mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: forming, by an ejector assembly and inside a tee pipe fitting , a seal between a first pipe and a second pipe fluidically coupled to the tee pipe fitting , the first pipe flowing a first fluid at a first pressure, the second pipe flowing a second fluid at a second pressure lower than the first pressure, wherein forming the seal comprises moving, by a moving assembly, the ejector assembly from a first position inside an ejector housing to a second position at an interface between the first pipe and the second pipe to form the seal, the ejector housing extending away from the first pipe adjacent the interface, the ejector assembly comprising: a nozzle converging along a flow direction of the first fluid flowing in the first pipe , and a mixing chamber at an outlet of the nozzle , the mixing chamber comprising an outlet that, with the seal formed, is in fluid communication with the second pipe; and flowing the first fluid from the first pipe into the ejector assembly through the nozzle , wherein the first pressure of the first fluid decreases to a third pressure lower than the second pressure drawing the second fluid from the second pipe into the mixing chamber; characterized in that the ejector assembly is, in the first position, fluidically decoupled from the first fluid in the first pipe. forming, by an ejector assembly and inside a tee pipe fitting , a seal between a first pipe and a second pipe fluidically coupled to the tee pipe fitting , the first pipe flowing a first fluid at a first pressure, the second pipe flowing a second fluid at a second pressure lower than the first pressure, wherein forming the seal comprises moving, by a moving assembly, the ejector assembly from a first position inside an ejector housing to a second position at an interface between the first pipe and the second pipe to form the seal, the ejector housing extending away from the first pipe adjacent the interface, the ejector assembly comprising: a nozzle converging along a flow direction of the first fluid flowing in the first pipe , and a mixing chamber at an outlet of the nozzle , the mixing chamber comprising an outlet that, with the seal formed, is in fluid communication with the second pipe; and a nozzle converging along a flow direction of the first fluid flowing in the first pipe , and a mixing chamber at an outlet of the nozzle , the mixing chamber comprising an outlet that, with the seal formed, is in fluid communication with the second pipe; and flowing the first fluid from the first pipe into the ejector assembly through the nozzle , wherein the first pressure of the first fluid decreases to a third pressure lower than the second pressure drawing the second fluid from the second pipe into the mixing chamber; characterized in that the ejector assembly is, in the first position, fluidically decoupled from the first fluid in the first pipe.
A method for wireless communication in a system that supports multiple transmission time interval, TTI, lengths, comprising: identifying a control region of a TTI allocated for uplink communication; determining a length of the TTI allocated for uplink communication; adjusting a transmit power for transmitting uplink control information in the control region of the TTI based at least in part on the length of the TTI such that a transmit power used for transmitting uplink control information in each symbol of the TTI is the same as a transmit power used for transmitting uplink control information in each symbol of another TTI having a different length; and transmitting the uplink control information in the control region of the TTI using the adjusted transmit power. identifying a control region of a TTI allocated for uplink communication; determining a length of the TTI allocated for uplink communication; adjusting a transmit power for transmitting uplink control information in the control region of the TTI based at least in part on the length of the TTI such that a transmit power used for transmitting uplink control information in each symbol of the TTI is the same as a transmit power used for transmitting uplink control information in each symbol of another TTI having a different length; and transmitting the uplink control information in the control region of the TTI using the adjusted transmit power.
A brake assembly, comprising a brake disc provided under a vehicle frame and a guide rail located between the vehicle frame and the brake disc , wherein the guide rail extends along a width direction of the vehicle frame ; the guide rail is provided with a brake clamp clamped on the brake disc , and the brake clamp is movable along an extension direction of the guide rail , characterised by a moving block that is moveable along the extension direction of the guide rail is provided on the guide rail ; and the brake clamp is arranged at a bottom portion of the moving block in linkage.
Method for operating a reluctance motor , comprising the following steps: energising the winding (12; 14) of a phase of the reluctance motor for a predetermined period of time from a starting moment, measuring an intermediate circuit voltage (Ud) of a drive circuit of the reluctance motor for at least a portion of the predetermined period of time, creating a time profile of the measured intermediate circuit voltage (Ud) for at least a portion of the measured period of time, determining a value of an increase in the measured intermediate circuit voltage (Ud) from the created time profile, comparing the value of the increase in the measured intermediate circuit voltage (Ud) with a predetermined value of an increase, and if the determined value of the increase is greater than or equal to the predetermined value of an increase, maintaining the starting moment of the energisation for the next energisation of the phase, and if the determined value of the increase is smaller than the predetermined value of an increase, delaying the starting moment of the energisation for the next energisation of the phase. energising the winding (12; 14) of a phase of the reluctance motor for a predetermined period of time from a starting moment, measuring an intermediate circuit voltage (Ud) of a drive circuit of the reluctance motor for at least a portion of the predetermined period of time, creating a time profile of the measured intermediate circuit voltage (Ud) for at least a portion of the measured period of time, determining a value of an increase in the measured intermediate circuit voltage (Ud) from the created time profile, comparing the value of the increase in the measured intermediate circuit voltage (Ud) with a predetermined value of an increase, and if the determined value of the increase is greater than or equal to the predetermined value of an increase, maintaining the starting moment of the energisation for the next energisation of the phase, and if the determined value of the increase is smaller than the predetermined value of an increase, delaying the starting moment of the energisation for the next energisation of the phase. if the determined value of the increase is greater than or equal to the predetermined value of an increase, maintaining the starting moment of the energisation for the next energisation of the phase, and if the determined value of the increase is smaller than the predetermined value of an increase, delaying the starting moment of the energisation for the next energisation of the phase.
An assignment device for installation in a smokeproof, gasproof, and waterproof, temporarily heat-resistant and fire-resistant cable and/or pipe duct for ships or buildings, comprising a smokeproof, gasproof, and waterproof carcass that is manufactured from a flame-retardant and intumescent plastic, with the carcass having a virtual longitudinal axis , wherein a first holding part having a virtual longitudinal axis and a second holding part having a virtual longitudinal axis are arranged such that the virtual longitudinal axis of the carcass is aligned with the virtual longitudinal axis of the first holding part and such that the virtual longitudinal axis of the carcass is aligned with the virtual longitudinal axis of the second holding part and such that the outer periphery of the first holding part and the outer periphery of the second holding part increase starting from the carcass .
A method of decoding video data comprising: receiving a coded slice, the coded slice being an encoded form of a slice of a picture in the video data, the slice including a first sub-slice and a second sub-slice, the coded slice comprising a first coded sub-slice and a second coded sub-slice that correspond to the first sub-slice and the second sub-slice respectively, wherein the first and second coded sub-slices are encoded such that the first and second sub-slices can be parsed independently of each other and can be reconstructed independently of each other; parsing the first and second sub-slices in parallel, wherein parsing the first and second sub-slices comprises using position signaling data to extract the first and second coded sub-slices from the coded slice, wherein the position signaling data indicates byte sizes of the first and second coded sub-slices, wherein the position signaling data is interleaved into the slice data between coded sub-slices; and reconstructing the first and second sub-slices by entropy decoding the first and second sub-slices in parallel. receiving a coded slice, the coded slice being an encoded form of a slice of a picture in the video data, the slice including a first sub-slice and a second sub-slice, the coded slice comprising a first coded sub-slice and a second coded sub-slice that correspond to the first sub-slice and the second sub-slice respectively, wherein the first and second coded sub-slices are encoded such that the first and second sub-slices can be parsed independently of each other and can be reconstructed independently of each other; parsing the first and second sub-slices in parallel, wherein parsing the first and second sub-slices comprises using position signaling data to extract the first and second coded sub-slices from the coded slice, wherein the position signaling data indicates byte sizes of the first and second coded sub-slices, wherein the position signaling data is interleaved into the slice data between coded sub-slices; and reconstructing the first and second sub-slices by entropy decoding the first and second sub-slices in parallel.
A flavor inhaler comprising: a tubular holder that extends from a mouthpiece end to a distal end ; a combustion type heat source that is provided at the distal end, contains activated carbon; a first flavorant ; and a flavor source that is held in the holder and carries a second flavorant , wherein the first flavorant contains at least one selected from the group consisting of anethole, 2-pinene, β-citronellol, linalyl acetate, limonene, anisaldehyde, 4-terpineol, 2-β-pinene, jasmone, sabinene, linalool, 1,8-cineole, phenethyl alcohol, and myristicin, and the second flavorant contains at least one selected from the group consisting of α-terpinene, γ-terpinene, nerol, geraniol, and decanal, characterized in that the combustion type heat source carries the first flavorant. a tubular holder that extends from a mouthpiece end to a distal end ; a combustion type heat source that is provided at the distal end, contains activated carbon; a first flavorant ; and a flavor source that is held in the holder and carries a second flavorant , wherein the first flavorant contains at least one selected from the group consisting of anethole, 2-pinene, β-citronellol, linalyl acetate, limonene, anisaldehyde, 4-terpineol, 2-β-pinene, jasmone, sabinene, linalool, 1,8-cineole, phenethyl alcohol, and myristicin, and the second flavorant contains at least one selected from the group consisting of α-terpinene, γ-terpinene, nerol, geraniol, and decanal, characterized in that the combustion type heat source carries the first flavorant.
A radio transceiver device , the radio transceiver device comprising: an antenna ; a signal processing module ; a receiver chain configured to receive a first signal, the receiver chain extending from the antenna to the signal processing module and at least comprising an analog-to-digital converter, ADC , and thereby configured to receive a first signal from the antenna and provide the first signal to the signal processing module after application of analog-to-digital conversion in the ADC to the first signal; and a transmitter chain , the transmitter chain extending from the signal processing module to the antenna and at least comprising a digital-to-analog converter, DAC , and thereby configured to receive a second signal from the signal processing module and provide the second signal to the antenna after application of digital-to-analog conversion in the DAC ; wherein the DAC is configured to generate a dither signal and is connected to the receiver chain for application of the dither signal to the first signal before application of analog-to-digital conversion in the ADC to the first signal, and wherein the dither signal is defined by the second signal after application of digital-to-analog conversion in the DAC to the second signal. an antenna ; a signal processing module ; a receiver chain configured to receive a first signal, the receiver chain extending from the antenna to the signal processing module and at least comprising an analog-to-digital converter, ADC , and thereby configured to receive a first signal from the antenna and provide the first signal to the signal processing module after application of analog-to-digital conversion in the ADC to the first signal; and a transmitter chain , the transmitter chain extending from the signal processing module to the antenna and at least comprising a digital-to-analog converter, DAC , and thereby configured to receive a second signal from the signal processing module and provide the second signal to the antenna after application of digital-to-analog conversion in the DAC ; wherein the DAC is configured to generate a dither signal and is connected to the receiver chain for application of the dither signal to the first signal before application of analog-to-digital conversion in the ADC to the first signal, and wherein the dither signal is defined by the second signal after application of digital-to-analog conversion in the DAC to the second signal.
Linear actuator comprising an actuator housing , a driven element movable at a front end of the linear actuator and a mounting at a rear end of the linear actuator , wherein the mounting comprises two arms and an accommodation space between the two arms having an opening , characterized in that at least one arm is provided with a lever which is rotatable about an axis between an open position and a closed position, and where the lever comprises an end portion , wherein in the closed position, an end portion of the lever at least partly closes the opening and in the open position makes the opening accessible, wherein the lever is a two-arm lever having the end portion at a first end and an actuating portion at a second end, characterized in that in the open position, the actuating portion protrudes into the accommodation space .
Visible colored insoluble carrier particles which are colored polystyrene latex particles to which carboxyl groups are introduced as a functional group and labeled with a fluorescent dye via the carboxyl groups, which are used for immunoassay, wherein the fluorescent dye used for labeling is a fluorescent substance that emits fluorescence with a wavelength of a color complementary to a color with a wavelength equivalent to an absorption wavelength of the visible colored insoluble carrier particles, the visible colored insoluble carrier particles are blue-colored particles and the wavelength of fluorescence emitted by the fluorescent dye is 450 nm - 570 nm.
A stent (10; 100; 200; 300; 400) comprising: a tubular body (20; 120; 220; 320; 420) formed of one or more interwoven wires (15; 315; 415), the tubular body (20; 120; 220; 320; 420) having first and second opposing open ends (22, 24; 222, 224; 322, 324; 422; 424) and a lumen extending therebetween; a first anchor member (26; 226) disposed adjacent the first open end (22; 222; 322; 422) and a second anchor member (28; 228) disposed adjacent the second open end (24; 224; 324; 424), the first and second anchor members (26, 28; 226, 228) each extending radially outward from the tubular body (20; 120; 220; 320; 420), the first and second anchor members (26, 28; 226, 228) each having an outer diameter larger than an outer diameter of the tubular body (20; 120; 220; 320; 420) disposed between the first and second anchor members (26, 28; 226, 228); and a plurality of spacer members (30; 130; 230; 231; 330; 430; 431) disposed around the first open end (22; 222; 322; 422) and extending longitudinally beyond the first open end (22; 222; 322; 422), wherein when a pulling force is applied to the spacer members (30; 130; 230; 231; 330; 430; 431), the outer diameter of the tubular body (20; 120; 220; 320; 420) is not reduced, wherein at least one spacer member (30; 130; 230; 231; 330; 430; 431) has a variable flexibility along its length. a tubular body (20; 120; 220; 320; 420) formed of one or more interwoven wires (15; 315; 415), the tubular body (20; 120; 220; 320; 420) having first and second opposing open ends (22, 24; 222, 224; 322, 324; 422; 424) and a lumen extending therebetween; a first anchor member (26; 226) disposed adjacent the first open end (22; 222; 322; 422) and a second anchor member (28; 228) disposed adjacent the second open end (24; 224; 324; 424), the first and second anchor members (26, 28; 226, 228) each extending radially outward from the tubular body (20; 120; 220; 320; 420), the first and second anchor members (26, 28; 226, 228) each having an outer diameter larger than an outer diameter of the tubular body (20; 120; 220; 320; 420) disposed between the first and second anchor members (26, 28; 226, 228); and a plurality of spacer members (30; 130; 230; 231; 330; 430; 431) disposed around the first open end (22; 222; 322; 422) and extending longitudinally beyond the first open end (22; 222; 322; 422), wherein when a pulling force is applied to the spacer members (30; 130; 230; 231; 330; 430; 431), the outer diameter of the tubular body (20; 120; 220; 320; 420) is not reduced, wherein at least one spacer member (30; 130; 230; 231; 330; 430; 431) has a variable flexibility along its length.
An energy recovery device for a motor vehicle comprising: a waste heat source ; a waste heat utilization circuit , preferably a Clausius Rankine waste heat utilization circuit, wherein the waste heat utilization circuit is configured to convert waste heat from the waste heat source to mechanical energy; a cooling circuit which comprises a coolant pump and a first cooler and in which a component to be cooled, preferably a drive device, is integrated; and a cooling section branch which branches off from the cooling circuit , the cooling section branch comprising a second cooler and, directly downstream of the second cooler , a heat exchanger which is connected in a heat-transferring manner to a working medium of the waste heat utilization circuit for cooling the working medium, characterized in that the first cooler and the second cooler are hydraulically and thermally separated from one another by a partition wall ; and the first cooler and the second cooler are accommodated in a common cooler box . a waste heat source ; a waste heat utilization circuit , preferably a Clausius Rankine waste heat utilization circuit, wherein the waste heat utilization circuit is configured to convert waste heat from the waste heat source to mechanical energy; a cooling circuit which comprises a coolant pump and a first cooler and in which a component to be cooled, preferably a drive device, is integrated; and a cooling section branch which branches off from the cooling circuit , the cooling section branch comprising a second cooler and, directly downstream of the second cooler , a heat exchanger which is connected in a heat-transferring manner to a working medium of the waste heat utilization circuit for cooling the working medium, characterized in that the first cooler and the second cooler are hydraulically and thermally separated from one another by a partition wall ; and the first cooler and the second cooler are accommodated in a common cooler box .
A MEMS device comprising: a piezoelectric film (F3); a first electrode (El) and a second electrode (E2)sandwiching the piezoelectric film (F3); a protective film provided to cover at least part of the second electrode (E2) and having a cavity (V2) that opens part of the second electrode (E2); a third electrode (E3) that makes contact with the second electrode (E2) at least in the cavity (V2) and is provided so as to cover at least part of the protective film ; and a first wiring layer (W2) including a first contact portion in contact with and adjacent to the third electrode (E3), characterized in that the first contact portion of the first wiring layer (W2) is disposed to overlap in a plan view with the cavity (V2) where the third electrode (E3) and the second electrode (E2) make contact with each other and are adjacent to each other. a piezoelectric film (F3); a first electrode (El) and a second electrode (E2)sandwiching the piezoelectric film (F3); a protective film provided to cover at least part of the second electrode (E2) and having a cavity (V2) that opens part of the second electrode (E2); a third electrode (E3) that makes contact with the second electrode (E2) at least in the cavity (V2) and is provided so as to cover at least part of the protective film ; and a first wiring layer (W2) including a first contact portion in contact with and adjacent to the third electrode (E3), characterized in that the first contact portion of the first wiring layer (W2) is disposed to overlap in a plan view with the cavity (V2) where the third electrode (E3) and the second electrode (E2) make contact with each other and are adjacent to each other.
A composition comprising: a) an active ingredient which comprises at least 50% plate shaped crystals when observed under a microscope, and the active ingredient comprises at least 50% spheres and irregular spheres by volume as measured by a particle size and shape analyzing Malvern Morpho G3 instrument; and b) spray-dried riboflavin. a) an active ingredient which comprises at least 50% plate shaped crystals when observed under a microscope, and the active ingredient comprises at least 50% spheres and irregular spheres by volume as measured by a particle size and shape analyzing Malvern Morpho G3 instrument; and b) spray-dried riboflavin.