cut along said at least one incision line by means of said tool rotated around said rotation axis (x-x) that is moved on an opposite side of, for example above, the supporting plane. - positioning at least one panel in a machining position on a supporting plane; - separating an end portion from the panel in the machining position by first carrying out a pre-incision and then a separating cut along the pre-incision; - performing at least one incision line on a face of the end portion with a circular tool driven to rotate around a rotation axis (x-x) that is moved on one side of, for example below, the supporting plane; - moving said rotation axis (x-x) in a direction that is transverse to said supporting plane beyond the supporting plane; - performing a through cut along said at least one incision line by means of said tool rotated around said rotation axis (x-x) that is moved on an opposite side of, for example above, the supporting plane.
A method of determining objects (24; 52) present in a process control system, the method being performed by a video control arrangement and comprising the steps of: - repeatedly scanning an area, via a group of video cameras (32, 34, 35, 36) comprising at least one video camera, in order to obtain a set of video streams, and - determining if there are any new objects (24; 52) associated with the process control system in the area through detecting object identifiers (51; 53) of objects in the video streams, characterised by the further steps of - determining if a detected new object is stationary or mobile, - reporting the detected new object to a process control server, and - registering stationary objects as process control objects. - repeatedly scanning an area, via a group of video cameras (32, 34, 35, 36) comprising at least one video camera, in order to obtain a set of video streams, and - determining if there are any new objects (24; 52) associated with the process control system in the area through detecting object identifiers (51; 53) of objects in the video streams, characterised by the further steps of - determining if a detected new object is stationary or mobile, - reporting the detected new object to a process control server, and - registering stationary objects as process control objects.
A method for decontaminating a medical device in a decontamination chamber, using an atomizing assembly in fluid communication with the decontamination chamber, the atomizing assembly comprising an atomizing nozzle, a chemical flow control system in fluid communication with the atomizing nozzle and a source of the decontaminating fluid, and an air flow control system operatively connected to the atomizing nozzle, the method comprising: reducing a pressure in the decontamination chamber to within a sub-atmospheric pressure range in a first evacuation step; adding a decontaminating fluid into the decontamination chamber at a first rate while increasing the pressure in the decontamination chamber, and wherein adding the decontaminating fluid increases a relative humidity in the decontamination chamber to a level that improves the efficacy of the decontaminating fluid, and wherein the chemical flow control system delivers the decontaminating fluid from the source of the decontaminating fluid to the atomizing nozzle and the air flow control system forces the decontaminating fluid through the atomizing nozzle; adding the decontaminating fluid into the decontamination chamber at a second rate higher than the first rate while increasing the pressure in the decontamination chamber to within a hold pressure range; holding the decontaminating fluid in the decontamination chamber for a hold time within the hold pressure range; reducing the pressure in the decontamination chamber to within the sub-atmospheric pressure range in a second evacuation step; and venting the decontamination chamber to atmospheric pressure. reducing a pressure in the decontamination chamber to within a sub-atmospheric pressure range in a first evacuation step; adding a decontaminating fluid into the decontamination chamber at a first rate while increasing the pressure in the decontamination chamber, and wherein adding the decontaminating fluid increases a relative humidity in the decontamination chamber to a level that improves the efficacy of the decontaminating fluid, and wherein the chemical flow control system delivers the decontaminating fluid from the source of the decontaminating fluid to the atomizing nozzle and the air flow control system forces the decontaminating fluid through the atomizing nozzle; adding the decontaminating fluid into the decontamination chamber at a second rate higher than the first rate while increasing the pressure in the decontamination chamber to within a hold pressure range; holding the decontaminating fluid in the decontamination chamber for a hold time within the hold pressure range; reducing the pressure in the decontamination chamber to within the sub-atmospheric pressure range in a second evacuation step; and venting the decontamination chamber to atmospheric pressure.
A vehicle lighting device in which a switching regulator, a voltage detection resistor and a light emitting element are sequentially connected in series between an input power supply (Vin) and a ground terminal, the vehicle lighting device comprising a switching controller controls a current that is supplied to the voltage detection resistor from the switching regulator and, controls a current that is supplied to the light emitting element, in accordance with a difference obtained by comparing a voltage that is detected from the voltage detection resistor and a reference voltage that is taken out from a voltage dividing resistor (R 1, R 2) that is connected between a constant voltage source (Vcc) and the ground terminal, the vehicle lighting device further comprising: between the input power supply (Vin) and the ground terminal, a first current control circuit adapted to supply a current that decreases a voltage of the voltage dividing resistor to the voltage dividing resistor (R 1, R 2), in a case where a voltage of the input power supply decreases to a preset value or less; and between the constant voltage source (Vcc) and the ground terminal a second current control circuit adapted to supply a current that decreases a voltage of the voltage dividing resistor, to the voltage dividing resistor (R 1, R 2), in a case where a temperature that is detected by means of a temperature detection element increases to a preset value or more. between the input power supply (Vin) and the ground terminal, a first current control circuit adapted to supply a current that decreases a voltage of the voltage dividing resistor to the voltage dividing resistor (R 1, R 2), in a case where a voltage of the input power supply decreases to a preset value or less; and between the constant voltage source (Vcc) and the ground terminal a second current control circuit adapted to supply a current that decreases a voltage of the voltage dividing resistor, to the voltage dividing resistor (R 1, R 2), in a case where a temperature that is detected by means of a temperature detection element increases to a preset value or more.
Method for supplying power impulses with a scalable power impulse interval for operating a PVD sputtering cathode, with the PVD sputtering cathode comprising a first partial cathode and a second partial cathode, wherein for the partial cathodes a maximum average power feed is prescribed and the duration of the power impulse intervals is prescribed, and the method comprises the following steps: a) providing a generator with a predefined power output, preferably a power output that is constant at least after switching on and after expiration of a power development interval, b) switching on the generator, c) connecting the first partial cathode to the generator so that the first partial cathode is fed with power from the generator, d) separating the generator from the first partial cathode after expiration of a predefined first power impulse interval corresponding to the first partial cathode, e) connecting the second partial cathode to the generator so that the second partial cathode is fed with power from the generator, f) separating the generator from the second partial cathode after expiration of a predefined second power impulse interval corresponding to the second partial cathode, wherein the first power impulse interval starts time-wise before the second power impulse interval and the first power impulse interval ends time-wise before the second power impulse interval, characterized in that the steps d) and e) are executed in such a manner that the first power impulse interval and the second power impulse interval overlap in time and all power impulse intervals form together a first group, so that the power output from the generator remains sustained without interruption from the beginning of the first power impulse interval until the end of the second power impulse interval and a second power development interval does not occur. a) providing a generator with a predefined power output, preferably a power output that is constant at least after switching on and after expiration of a power development interval, b) switching on the generator, c) connecting the first partial cathode to the generator so that the first partial cathode is fed with power from the generator, d) separating the generator from the first partial cathode after expiration of a predefined first power impulse interval corresponding to the first partial cathode, e) connecting the second partial cathode to the generator so that the second partial cathode is fed with power from the generator, f) separating the generator from the second partial cathode after expiration of a predefined second power impulse interval corresponding to the second partial cathode,
A computer implemented method comprising: storing, on a user device, a trained neural network comprising a convolutional neural network that outputs into a recurrent neural network; identifying, on the user device, an image depicting an environment; receiving (715; 805), by the user device, an ordinal pair indicating a direction of depth in the environment depicted in the image; generating, on the user device, an initial depth map from the image using the convolutional neural network; generating (720; 815), on the user device, an updated depth map by inputting the received ordinal pair into the recurrent neural network that is trained to update outputs of the convolutional neural network; and storing the updated depth map. storing, on a user device, a trained neural network comprising a convolutional neural network that outputs into a recurrent neural network; identifying, on the user device, an image depicting an environment; receiving (715; 805), by the user device, an ordinal pair indicating a direction of depth in the environment depicted in the image; generating, on the user device, an initial depth map from the image using the convolutional neural network; generating (720; 815), on the user device, an updated depth map by inputting the received ordinal pair into the recurrent neural network that is trained to update outputs of the convolutional neural network; and storing the updated depth map.
A seal assembly (150, 150') comprising: a major annular body having opposing spaced-apart lips (156, 158) extending from a heel portion, the major annular body having a bore extending through the heel portion; a first spring disposed between the lips (156, 158), biasing the lips apart; a minor annular body extending from one end of one of the lips of the major annular body, the minor annular body having opposing spaced-apart walls that extend from a base region and form a pocket; and a second spring disposed in the pocket between the spaced-apart walls, biasing the walls apart, wherein the first spring provides a force that urges one of the lips in a radial direction, and the second spring provides a force in an axial direction. a major annular body having opposing spaced-apart lips (156, 158) extending from a heel portion, the major annular body having a bore extending through the heel portion; a first spring disposed between the lips (156, 158), biasing the lips apart; a minor annular body extending from one end of one of the lips of the major annular body, the minor annular body having opposing spaced-apart walls that extend from a base region and form a pocket; and a second spring disposed in the pocket between the spaced-apart walls, biasing the walls apart, wherein the first spring provides a force that urges one of the lips in a radial direction, and the second spring provides a force in an axial direction.
A lithium secondary battery comprising a positive electrode, wherein a peak at 167 to 171 eV and a peak at 162 to 166 eV are present in XPS analysis of sulfur (S2p) of a positive electrode surface, and P169/P164 is in the range of 0.7 to 2.0 wherein the P169/P164 is the ratio between the intensity of the peak at 167 to 171 eV and the intensity of the peak at 162 to 166 eV, wherein a positive electrode active material included in the positive electrode comprises sulfur in the range of 100 to 400 ppm, and the lithium secondary battery further comprising an electrolyte solution comprising as an additive, at least a sulfur compound selected from compounds represented by the following formula or formula: wherein Q represents an oxygen atom, methylene group, or a C-S single bond; A represents substituted or unsubstituted alkylene group having 1 to 5 carbon atoms; carbonyl group; sulfinyl group; substituted or unsubstituted fluoroalkylene group having 1 to 6 carbon atoms; or divalent group having 2 to 6 carbon atoms in which a plurality of alkylene units, a plurality of fluoroalkylene units, or an alkylene unit and a fluoroalkylene unit are bonded through an ether bond; and B represents substituted or unsubstituted alkylene group; substituted or unsubstituted fluoroalkylene group; or an oxygen atom; wherein n represents an integer of 0 or more and 2 or less: and R 1 to R 6 each independently represent a hydrogen atom, alkyl group having 1 or more and 12 or less carbon atoms, cycloalkyl group having 3 or more and 6 or less carbon atoms, or aryl group having 6 or more and 12 or less carbon atoms; and wherein the sulfur compound is selected from the group consisting of methylene methane disulfonate, ethylene methane disulfonate, 1,3-propanesultone and 1,4-butanesultone.