mhurhangee/patent-ind-claim-en huggingface dataset:
A power supply apparatus including a first circuit connected to a commercial power supply and a second circuit insulated from the first circuit , the power supply apparatus comprising: adjustment means in the first circuit , for adjusting power supplied from the commercial power supply to a load; a controller in the second circuit , for controlling the adjustment means ; a detector in the first circuit , for detecting a parameter relating to the power supplied to the load; first communication means in the first circuit , connected to the detector; and second communication means in the second circuit , connected to the controller , insulated from the first communication means, and for performing wireless communication with the first communication means, wherein the first communication means is operated with power supplied to the first communication means by a voltage generated in the first communication means due to a voltage output from the controller to the second communication means, wherein the first communication means transmits information about a result of detection by the detector to the second communication means by the wireless communication, and wherein the controller controls the adjustment means based on the information transmitted to the second communication means. adjustment means in the first circuit , for adjusting power supplied from the commercial power supply to a load; a controller in the second circuit , for controlling the adjustment means ; a detector in the first circuit , for detecting a parameter relating to the power supplied to the load; first communication means in the first circuit , connected to the detector; and second communication means in the second circuit , connected to the controller , insulated from the first communication means, and for performing wireless communication with the first communication means, wherein the first communication means is operated with power supplied to the first communication means by a voltage generated in the first communication means due to a voltage output from the controller to the second communication means, wherein the first communication means transmits information about a result of detection by the detector to the second communication means by the wireless communication, and wherein the controller controls the adjustment means based on the information transmitted to the second communication means.
A dust cup assembly (VB) comprising: a casing (B1) having a central chamber (B101), a dedusting chamber (B102) and a dust collecting chamber (B103), wherein the central chamber (B101) is configured to have an upright columnar shape and comprises an air exhaust chamber (B1011) and a mounting chamber (B1012) in communication with each other in an up-and-down direction, the dedusting chamber (B102) is configured to have a closed annular cross section and surrounds the air exhaust chamber (B1011) by one circle, the dust collecting chamber (B103) is located below the dedusting chamber (B102), has a non-closed annular cross section and surrounds the mounting chamber (B1012) by less than a circle; a negative pressure device (B3), wherein at least a majority of the negative pressure device (B3) is provided in the mounting chamber (B1012) and used to suck airflow from the environment into the casing (B1); and a dedusting device (B2) provided in the dedusting chamber (B102) to remove dust from the sucked airflow; wherein a lower portion of the air exhaust chamber (B1011) is configured as an expansion pipe segment, and an upper end of the negative pressure device (B3) extends into the expansion pipe segment. a casing (B1) having a central chamber (B101), a dedusting chamber (B102) and a dust collecting chamber (B103), wherein the central chamber (B101) is configured to have an upright columnar shape and comprises an air exhaust chamber (B1011) and a mounting chamber (B1012) in communication with each other in an up-and-down direction, the dedusting chamber (B102) is configured to have a closed annular cross section and surrounds the air exhaust chamber (B1011) by one circle, the dust collecting chamber (B103) is located below the dedusting chamber (B102), has a non-closed annular cross section and surrounds the mounting chamber (B1012) by less than a circle; a negative pressure device (B3), wherein at least a majority of the negative pressure device (B3) is provided in the mounting chamber (B1012) and used to suck airflow from the environment into the casing (B1); and a dedusting device (B2) provided in the dedusting chamber (B102) to remove dust from the sucked airflow; wherein a lower portion of the air exhaust chamber (B1011) is configured as an expansion pipe segment, and an upper end of the negative pressure device (B3) extends into the expansion pipe segment.
A cutting tool life setting method , which comprises: obtaining at least two groups of previous cutting parameters of a cutting tool ; for each of the obtained at least two groups of previous cutting parameters, obtaining at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used ; fitting the failure time distribution of the cutting tool on the basis of the at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used ; receiving a group of predefined cutting parameters of a target cutting tool ; and setting the tool life of the target cutting tool according to the group of predefined cutting parameters, the at least two groups of previous cutting parameters, and the failure time distribution corresponding to each group of previous cutting parameters . obtaining at least two groups of previous cutting parameters of a cutting tool ; for each of the obtained at least two groups of previous cutting parameters, obtaining at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used ; fitting the failure time distribution of the cutting tool on the basis of the at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used ; receiving a group of predefined cutting parameters of a target cutting tool ; and setting the tool life of the target cutting tool according to the group of predefined cutting parameters, the at least two groups of previous cutting parameters, and the failure time distribution corresponding to each group of previous cutting parameters .
A display device comprising: a display unit ; a cover glass configured to protect a front surface of the display unit; a fingerprint recognition sensor comprising an optical sensor configured to sense reflected light, an optical layer to collect light incident on the optical sensor , and a base substrate on which the optical sensor is mounted, wherein the optical layer is disposed on a back surface of the display unit to form a first air gap (AG1), and the optical sensor is disposed on a back surface of the optical layer to form a second air gap (AG2); a first spacer positioned between the optical layer and the display unit, and arranged around the first air gap (AG1), characterized in that the display device further comprises: a first sealant applied in a paste state and changed into a solid state to bond the first spacer, the display unit and the optical layer; a second spacer positioned between the optical sensor and the optical layer, and arranged around the second air gap (AG2); a memory unit configured to store fingerprint information of a user; a controller configured to determine whether information collected by the optical sensor matches the stored fingerprint information; and a flexible substrate connecting the controller and the base substrate, wherein the display device further comprises a third spacer positioned between an outer periphery of the base substrate and the back surface of the display unit such that the third spacer and the display unit are bonded, wherein the third spacer is formed of a rigid material. a display unit ; a cover glass configured to protect a front surface of the display unit; a fingerprint recognition sensor comprising an optical sensor configured to sense reflected light, an optical layer to collect light incident on the optical sensor , and a base substrate on which the optical sensor is mounted, wherein the optical layer is disposed on a back surface of the display unit to form a first air gap (AG1), and the optical sensor is disposed on a back surface of the optical layer to form a second air gap (AG2); a first spacer positioned between the optical layer and the display unit, and arranged around the first air gap (AG1), a first sealant applied in a paste state and changed into a solid state to bond the first spacer, the display unit and the optical layer; a second spacer positioned between the optical sensor and the optical layer, and arranged around the second air gap (AG2); a memory unit configured to store fingerprint information of a user; a controller configured to determine whether information collected by the optical sensor matches the stored fingerprint information; and a flexible substrate connecting the controller and the base substrate, wherein the display device further comprises a third spacer positioned between an outer periphery of the base substrate and the back surface of the display unit such that the third spacer and the display unit are bonded, wherein the third spacer is formed of a rigid material.
A method of automatically verifying accurate operation of the Coriolis flowmeter of claim 9 during field operation comprising: flowing a non-calibration process fluid through the Coriolis flowmeter; performing by the meter electronics the steps of: detecting a model of the Coriolis flowmeter; retrieving a factory zero value from the storage system, wherein the factory zero value was determined during an initial factory calibration; retrieving a stored zero drift specification from the storage system based on the model of Coriolis flowmeter detected; measuring a zero value during field operation of the Coriolis flowmeter; comparing the field operation zero value with the factory zero value; calculating an error between the field operation zero value and the factory zero value; determining whether the error between the field operation zero value and the factory zero value is within the zero drift specification; and calibrating the Coriolis flowmeter if the error is outside the zero drift specification. detecting a model of the Coriolis flowmeter; retrieving a factory zero value from the storage system, wherein the factory zero value was determined during an initial factory calibration; retrieving a stored zero drift specification from the storage system based on the model of Coriolis flowmeter detected; measuring a zero value during field operation of the Coriolis flowmeter; comparing the field operation zero value with the factory zero value; calculating an error between the field operation zero value and the factory zero value; determining whether the error between the field operation zero value and the factory zero value is within the zero drift specification; and calibrating the Coriolis flowmeter if the error is outside the zero drift specification.
A grease composition comprising: a base oil (A); and a urea-based thickener (B), wherein particles containing the urea-based thickener (B) in the grease composition satisfy the following requirement (I): ·Requirement (I): an arithmetic average particle diameter of the particles on an area basis as measured by a laser diffraction and scattering method is 2.0 pm or less, the base oil (A) is a mixed base oil containing a high-viscosity base oil (A1) having a kinematic viscosity at 40°C of 250 mm 2 /s to 550 mm 2 /s, a low-viscosity base oil (A2) having a kinematic viscosity at 40°C of 5.0 mm 2 /s to 110 mm 2 /s, and an ultra-high viscosity hydrocarbon-based synthetic oil (A3) having a number average molecular weight (Mn) of 2,500 to 4,500 and a kinematic viscosity at 40°C of 25,000 mm 2 /s to 50,000 mm 2 /s, the base oil (A) has a kinematic viscosity at 40°C of 25 mm 2 /s to 105 mm 2 /s, and the base oil (A) has a viscosity index of 120 or more. a base oil (A); and a urea-based thickener (B), wherein particles containing the urea-based thickener (B) in the grease composition satisfy the following requirement (I): ·Requirement (I): an arithmetic average particle diameter of the particles on an area basis as measured by a laser diffraction and scattering method is 2.0 pm or less, ·Requirement (I): an arithmetic average particle diameter of the particles on an area basis as measured by a laser diffraction and scattering method is 2.0 pm or less, the base oil (A) is a mixed base oil containing a high-viscosity base oil (A1) having a kinematic viscosity at 40°C of 250 mm 2 /s to 550 mm 2 /s, a low-viscosity base oil (A2) having a kinematic viscosity at 40°C of 5.0 mm 2 /s to 110 mm 2 /s, and an ultra-high viscosity hydrocarbon-based synthetic oil (A3) having a number average molecular weight (Mn) of 2,500 to 4,500 and a kinematic viscosity at 40°C of 25,000 mm 2 /s to 50,000 mm 2 /s, the base oil (A) has a kinematic viscosity at 40°C of 25 mm 2 /s to 105 mm 2 /s, and the base oil (A) has a viscosity index of 120 or more.
A method for producing a coated lithium-nickel composite oxide particle, comprising: preparing a solution of a resin for coating by dissolving a polymer or copolymer including at least one kind selected from the group consisting of a modified polyolefin resin, a polyester resin, a polyphenol resin, a polyurethane resin, an epoxy resin, a silane-modified polyether resin, a silane-modified polyester resin, a silane-modified polyphenol resin, a silane-modified polyurethane resin, a silane-modified epoxy resin, and a silane-modified polyamide resin in a good solvent dissolving the polymer or copolymer; adding a poor solvent not dissolving the polymer or copolymer and having an evaporation rate lower than that of the good solvent, into the solution of a resin for coating; adding a lithium-nickel composite oxide particle into the solution of a resin for coating to prepare a slurry; and removing the good solvent from the slurry and covering the lithium-nickel composite oxide particle with the polymer or copolymer. preparing a solution of a resin for coating by dissolving a polymer or copolymer including at least one kind selected from the group consisting of a modified polyolefin resin, a polyester resin, a polyphenol resin, a polyurethane resin, an epoxy resin, a silane-modified polyether resin, a silane-modified polyester resin, a silane-modified polyphenol resin, a silane-modified polyurethane resin, a silane-modified epoxy resin, and a silane-modified polyamide resin in a good solvent dissolving the polymer or copolymer; adding a poor solvent not dissolving the polymer or copolymer and having an evaporation rate lower than that of the good solvent, into the solution of a resin for coating; adding a lithium-nickel composite oxide particle into the solution of a resin for coating to prepare a slurry; and removing the good solvent from the slurry and covering the lithium-nickel composite oxide particle with the polymer or copolymer.
A separator for a zinc secondary battery, having a porous substrate layer and a titanium oxide-containing porous layer laminated onto the porous substrate layer, wherein the titanium oxide-containing porous layer comprises a titanium oxide represented by Ti x O y , where 0 < x, 0 < y, and y < 2x. having a porous substrate layer and a titanium oxide-containing porous layer laminated onto the porous substrate layer, wherein the titanium oxide-containing porous layer comprises a titanium oxide represented by Ti x O y , where 0 < x, 0 < y, and y < 2x.
A system, comprising: a storage unit that contains conversion information; a motion information acquisition unit configured to acquire motion information of an operator; a conversion unit configured to convert the acquired motion information into an operation signal to a moving object based on the conversion information; a signal transmission unit configured to transmit the operation signal to the moving object , an image information receipt unit configured to receive image information transmitted from the moving object ; a display unit configured to display the image information; and a position prediction unit configured to predict a position of the moving obj ect after a predetermined period of time based on the image information received by the image information receipt unit , wherein the conversion information includes human motion information, moving object movement information, and operation signal information for instructing the moving object in how to move, and the human motion information, the moving object movement information, and the operation signal information are associated with one another, wherein the display unit is configured to display the image information received by the image information receipt unit and the predicted position information obtained by the position prediction unit . a storage unit that contains conversion information; a motion information acquisition unit configured to acquire motion information of an operator; a conversion unit configured to convert the acquired motion information into an operation signal to a moving object based on the conversion information; a signal transmission unit configured to transmit the operation signal to the moving object , an image information receipt unit configured to receive image information transmitted from the moving object ; a display unit configured to display the image information; and a position prediction unit configured to predict a position of the moving obj ect after a predetermined period of time based on the image information received by the image information receipt unit , wherein the conversion information includes human motion information, moving object movement information, and operation signal information for instructing the moving object in how to move, and the human motion information, the moving object movement information, and the operation signal information are associated with one another, wherein the display unit is configured to display the image information received by the image information receipt unit and the predicted position information obtained by the position prediction unit .
A method of conducting a public land mobile network, PLMN, search for a plurality of radio access technologies, RATs, on a mobile communication device comprising: profiling a frequency space to identify one or more frequency bands that are likely to be utilized by the plurality of RATs wherein profiling comprises obtaining, for a plurality of narrow frequency bands in the frequency space , received signal strength values; and identifying the one or more frequency bands, wherein each identified frequency band comprises a plurality of consecutive narrow frequency bands with received signal strength values above a threshold; determining , according to a priority ordering of the plurality of RATs, a RAT that utilizes each frequency band identified during the profiling, wherein determining comprises selecting each RAT according to the priority ordering and verifying whether each of the identified frequency bands carries a signal for the selected RAT, wherein the priority ordering is based on a size of a frequency bandwidth of each RAT of the plurality of RATs ; adding , for each RAT in the plurality of RATs, the identified frequency bands utilized by each RAT to exclude lists associated with the other RATs of the plurality of RATs; and conducting a PLMN search for each RAT in the plurality of RATs utilizing the exclude lists associated with each RAT. profiling a frequency space to identify one or more frequency bands that are likely to be utilized by the plurality of RATs wherein profiling comprises obtaining, for a plurality of narrow frequency bands in the frequency space , received signal strength values; and identifying the one or more frequency bands, wherein each identified frequency band comprises a plurality of consecutive narrow frequency bands with received signal strength values above a threshold; determining , according to a priority ordering of the plurality of RATs, a RAT that utilizes each frequency band identified during the profiling, wherein determining comprises selecting each RAT according to the priority ordering and verifying whether each of the identified frequency bands carries a signal for the selected RAT, wherein the priority ordering is based on a size of a frequency bandwidth of each RAT of the plurality of RATs ; adding , for each RAT in the plurality of RATs, the identified frequency bands utilized by each RAT to exclude lists associated with the other RATs of the plurality of RATs; and conducting a PLMN search for each RAT in the plurality of RATs utilizing the exclude lists associated with each RAT.
A balloon imaging catheter for obtaining data for at least one portion within at least one luminal or hollow sample, comprising: an inner core configured to transceive at least one electromagnetic radiation to and from the at least one portion; an optically transparent sheath at least partially enclosing the inner core; focusing optics provided at a distal end of the inner core and configured to focus and direct the at least one electromagnetic radiation to the at least one portion; and an inflatable balloon which is configured to be actuated so as to center the inner core within the at least one luminal or hollow sample, the inflatable balloon surrounding the optically transparent sheath, wherein the focusing optics include a prism to reflect a beam of the electromagnetic radiation from the distal end of the inner core by approximately 90 degrees to direct the at least one electromagnetic radiation through the inflatable balloon to the at least one portion, characterized in that the focusing optics (140, 840, 850 950 970, 1060) are configured to compensate for at least one aberration caused by the optically transparent sheath when the inflatable balloon is inflated. an inner core configured to transceive at least one electromagnetic radiation to and from the at least one portion; an optically transparent sheath at least partially enclosing the inner core; focusing optics provided at a distal end of the inner core and configured to focus and direct the at least one electromagnetic radiation to the at least one portion; and an inflatable balloon which is configured to be actuated so as to center the inner core within the at least one luminal or hollow sample, the inflatable balloon surrounding the optically transparent sheath, wherein the focusing optics include a prism to reflect a beam of the electromagnetic radiation from the distal end of the inner core by approximately 90 degrees to direct the at least one electromagnetic radiation through the inflatable balloon to the at least one portion, characterized in that the focusing optics (140, 840, 850 950 970, 1060) are configured to compensate for at least one aberration caused by the optically transparent sheath when the inflatable balloon is inflated.
An interlayer filling material for a touch panel used for filling an interlayer space between a touch panel and another component, or at least one of interlayer spaces included in the touch panel between transparent conductive films, between a glass sheet and one of the transparent conductive films, between a glass sheet and another glass sheet, between a glass sheet and a polarizing film , between a substrate and a glass sheet, between a substrate and one of the transparent conductive films, and between a substrate and a polarizing film , the interlayer filling material comprising: a polyvinyl acetal; and a plasticizer, the interlayer filling material having a residual stress kPa (25°C, 2 min) after two minutes at 25°C as measured in conformity with JIS K 6263:2004 of 300 kPa or less, characterized by further comprising a reactive diluent and a photopolymerization initiator.