mhurhangee/patent-ind-claim-en huggingface dataset:
An adaptor capable of connecting an inlet port of a grease injection gun to a larger threaded outlet at the discharge end of a threaded grease cartridge and to a larger outer lip at the discharge end of a lipped grease cartridge, the adaptor comprising:- a tubular sleeve having an internal diameter which is slightly larger than the external diameter of the grease cartridges but smaller than the lip of a lipped cartridge , wherein one end of the tubular sleeve includes an externally threaded portion ; and an adaptor head having a recess and a base which are shaped and dimensioned to form a closure over the tubular sleeve; wherein the recess has an internally thread located on the inner face thereof to provide a releasable screw threaded connection to the externally threaded portion of the tubular sleeve ; wherein a further recess is concentrically located within the base and has an internal thread to provide a releasable screw threaded connection to a threaded outlet at the discharge end of a threaded grease cartridge ; and wherein the base has a flow passage extending there through to terminate in an outlet pipe receivable in the inlet port of the injection gun. a tubular sleeve having an internal diameter which is slightly larger than the external diameter of the grease cartridges but smaller than the lip of a lipped cartridge , wherein one end of the tubular sleeve includes an externally threaded portion ; and an adaptor head having a recess and a base which are shaped and dimensioned to form a closure over the tubular sleeve; wherein the recess has an internally thread located on the inner face thereof to provide a releasable screw threaded connection to the externally threaded portion of the tubular sleeve ; wherein a further recess is concentrically located within the base and has an internal thread to provide a releasable screw threaded connection to a threaded outlet at the discharge end of a threaded grease cartridge ; and wherein the base has a flow passage extending there through to terminate in an outlet pipe receivable in the inlet port of the injection gun. wherein the recess has an internally thread located on the inner face thereof to provide a releasable screw threaded connection to the externally threaded portion of the tubular sleeve ; wherein a further recess is concentrically located within the base and has an internal thread to provide a releasable screw threaded connection to a threaded outlet at the discharge end of a threaded grease cartridge ; and wherein the base has a flow passage extending there through to terminate in an outlet pipe receivable in the inlet port of the injection gun.
Method for completing a stack of sheets in an output holder attached to a printing device , the output holder configured to hold the stack of sheets printed upon by the printing device according to a plurality of print jobs (231-237) submitted to the printing device , the printing device comprising a user interface and a print controller for controlling the receiving of the plurality of print jobs in a print job queue and the printing of the plurality of print jobs (231-237) according to the print job queue , the method comprising the steps of - the print controller receiving a trigger comprising information for a completion of the stack, - retrieving a stack summary of print jobs contained in the printed stack from memory of the printing device, - creating a summary job comprising the stack summary, and - printing the summary job on at least one stack trailer sheet on top of the stack, characterized in that the method comprises the step of in case the stack intended to be completed comprises a part of a specific print job, indicating in the summary which part of the specific print job is present in the stack intended to be completed, and either the step of receiving the trigger comprises receiving the trigger from a local user interface being part of the output holder or the user interface is configured to display a user operable item for completing the stack from the output holder and the step of receiving the trigger comprises the sub-step of activating the user operable item. - the print controller receiving a trigger comprising information for a completion of the stack, - retrieving a stack summary of print jobs contained in the printed stack from memory of the printing device, - creating a summary job comprising the stack summary, and - printing the summary job on at least one stack trailer sheet on top of the stack,
A mesogenic silicon compound (co)polymer represented by the general formula and having a number average molecular weight of 1,000 to 500,000, as measured by gel permeation chromatography using tetrahydrofuran as developing solvent versus polystyrene standards, wherein Ar is a mesogenic group selected from the following structures: a is a positive number of 0.5 to 1, b is a number of 0 to 0.5, where a and b represent the number proportion of the respective repeating units in the sum of all repeating units in the molecule, and a+b=1, R 1 independently are C 1 -C 8 monovalent hydrocarbon groups free of aliphatic unsaturation, and R 2 independently are hydrogen, -Si(CH 3 ) 3 , -Si(CH 3 ) 2 (OH), -Si(CH 3 ) 2 (CH=CH 2 ) or -Si(CH 3 ) 2 (CH 2 -CH=CH 2 ).
Apparatus for inspecting a material provided with a coated surface, preferably glass, with a light source disposed above the surface, which emits light in a predetermined wavelength range in the direction of the surface, and a first camera (11, 11', 11", 14'), wherein the first camera (11, 11', 11", 14') is configured to determine a color value of the detected light, wherein the first camera (11, 11', 11", 14') is disposed above an inspection line located on the surface inclined to the light source in such a way that it sees the specular reflection of the light emitted by the light source from the coated surface in the region of the inspection line, and has a first aperture angle in such a way, that light of the light source reflected from a first point of the inspection line is separately detectable at a first viewing angle and from a second point of the inspection line spaced from the first point is separately detectable at a second viewing angle, wherein the first viewing angle and the second viewing angle are different, wherein the first camera (11, 11', 11", 14') is configured such that it determines a first color value of the light reflected from the first point and a second color value of the light reflected from the second point, wherein an evaluation device connected to the first camera (11, 11', 11", 14') is provided, which is configured to compare the first color value and the second color value in each case with a specific, predetermined color setpoint value or with a specific, predetermined color setpoint value range or to compare a difference of the first color value and the second color value with a specific, predetermined color value difference setpoint value or with a specific, predetermined color value difference setpoint value range, predetermined color value difference setpoint value or with a specific, predetermined color value difference setpoint value range, wherein the at least one second camera being provided, the second camera likewise is configured to determine a color value of the detected light, wherein the second camera is disposed above the inspection line located on the surface and inclined to the light source, wherein the second camera has a second aperture angle such that light of the light source reflected from each point of the inspection line is detectable, preferably simultaneously, by the first camera (11, 11', 11", 14') and by the second camera , wherein the first camera (11, 11', 11", 14') and the second camera are configured such that they each determine the color value of the light reflected from each point of the inspection line, wherein the evaluation device connected to the first camera and the second camera is configured such that it uses the color values of the first camera and of the second camera at each point of the inspection line for a comparison with the specific, predetermined color setpoint or the specific, predetermined color setpoint range, the evaluation device is further configured such that it evaluates the color value of the reflected light from different points of the inspection line additionally as a function of their associated viewing angle.
A packaging box, comprising: a box body provided with an opening; an adjusting block disposed inside the box body ; and a top cover for fitting with the adjusting block to seal the opening, wherein the top cover is foldable and is connected with one side wall of the box body ; wherein the inner face of the top cover comprises a first section and a second section, the first section being provided with a protruding block , the second section being not provided with the protruding block ; characterized in that the protruding block is a replaceable protruding block and in that the adjusting block and the replaceable protruding block are fitted with each other such that the second section which is not provided with the protruding block is fitted with the top surface of the adjusting block . a box body provided with an opening; an adjusting block disposed inside the box body ; and a top cover for fitting with the adjusting block to seal the opening, wherein the top cover is foldable and is connected with one side wall of the box body ; wherein the inner face of the top cover comprises a first section and a second section, the first section being provided with a protruding block , the second section being not provided with the protruding block ; characterized in that the protruding block is a replaceable protruding block and in that the adjusting block and the replaceable protruding block are fitted with each other such that the second section which is not provided with the protruding block is fitted with the top surface of the adjusting block .
A method by a master network node for measurement gap configuration in a wireless device, the method comprising: establishing a connection with a wireless device operating in dual connectivity with the master network node and a secondary network node , the master network node operating on a New Radio, NR, wireless network and the secondary network node operating on a Long-Term Evolution, LTE, network, wherein the measurement gap configuration is to be configured on a per frequency basis for at least a first frequency and a second frequency on the NR wireless network, and wherein the measurement gap configuration is to be configured on a per frequency basis for the first frequency on the LTE network; configuring, by the master network node , the wireless device with at least one measurement gap for the second frequency when the master network node configures a measurement that requires the at least one measurement gap for the second frequency; configuring, by the master network node, the wireless device with at least one measurement gap for the first frequency when the master network node is first to configure a measurement that requires the at least one measurement gap for the first frequency before the secondary network node; and receiving, from the secondary network node, a configuration of the at least one measurement gap for the first frequency when the secondary network node is first to configure the measurement that requires the at least one measurement gap for the first frequency before the master network node. establishing a connection with a wireless device operating in dual connectivity with the master network node and a secondary network node , the master network node operating on a New Radio, NR, wireless network and the secondary network node operating on a Long-Term Evolution, LTE, network, wherein the measurement gap configuration is to be configured on a per frequency basis for at least a first frequency and a second frequency on the NR wireless network, and wherein the measurement gap configuration is to be configured on a per frequency basis for the first frequency on the LTE network; configuring, by the master network node , the wireless device with at least one measurement gap for the second frequency when the master network node configures a measurement that requires the at least one measurement gap for the second frequency; configuring, by the master network node, the wireless device with at least one measurement gap for the first frequency when the master network node is first to configure a measurement that requires the at least one measurement gap for the first frequency before the secondary network node; and receiving, from the secondary network node, a configuration of the at least one measurement gap for the first frequency when the secondary network node is first to configure the measurement that requires the at least one measurement gap for the first frequency before the master network node.
A device for fractionation and concentration of particles from a fluid sample, the device comprising: a cartridge containing an inlet port and an outlet port and having staged filters having porous surfaces in series of decreasing pore size for capture of particles from a fluid sample, wherein the filters are separated by a small interstitial space to create a plurality of internal volume chambers adjacent each porous surface; a pressure source in fluid communication with the cartridge , wherein a differential pressure is produced between the inlet and the outlet ports ; the device being characterised by a foam injection port at one end of the plurality of internal volume chambers and a retentate port at each opposite end of the plurality of internal volume chambers; wherein the device is configured such that particles can be captured from the fluid sample into separate size fractions and then eluted from the porous surfaces by foam injected by the foam injection port and collected through the retentate port , and dispensed in a reduced fluid volume. a cartridge containing an inlet port and an outlet port and having staged filters having porous surfaces in series of decreasing pore size for capture of particles from a fluid sample, wherein the filters are separated by a small interstitial space to create a plurality of internal volume chambers adjacent each porous surface; a pressure source in fluid communication with the cartridge , wherein a differential pressure is produced between the inlet and the outlet ports ; the device being characterised by a foam injection port at one end of the plurality of internal volume chambers and a retentate port at each opposite end of the plurality of internal volume chambers; wherein the device is configured such that particles can be captured from the fluid sample into separate size fractions and then eluted from the porous surfaces by foam injected by the foam injection port and collected through the retentate port , and dispensed in a reduced fluid volume.
Telescopic column comprising at least two telescopically displaceable rectangular hollow profiles, where an inner profile is surrounded by at least one outer profile that is composed of four profile sections , characterised in that two opposite first profile sections are provided at both of their longitudinal edges with a longitudinal ridge and with a directly adjacent longitudinal groove , the angle between the longitudinal ridge and the longitudinal groove , respectively, and the lateral surface of the first profile section being less than 90 degrees, and in that two opposite second profile sections are angled at both of their longitudinal edges towards the first profile sections and are provided at the end of their angled portion with a longitudinal groove receiving the longitudinal ridge of the adjacent profile section and with a longitudinal ridge received in the longitudinal groove of the first profile section .
An apparatus for pumping a fluid, comprising : a pump for pumping the fluid, the pump having a longitudinal axis; a pneumatically actuated valve fluidly connected to an inlet of the pump ; and a pneumatic line made of a fusible material and connected to the pneumatic valve for supplying actuation pneumatic fluid to the pneumatic valve the pneumatic line passes along the longitudinal axis of the pump wherein the pneumatic line is composed of different segments , , connected together with connecting pieces , , the connecting pieces , are cross fittings; the pneumatic line branches into at least one secondary pneumatic line , made of a fusible material, the at least one secondary pneumatic line , passes at least once around the pump longitudinal axis, and wherein the at least one secondary line , is composed of multiple segments. a pump for pumping the fluid, the pump having a longitudinal axis; a pneumatically actuated valve fluidly connected to an inlet of the pump ; and a pneumatic line made of a fusible material and connected to the pneumatic valve for supplying actuation pneumatic fluid to the pneumatic valve the pneumatic line passes along the longitudinal axis of the pump wherein the pneumatic line is composed of different segments , , connected together with connecting pieces , , the connecting pieces , are cross fittings; the pneumatic line branches into at least one secondary pneumatic line , made of a fusible material, the at least one secondary pneumatic line , passes at least once around the pump longitudinal axis, and wherein the at least one secondary line , is composed of multiple segments.
An optical fiber cable being a ribbon slotted-core cable, having a cross-sectional area of Ac [mm 2 ], and housing a number N of optical fibers, each of the optical fibers comprising: a core having a diameter in a range from 10 to 13 μm; and a cladding surrounding the core and having a refractive index that is smaller than a refractive index of the core, a relative refractive index difference of the core with respect to the cladding being in a range from 0.30 to 0.35, and having at the wavelength of 1550 nm: a transmission loss is 0.18 dB/km or less; an effective area in a range from 100 to 125 μm 2 ; and a wavelength dispersion in a range from 19 to 22 ps/nm/km, wherein a value obtained by dividing a sectional area of a single slot by a number of cores of the optical fibers housed in the single slot is in a range from 0.12 to 0.16 mm 2 /core, and wherein the transmission loss α dB [dB/km], a mode field diameter W [μm], the effective area Aeff [μm 2 ], an effective length L eff [km], and the wavelength dispersion D [ps/nm/km] of each of the optical fibers at a wavelength of 1550 nm satisfy Equation , log 2 1 + 65.9 ⋅ exp 200 ⋅ α dB + 0.02 4.343 ⋅ 20 × W W 2 + 104 − 4 ⋅ A eff − 2 L eff D − 1 ⋅ asinh 629 ⋅ D L eff − 1 3 × N A C ≥ 0.008 × N + 1.7 . a core having a diameter in a range from 10 to 13 μm; and a cladding surrounding the core and having a refractive index that is smaller than a refractive index of the core, a relative refractive index difference of the core with respect to the cladding being in a range from 0.30 to 0.35, and having at the wavelength of 1550 nm: a transmission loss is 0.18 dB/km or less; an effective area in a range from 100 to 125 μm 2 ; and a wavelength dispersion in a range from 19 to 22 ps/nm/km, wherein a value obtained by dividing a sectional area of a single slot by a number of cores of the optical fibers housed in the single slot is in a range from 0.12 to 0.16 mm 2 /core, and wherein the transmission loss α dB [dB/km], a mode field diameter W [μm], the effective area Aeff [μm 2 ], an effective length L eff [km], and the wavelength dispersion D [ps/nm/km] of each of the optical fibers at a wavelength of 1550 nm satisfy Equation , log 2 1 + 65.9 ⋅ exp 200 ⋅ α dB + 0.02 4.343 ⋅ 20 × W W 2 + 104 − 4 ⋅ A eff − 2 L eff D − 1 ⋅ asinh 629 ⋅ D L eff − 1 3 × N A C ≥ 0.008 × N + 1.7 . a transmission loss is 0.18 dB/km or less; an effective area in a range from 100 to 125 μm 2 ; and a wavelength dispersion in a range from 19 to 22 ps/nm/km, wherein a value obtained by dividing a sectional area of a single slot by a number of cores of the optical fibers housed in the single slot is in a range from 0.12 to 0.16 mm 2 /core, and wherein the transmission loss α dB [dB/km], a mode field diameter W [μm], the effective area Aeff [μm 2 ], an effective length L eff [km], and the wavelength dispersion D [ps/nm/km] of each of the optical fibers at a wavelength of 1550 nm satisfy Equation , log 2 1 + 65.9 ⋅ exp 200 ⋅ α dB + 0.02 4.343 ⋅ 20 × W W 2 + 104 − 4 ⋅ A eff − 2 L eff D − 1 ⋅ asinh 629 ⋅ D L eff − 1 3 × N A C ≥ 0.008 × N + 1.7 .
A device for producing reaction plastics, comprising: a first metering device with a first metering unit and a second metering unit , each of which is configured for receiving and dispensing, in a metered manner, a first mixing component; a second metering device which is configured for receiving and dispensing, in a metered manner, a second mixing component; and a mixing device , which is configured for receiving and mixing the first mixing component dispensed by the first metering unit and/or the second metering unit of the first metering device and the second mixing component dispensed by the second metering device ; characterized in that the first metering unit and the second metering unit are connected to the mixing device such that prior to beginning the mixing process, the first mixing component is able to be brought to an operating state required for the mixing process, by guiding the first mixing component from the first metering unit to the second metering unit via the mixing device , wherein a required operating state is a pressure, a temperature and/or a viscosity. a first metering device with a first metering unit and a second metering unit , each of which is configured for receiving and dispensing, in a metered manner, a first mixing component; a second metering device which is configured for receiving and dispensing, in a metered manner, a second mixing component; and a mixing device , which is configured for receiving and mixing the first mixing component dispensed by the first metering unit and/or the second metering unit of the first metering device and the second mixing component dispensed by the second metering device ; characterized in that the first metering unit and the second metering unit are connected to the mixing device such that prior to beginning the mixing process, the first mixing component is able to be brought to an operating state required for the mixing process, by guiding the first mixing component from the first metering unit to the second metering unit via the mixing device , wherein a required operating state is a pressure, a temperature and/or a viscosity.
An electroporation catheter , comprising: a distal end portion defining an aperture; an electrode located on the distal end portion; a balloon in contact with the distal end portion; and an inner balloon inflatable inside the balloon, the inner balloon including a recording or sensing electrode , the recording or sensing electrode being located on and coupled to the inner balloon, wherein the recording or sensing electrode is configured to move with the inner balloon, such that the sensing electrode expands and/or contracts with inner balloon. a distal end portion defining an aperture; an electrode located on the distal end portion; a balloon in contact with the distal end portion; and an inner balloon inflatable inside the balloon, the inner balloon including a recording or sensing electrode , the recording or sensing electrode being located on and coupled to the inner balloon, wherein the recording or sensing electrode is configured to move with the inner balloon, such that the sensing electrode expands and/or contracts with inner balloon.