mhurhangee/ep-ind-claims huggingface dataset:
A method for a delivery person to access a recipient's secure delivery box, the recipient being the owner of the box, to place and secure a package in the box, comprising: the delivery person pre-registers a smartphone or other NFC device as a registered user device for each of a plurality of secure delivery boxes of the owners of such delivery boxes who are potential delivery customers, the delivery person carries a package to a particular customer recipient's secure delivery box, the delivery person holds the smartphone close to the recipient's secure delivery box whereby the smartphone enters into two way communication with an electronic lock of the recipient's secure delivery box, which causes the smartphone to obtain and store the lock's ID information, whereby the smartphone, (a) if this delivery has been pre-authorized by the customer recipient, sends a signal to the electronic lock to open the lock for access to the secure delivery box, and (b) if the delivery has not been pre-authorized, sends an electronic request to the owner or agent of the lock, in the case of (b), the delivery person's smartphone obtains an electronic response from the owner or agent of the lock which grants or denies access to open the lock, and if the response is to grant access, the delivery person's smartphone sends a signal to open the lock for access to the secure delivery box, and the delivery person opens the secure delivery box, places the package in the box and re-secures the box. the delivery person pre-registers a smartphone or other NFC device as a registered user device for each of a plurality of secure delivery boxes of the owners of such delivery boxes who are potential delivery customers, the delivery person carries a package to a particular customer recipient's secure delivery box, the delivery person holds the smartphone close to the recipient's secure delivery box whereby the smartphone enters into two way communication with an electronic lock of the recipient's secure delivery box, which causes the smartphone to obtain and store the lock's ID information, whereby the smartphone, (a) if this delivery has been pre-authorized by the customer recipient, sends a signal to the electronic lock to open the lock for access to the secure delivery box, and (b) if the delivery has not been pre-authorized, sends an electronic request to the owner or agent of the lock, in the case of (b), the delivery person's smartphone obtains an electronic response from the owner or agent of the lock which grants or denies access to open the lock, and if the response is to grant access, the delivery person's smartphone sends a signal to open the lock for access to the secure delivery box, and the delivery person opens the secure delivery box, places the package in the box and re-secures the box.
Transparent plate laminate, comprising - at least one transparent plate (a) of lithium glass ceramic having a thickness in the range from 2 to 20 mm and a composition containing, expressed in wt. % based on the total composition - Li 2 O 3,0 - 4,5 - Al 2 O 3 18,0 - 24,0 - SiO 2 55,0 - 70,0 - TiO 2 0,01 - 2,3 - ZrO 2 0,01 - 2,0 - ΣTiO 2 + ZrO 2 0,5 - 4,3 - SnO 2 0 - 0,2 - MgO 0 - 0,8 - Fe 2 O 3 40 - 200 ppm and - As 2 O 3 0,3 - 0,9 wt.-% as chemical refining agent. - optionally at least a plate (b) selected from the group consisting of borosilicate glass, soda lime glass, aluminosilicate glass or chemically or thermally prestressed borosilicate glass, aluminosilicate glass or soda lime glass, the plate (b) having a thickness in the range from 3 to 20 mm, and - at least one plate (c) selected from the group consisting of polycarbonate, polyacrylate, particularly poly(methyl methacrylate), cellulose acetate butyrate, nylon, polyolefin, polyester, polyurethane and mixtures thereof, the plate (c) having a thickness in the range from 3 to 15 mm. - at least one transparent plate (a) of lithium glass ceramic having a thickness in the range from 2 to 20 mm and a composition containing, expressed in wt. % based on the total composition - Li 2 O 3,0 - 4,5 - Al 2 O 3 18,0 - 24,0 - SiO 2 55,0 - 70,0 - TiO 2 0,01 - 2,3 - ZrO 2 0,01 - 2,0 - ΣTiO 2 + ZrO 2 0,5 - 4,3 - SnO 2 0 - 0,2 - MgO 0 - 0,8 - Fe 2 O 3 40 - 200 ppm and - As 2 O 3 0,3 - 0,9 wt.-% as chemical refining agent. - Li 2 O 3,0 - 4,5 - Al 2 O 3 18,0 - 24,0 - SiO 2 55,0 - 70,0 - TiO 2 0,01 - 2,3 - ZrO 2 0,01 - 2,0 - ΣTiO 2 + ZrO 2 0,5 - 4,3 - SnO 2 0 - 0,2 - MgO 0 - 0,8 - Fe 2 O 3 40 - 200 ppm and - As 2 O 3 0,3 - 0,9 wt.-% as chemical refining agent. - optionally at least a plate (b) selected from the group consisting of borosilicate glass, soda lime glass, aluminosilicate glass or chemically or thermally prestressed borosilicate glass, aluminosilicate glass or soda lime glass, the plate (b) having a thickness in the range from 3 to 20 mm, and - at least one plate (c) selected from the group consisting of polycarbonate, polyacrylate, particularly poly(methyl methacrylate), cellulose acetate butyrate, nylon, polyolefin, polyester, polyurethane and mixtures thereof, the plate (c) having a thickness in the range from 3 to 15 mm.
A primary communication device having a communication initiative through a bus, the primary communication device comprising: communication circuitry configured to communicate with a plurality of secondary communication devices wherein the plurality of secondary communication devices are configured to perform communication under control of the primary communication device; and control circuitry configured to receive a mastership request from a respective secondary communication device, characterized in that the control circuit is further configured to: determine whether the respective secondary communication device has a capability relating a group address, and cause the primary communication device to inform the respective secondary communication device of an assigned group address information. communication circuitry configured to communicate with a plurality of secondary communication devices wherein the plurality of secondary communication devices are configured to perform communication under control of the primary communication device; and control circuitry configured to receive a mastership request from a respective secondary communication device, characterized in that the control circuit is further configured to: determine whether the respective secondary communication device has a capability relating a group address, and cause the primary communication device to inform the respective secondary communication device of an assigned group address information. determine whether the respective secondary communication device has a capability relating a group address, and cause the primary communication device to inform the respective secondary communication device of an assigned group address information.
An Internet protocol Television, IPTV, service quality detection method, wherein the method comprises: monitoring, by a first network device, a quality of service, QoS, parameter of at least one data packet flow that carries a video source identifier, wherein the video source identifier is used to identify an IPTV video source; generating, by the first network device, a detection request message when determining that the QoS parameter exceeds a preset threshold, wherein the detection request message comprises a video source identifier carried in a data packet flow whose QoS parameter deteriorates; and sending the detection request message, by the first network device, to a second network device, to request the second network device to perform QoS parameter detection on the data packet flow that carries the video source identifier comprised in the detection request message; wherein the detection request message further comprises a detection step and detection duration, the detection step indicates a time interval between two consecutive QoS parameter collections in a plurality of QoS parameter collections, and the detection duration indicates a time length value of the plurality of QoS parameter collections. monitoring, by a first network device, a quality of service, QoS, parameter of at least one data packet flow that carries a video source identifier, wherein the video source identifier is used to identify an IPTV video source; generating, by the first network device, a detection request message when determining that the QoS parameter exceeds a preset threshold, wherein the detection request message comprises a video source identifier carried in a data packet flow whose QoS parameter deteriorates; and sending the detection request message, by the first network device, to a second network device, to request the second network device to perform QoS parameter detection on the data packet flow that carries the video source identifier comprised in the detection request message; wherein the detection request message further comprises a detection step and detection duration, the detection step indicates a time interval between two consecutive QoS parameter collections in a plurality of QoS parameter collections, and the detection duration indicates a time length value of the plurality of QoS parameter collections.
Use of a composition comprising 2-propanol and ethyl acetate for treating substrates comprising patterns having line-space dimensions of 50 nm or below and aspect ratios of 4 and more, characterized in that 2-propanol and ethyl acetate are present in an amount from 8 % by weight below to 8 % by weight above the azeotropic mixture.
An ink jet recording ink tank (1; 21) comprising: an ink retention member (6; 26), which to hold ink exerts a negative pressure through capillary force; and ink, which is retained in the ink retention member (6; 26), for which a dynamic surface tension in a lifetime of 50 msec, obtained by a maximum bubble pressure method, is higher than an interfacial tension of the ink retention member (6; 26), a dynamic surface tension in a lifetime of 5000 msec is lower than the interfacial tension of the ink retention member (6; 26), and a difference between the dynamic surface tension in the lifetime of 50 msec and the dynamic surface tension in the lifetime of 5000 msec is equal to or greater than 8 mN/m. an ink retention member (6; 26), which to hold ink exerts a negative pressure through capillary force; and ink, which is retained in the ink retention member (6; 26), for which a dynamic surface tension in a lifetime of 50 msec, obtained by a maximum bubble pressure method, is higher than an interfacial tension of the ink retention member (6; 26), a dynamic surface tension in a lifetime of 5000 msec is lower than the interfacial tension of the ink retention member (6; 26), and a difference between the dynamic surface tension in the lifetime of 50 msec and the dynamic surface tension in the lifetime of 5000 msec is equal to or greater than 8 mN/m.
Use of a working medium containing hydrofluoroolefin as a working medium in a heat cycle system, the heat cycle system comprising: a compressor; a high-pressure side heat exchanger; a low-pressure side heat exchanger; an expansion mechanism; and an acid detection means detecting acid generated by decomposition of the working medium, the acid detection means being provided in a discharge pipe connecting the compressor and the high-pressure side heat exchanger, wherein the acid detection means comprises a sight glass having an observation window to observe the working medium passing inside the discharge pipe, wherein the observation window has a double structure of glass and an acid-resistant transparent member, and wherein, in the observation window, at least a surface on a side to be in contact with the working medium is formed of the glass and a surface on an opposite side to the side to be in contact with the working medium is formed of the acid-resistant transparent member. a compressor; a high-pressure side heat exchanger; a low-pressure side heat exchanger; an expansion mechanism; and an acid detection means detecting acid generated by decomposition of the working medium, the acid detection means being provided in a discharge pipe connecting the compressor and the high-pressure side heat exchanger, wherein the acid detection means comprises a sight glass having an observation window to observe the working medium passing inside the discharge pipe, wherein the observation window has a double structure of glass and an acid-resistant transparent member, and wherein, in the observation window, at least a surface on a side to be in contact with the working medium is formed of the glass and a surface on an opposite side to the side to be in contact with the working medium is formed of the acid-resistant transparent member.
A method of preparing highly stable microcapsule powders or microparticles containing a fat-soluble nutrient having multiple double bonds, comprising the following steps: a) dissolving a fat-soluble nutrient having multiple unsaturated double bonds to prepare an oil phase; b) dissolving a part of a capsule shell material into water to prepare an aqueous phase; c) shearing the aqueous phase and the oil phase, and mixing and emulsifying the same to obtain an emulsion; d) homogenizing the emulsion by a standard high-pressure homogenizer, to make the emulsion obtain droplets in the emulsion with an average particle diameter at a nanometer level, thereby producing a nanometer scale emulsion; wherein in the process of high pressure homogenization of step d), a temperature of the emulsion after homogenizing is increased no more than 10°C relative to a temperature of pre-homogenizing, a homogenization pressure is in a range of 10 MPa ~40 MPa; e) directly adding a remaining part of the capsule shell material into the homogenized nanometer scale emulsion, and shearing, mixing and dissolving the same to obtain a twice-embedded emulsion; and f) performing spray granulation on the twice-embedded emulsion, and drying resultant granules to obtain highly stable microcapsule powders or microparticles; wherein the capsule shell material of step b) and the remaining part of the capsule shell material of step e) are the same material, and are modified starch, gelatin, gum Arabic, or sodium caseinate. a) dissolving a fat-soluble nutrient having multiple unsaturated double bonds to prepare an oil phase; b) dissolving a part of a capsule shell material into water to prepare an aqueous phase; c) shearing the aqueous phase and the oil phase, and mixing and emulsifying the same to obtain an emulsion; d) homogenizing the emulsion by a standard high-pressure homogenizer, to make the emulsion obtain droplets in the emulsion with an average particle diameter at a nanometer level, thereby producing a nanometer scale emulsion; wherein in the process of high pressure homogenization of step d), a temperature of the emulsion after homogenizing is increased no more than 10°C relative to a temperature of pre-homogenizing, a homogenization pressure is in a range of 10 MPa ~40 MPa; e) directly adding a remaining part of the capsule shell material into the homogenized nanometer scale emulsion, and shearing, mixing and dissolving the same to obtain a twice-embedded emulsion; and f) performing spray granulation on the twice-embedded emulsion, and drying resultant granules to obtain highly stable microcapsule powders or microparticles;
A composition comprising at least one source of copper and at least one additive obtainable by reacting a) a polyhydric alcohol comprising at least 5 hydroxyl functional groups with b) at least a first alkylene oxide and a second alkylene oxide from a mixture of the first alkylene oxide and the second alkylene oxide to form random copolymers of the ethylene oxide and the further C3 to C4 alkylene oxide. a) a polyhydric alcohol comprising at least 5 hydroxyl functional groups with b) at least a first alkylene oxide and a second alkylene oxide from a mixture of the first alkylene oxide and the second alkylene oxide
A blasting system for blasting an object to be blasted, comprising: a pressure vessel for blasting inside thereof; a combustion furnace receiving an off-gas generated in the pressure vessel by the blasting and burning at least a combustible component contained in the off-gas; a reservoir section storing the off-gas after the burning by the combustion furnace; and an off-gas returning section (6: 6A, 6B) for returning the off-gas stored in the reservoir section to at least one of the pressure vessel and the combustion furnace; wherein the reservoir section includes a reservoir tank having an inlet and an outlet for the off-gas; and characterised in that: the reservoir section includes a flow-path formation member forming a flow path to make a flow of the off-gas in sequence along a predetermined zigzag path from the inlet up to the outlet within the reservoir tank. a pressure vessel for blasting inside thereof; a combustion furnace receiving an off-gas generated in the pressure vessel by the blasting and burning at least a combustible component contained in the off-gas; a reservoir section storing the off-gas after the burning by the combustion furnace; and an off-gas returning section (6: 6A, 6B) for returning the off-gas stored in the reservoir section to at least one of the pressure vessel and the combustion furnace; wherein the reservoir section includes a reservoir tank having an inlet and an outlet for the off-gas; and characterised in that: the reservoir section includes a flow-path formation member forming a flow path to make a flow of the off-gas in sequence along a predetermined zigzag path from the inlet up to the outlet within the reservoir tank. the reservoir section includes a flow-path formation member forming a flow path to make a flow of the off-gas in sequence along a predetermined zigzag path from the inlet up to the outlet within the reservoir tank.
A wind turbine blade comprising - a profiled contour with a leading edge and a trailing edge and a chord extending between the leading edge and the trailing edge, - a blade shell with a pressure side and a suction side, - a first main spar cap integrated in the pressure side of the blade shell, - a second main spar cap integrated in the suction side of the blade shell, and - one or more shear webs (74, 76) connected between the first main spar cap and the second main spar cap, wherein the blade shell comprises at least a first load carrying structure comprising one or more unidirectional fibre layers and being arranged at the leading edge, wherein the first load carrying structure has a first extension including a first primary extension (E 1,1) on a first side of the chord, characterized in that the first primary extension is at least 70 % of the first extension. - a profiled contour with a leading edge and a trailing edge and a chord extending between the leading edge and the trailing edge, - a blade shell with a pressure side and a suction side, - a first main spar cap integrated in the pressure side of the blade shell, - a second main spar cap integrated in the suction side of the blade shell, and - one or more shear webs (74, 76) connected between the first main spar cap and the second main spar cap,
A composition having one or more of the following properties: a time to peak heat release of more than 150 seconds, as measured by FAR 25.853 (OSU test); a peak heat release less than or equal to 35 kW/m2 as measured by FAR 25.853 (OSU test); an NBS (National Bureau of Standards) optical smoke density with flame of less than 5 when measured at four minutes, based on ASTM E-662 (FAR/JAR 25.853); and a toxic gas release of less than or equal to 100 ppm based on Draeger Tube Toxicity test (Airbus ABD0031, Boeing BSS 7239); the composition comprising: (a) from 15 to 85 percent by weight of a polyetherimide, (b) from 15 to 85 percent by weight of a polyphenylsulfone (PPSU), (c) a polyetherimide-siloxane copolymer present in an amount up to 12 percent by weight, and (d) from 0 to 0.30 percent by weight of a stabilizer, wherein an article made from the composition exhibits one or more of the following properties: a time to peak heat release of more than 150 seconds, as measured by FAR 25.853 (OSU test); a peak heat release less than or equal to 35 kW/m 2 as measured by FAR 25.853 (OSU test); an NBS (National Bureau of Standards) optical smoke density with flame of less than 5 when measured at four minutes, based on ASTM E-662 (FAR/JAR 25.853); and a toxic gas release of less than or equal to 100 ppm based on Draeger Tube Toxicity test (Airbus ABD0031, Boeing BSS 7239). (a) from 15 to 85 percent by weight of a polyetherimide, (b) from 15 to 85 percent by weight of a polyphenylsulfone (PPSU), (c) a polyetherimide-siloxane copolymer present in an amount up to 12 percent by weight, and (d) from 0 to 0.30 percent by weight of a stabilizer, a time to peak heat release of more than 150 seconds, as measured by FAR 25.853 (OSU test); a peak heat release less than or equal to 35 kW/m 2 as measured by FAR 25.853 (OSU test); an NBS (National Bureau of Standards) optical smoke density with flame of less than 5 when measured at four minutes, based on ASTM E-662 (FAR/JAR 25.853); and a toxic gas release of less than or equal to 100 ppm based on Draeger Tube Toxicity test (Airbus ABD0031, Boeing BSS 7239).
A remote annunciator, comprising: - an enclosure; and - a control within the enclosure, wherein the control is configured - to receive signals from a plurality of transfer switches (13A - 13D) and at least one generator that is connected to at least one of the transfer switches (13A - 13D), - to display a status of electrical connections that include the plurality of transfer switches (13A -13D) and the at least one generator, characterized in that the control is further configured - to send out signals to the plurality of transfer switches (13A -13D) and the at least one generator via a connection in order to determine a status of the plurality of transfer switches (13A - 13D) and the at least one generator. - an enclosure; and - a control within the enclosure, wherein the control is configured - to receive signals from a plurality of transfer switches (13A - 13D) and at least one generator that is connected to at least one of the transfer switches (13A - 13D), - to display a status of electrical connections that include the plurality of transfer switches (13A -13D) and the at least one generator, characterized in that the control is further configured - to send out signals to the plurality of transfer switches (13A -13D) and the at least one generator via a connection in order to determine a status of the plurality of transfer switches (13A - 13D) and the at least one generator. - to receive signals from a plurality of transfer switches (13A - 13D) and at least one generator that is connected to at least one of the transfer switches (13A - 13D), - to display a status of electrical connections that include the plurality of transfer switches (13A -13D) and the at least one generator, characterized in that the control is further configured - to send out signals to the plurality of transfer switches (13A -13D) and the at least one generator via a connection in order to determine a status of the plurality of transfer switches (13A - 13D) and the at least one generator.
Control device for an electrical load, which device is designed to interact with a first control circuit having an operating unit and a locking device for locking the position of the first control circuit, characterized in that the control device has at least one sensor, which is integral with the locking device, positioned so as to be actuated by the operating unit during operation of the operating unit when the locking device is in the locked position, and designed to activate a communication transmitter.