mhurhangee/patent-ind-claim-en huggingface dataset:
A molded article of a fiber-reinforced resin containing at least a bundled aggregate [A] of discontinuous reinforcing fibers and a matrix resin [M], wherein the average layer thickness h in said molded article of the fiber-reinforced resin is 100 μm or less, and a CV value of said average layer thickness h is 40% or less, wherein the bundled aggregates [A]are obtained by cutting a partially-separated fiber bundle, prepared by forming separation treatment sections separated into a plurality of bundles and non-separation treatment sections alternately along a lengthwise direction of a fiber bundle comprising a plurality of single fibers, at an angle θ (0°<θ<90°) with respect to the lengthwise direction of the fiber bundle so that a cutting plane extends over the separation treatment section and the non-separation treatment section, and wherein the average layer thickness h in the molded article of the fiber-reinforced resin is determined by burning off the matrix resin [M] of the molded article of the fiber-reinforced resin, selecting 20 points in the in-plane direction of the burnt off fiber-reinforced resin, measuring the number of layers n1 of bundled aggregate [A] of discontinuous reinforcing fibers remaining in the thickness direction of each point, and determining as an average value of the values obtained by dividing the original fiber-reinforced resin thickness by n1.
A lighting system for indoor microbiome management, wherein the lighting system comprises a light generating device and a microbe dispenser device ; wherein: - the microbe dispenser device is configured to provide in a microbic application mode an emission of first microbes , wherein the microbe dispenser device has a microbe emission region ; - the light generating device is configured to provide in a microbic lighting mode a first beam of first device radiation ; - a spectral power distribution of the first device radiation is selected for promoting persistence of the first microbes relative to second microbes, other than the first microbes; and - the microbe emission region and the first beam at least partly spatially overlap. - the microbe dispenser device is configured to provide in a microbic application mode an emission of first microbes , wherein the microbe dispenser device has a microbe emission region ; - the light generating device is configured to provide in a microbic lighting mode a first beam of first device radiation ; - a spectral power distribution of the first device radiation is selected for promoting persistence of the first microbes relative to second microbes, other than the first microbes; and - the microbe emission region and the first beam at least partly spatially overlap.
Method to adjust the concentration of at least two gasses in a fluid, comprising a) adjusting the concentration of a first gas in the fluid by a means for adjusting a first gas concentration, and b) adjusting the concentration of a second gas in the fluid by a means for adjusting a second gas concentration, wherein the means for adjusting the concentration of the first gas and the means for adjusting the concentration of the second gas are separate from each other and the first and second gas are delivered separately to the fluid. a) adjusting the concentration of a first gas in the fluid by a means for adjusting a first gas concentration, and b) adjusting the concentration of a second gas in the fluid by a means for adjusting a second gas concentration,
A cutting deck lifting device for adjusting a height of the cutting deck of a mower , comprising: a pedal assembly including a pedal switched from locking to unlocking states for adjusting the height of the cutting deck ; a cutting deck having at least one cutting blade mounted thereto, wherein the cutting deck is in a first position when the pedal is in locking state, and wherein the cutting deck is in a second position when the pedal is in unlocking state, and wherein the height of the cutting deck is adjustable when the cutting deck is in the second position; a connecting assembly connecting the pedal assembly to the cutting deck ; and an adjusting assembly connected to the pedal assembly for positioning the cutting deck to a position with a desired height when the pedal is switched from locking to unlocking states, wherein the adjustment assembly includes a sliding plate rotatably connected to the pedal and a positioning member abutting against the sliding plate to position the cutting deck to the position with the desired height, and wherein the desired height is determined when the pedal is in locking state characterized in that the sliding plate slides away from the positioning member when the pedal is switched from the unlocking state to the locking state, and wherein the sliding plate slides towards the positioning member and abuts against the positioning member when the pedal is switched from the locking state to the unlocking state. a cutting deck having at least one cutting blade mounted thereto, wherein the cutting deck is in a first position when the pedal is in locking state, and wherein the cutting deck is in a second position when the pedal is in unlocking state, and wherein the height of the cutting deck is adjustable when the cutting deck is in the second position; a connecting assembly connecting the pedal assembly to the cutting deck ; and an adjusting assembly connected to the pedal assembly for positioning the cutting deck to a position with a desired height when the pedal is switched from locking to unlocking states, wherein the adjustment assembly includes a sliding plate rotatably connected to the pedal and a positioning member abutting against the sliding plate to position the cutting deck to the position with the desired height, and wherein the desired height is determined when the pedal is in locking state characterized in that the sliding plate slides away from the positioning member when the pedal is switched from the unlocking state to the locking state, and wherein the sliding plate slides towards the positioning member and abuts against the positioning member when the pedal is switched from the locking state to the unlocking state.
A water heater (100; 300), comprising: a storage tank configured to store water; at least one sensor configured to sense a temperature of the water and/or to sense a temperature outside of the water heater (100; 300); a first heater assembly comprising a heating element configured to heat the water; a second heater assembly comprising a heat pump system configured to heat the water; an inverter connected to the heat pump system ; and a first controller configured to control the first heater assembly ; a second controller configured to control the heat pump system by adjusting an output frequency of the inverter , wherein the second controller is configured to: determine a target pressure (Pb) of the heat pump system based on the sensed temperature outside of the water heater (100; 300), the sensed temperature of the water in the storage tank , and a set temperature; determine a frequency change (ΔHz) based on a difference between the target pressure (Pb) and a pressure measured (Pa) in the heat pump system ; determine a target frequency of the inverter by reflecting the frequency change (ΔHz); and control the inverter by adjusting the output frequency based on the target frequency. a storage tank configured to store water; at least one sensor configured to sense a temperature of the water and/or to sense a temperature outside of the water heater (100; 300); a first heater assembly comprising a heating element configured to heat the water; a second heater assembly comprising a heat pump system configured to heat the water; an inverter connected to the heat pump system ; and a first controller configured to control the first heater assembly ; a second controller configured to control the heat pump system by adjusting an output frequency of the inverter , wherein the second controller is configured to: determine a target pressure (Pb) of the heat pump system based on the sensed temperature outside of the water heater (100; 300), the sensed temperature of the water in the storage tank , and a set temperature; determine a frequency change (ΔHz) based on a difference between the target pressure (Pb) and a pressure measured (Pa) in the heat pump system ; determine a target frequency of the inverter by reflecting the frequency change (ΔHz); and control the inverter by adjusting the output frequency based on the target frequency. determine a target pressure (Pb) of the heat pump system based on the sensed temperature outside of the water heater (100; 300), the sensed temperature of the water in the storage tank , and a set temperature; determine a frequency change (ΔHz) based on a difference between the target pressure (Pb) and a pressure measured (Pa) in the heat pump system ; determine a target frequency of the inverter by reflecting the frequency change (ΔHz); and control the inverter by adjusting the output frequency based on the target frequency.
Pump unit for clutch actuation, having a high-pressure port for clutch actuation, a low-pressure port for a lubricant flow, a single drive motor and a dual pump , which is driven by the drive motor and has a high-pressure outlet , which is connected to the high-pressure port by means of a high-pressure line , and a low-pressure outlet , which is connected to the low-pressure port by means of a low-pressure line , wherein a prefilling line which leads from the low-pressure line to the high-pressure line is provided, characterised by a check valve which blocks flow in a flow direction from the high-pressure line to the low-pressure line is provided in the prefilling line , wherein the drive motor is an electric motor which can be driven in two directions of rotation and comprises a control means to control the rotational speed of the drive motor in an open-loop or closed-loop manner, wherein the pump is configured such that in a normal operating state meaning when the check valve is closed and the high-pressure port is supplied with hydraulic fluid from the high-pressure outlet of the dual pump , the rotational speed of the drive motor is a rated rotational speed, while for prefilling purposes meaning when the check valve is open, before a pressure corresponding to a back pressure in the low-pressure line is reached on the high-pressure side, the rotational speed of the drive motor is temporarily increased, for example to 1.5 times the rated rotational speed, for a very short time, for example 400ms.
A method of producing a recombinantly produced antibody or fragment thereof comprising the step of culturing a cell comprising a nucleic acid encoding the antibody or fragment thereof in a cell culture medium, wherein the antibody or fragment thereof is secreted into the cell culture medium, wherein the cell culture medium comprises hypotaurine; and wherein the cell culture medium comprising hypotaurine reduces the color intensity of a composition comprising the antibody or fragment thereof produced by the cell as compared to a composition comprising the antibody or fragment thereof produced by the cell cultured in a cell culture medium that does not comprise hypotaurine.
An attachment brush part for an electrical body care brush, in particular electrical toothbrush , wherein the attachment brush part is designed in a multi-part manner and comprises: - an attachment brush housing , comprising a housing head which is arranged in a brush-head-side end section and is with a bristle carrier receiver and a carrier receiver opening which is arranged on the front side; - a drive rod for driving a brush head , with a brush-head-side end section , on which a first toothing is arranged, and with a hand-part-side end section ; - a brush head with a bristle carrier and with care bristles which are arranged on this, wherein the bristle carrier comprises a second toothing ; as well as - a securing element for the rotatable mounting of the hand-part-side end section of the drive rod , - a bearing pin for positioning, securing and for the oscillatorily rotatable mounting of the brush head on the attachment brush housing , and the first and second toothing form a drive toothing for the driving of the brush head by the drive rod , and the bristle carrier comprise a bearing pin receiver which is open to the rear side for receiving the bearing pin characterised in that the housing head comprises a feed-through opening which leads from the rear side into the bristle carrier receiver , for receiving the bearing pin from the rear side of the housing head , and the bearing pin is led through the feed-through opening from the rear side of the housing head and is fixed in the bearing pin receiver of the bristle carrier which is open to the rear side. - an attachment brush housing , comprising a housing head which is arranged in a brush-head-side end section and is with a bristle carrier receiver and a carrier receiver opening which is arranged on the front side; - a drive rod for driving a brush head , with a brush-head-side end section , on which a first toothing is arranged, and with a hand-part-side end section ; - a brush head with a bristle carrier and with care bristles which are arranged on this, wherein the bristle carrier comprises a second toothing ; as well as - a securing element for the rotatable mounting of the hand-part-side end section of the drive rod , - a bearing pin for positioning, securing and for the oscillatorily rotatable mounting of the brush head on the attachment brush housing ,
A multilayered sliding member comprising: a backing plate; a porous metal sintered layer formed on one surface of said backing plate; and a coating layer filling pores of, and coating a surface of, said porous metal sintered layer, said coating layer including a polytetrafluoroethylene resin and 10 to 40% by mass of a metal metaphosphate , wherein said coating layer further contains 3 to 20% by mass of a heat resistant resin including at least one of a thermosetting polyimide resin, a polyamide-imide resin, an aromatic polyamide resin, an aromatic polyester resin, and a polyether ether ketone resin.
A communication method, comprising: acquiring (S210), by a user equipment, configuration information of a signal, wherein the configuration information includes time resource information and sequence information of the signal, wherein the time resource information indicates one or more candidate time resource locations of the signal, and the sequence information indicates one or more candidate sequences of the signal, wherein the signal is used for radio resource management, RRM, measurement and/or cell identifier determination; receiving (S220), by the user equipment, a first signal from a base station; detecting one of the one or more candidate sequences at one of the one or more candidate time resource locations, and determining an actual time resource location of the first signal; and determining, by the user equipment, according to the actual time resource location of the first signal, random access configuration information, wherein there is a correspondence between the actual time resource location of the first signal and the random access configuration information. acquiring (S210), by a user equipment, configuration information of a signal, wherein the configuration information includes time resource information and sequence information of the signal, wherein the time resource information indicates one or more candidate time resource locations of the signal, and the sequence information indicates one or more candidate sequences of the signal, wherein the signal is used for radio resource management, RRM, measurement and/or cell identifier determination; receiving (S220), by the user equipment, a first signal from a base station; detecting one of the one or more candidate sequences at one of the one or more candidate time resource locations, and determining an actual time resource location of the first signal; and determining, by the user equipment, according to the actual time resource location of the first signal, random access configuration information, wherein there is a correspondence between the actual time resource location of the first signal and the random access configuration information.
An antenna device, which comprises: an antenna and a shielding device , which at least comprises a first part made of a material capable of shielding a wireless signal, and the shielding device being moveable, wherein the first part shields the antenna when located at a first position, making the antenna unable to receive and/or transmit a signal; the antenna works normally when the first part is moved out of the first position, characterized in that , the shielding device further comprises: a second part made of a material capable of enhancing a wireless signal, which enhances the reception and/transmission of signal of the antenna when located at the first position, wherein the first part is connected with the second part ; the shielding device further comprises: a moving device, which is configured to move the connected first part and second part , such that the first part is moved out of the first position the second part is moved on the first position. an antenna and a shielding device , which at least comprises a first part made of a material capable of shielding a wireless signal, and the shielding device being moveable, wherein the first part shields the antenna when located at a first position, making the antenna unable to receive and/or transmit a signal; the antenna works normally when the first part is moved out of the first position, characterized in that , the shielding device further comprises: a second part made of a material capable of enhancing a wireless signal, which enhances the reception and/transmission of signal of the antenna when located at the first position, wherein the first part is connected with the second part ; the shielding device further comprises: a moving device, which is configured to move the connected first part and second part , such that the first part is moved out of the first position the second part is moved on the first position.
Scintillation detector for measuring and/or detecting radionuclides in a fluid, said detector comprising: - a measuring chamber intended to receive said fluid, said chamber comprising a fluid inlet and a fluid outlet in order to authorise a circulation of fluid in the chamber; - a photomultiplier ; - a plurality of scintillating optical fibres grouped together to form a bundle of fibres, said scintillating optical fibres being optically connected to the photomultiplier, the bundle of fibres being at least partially housed in the measuring chamber; the detector being characterised in that the measuring chamber is provided with a first and with a second separator delimiting an introduction zone comprising the fluid inlet , an extraction zone comprising the fluid outlet and a measuring zone , between the introduction and extraction zones, wherein the scintillating optical fibres of the bundle are deployed, the first and the second separator each being provided with a plurality of through-openings configured to establish a laminar flow of the fluid in the measuring zone . - a measuring chamber intended to receive said fluid, said chamber comprising a fluid inlet and a fluid outlet in order to authorise a circulation of fluid in the chamber; - a photomultiplier ; - a plurality of scintillating optical fibres grouped together to form a bundle of fibres, said scintillating optical fibres being optically connected to the photomultiplier, the bundle of fibres being at least partially housed in the measuring chamber;
A magnetic detection system comprising: a magnetic sensor configured to be installed underwater to acquire a magnetic signal ; a storage unit configured to store the magnetic signal acquired by the magnetic sensor; a first determination unit configured to output whether or not a magnetic body has passed as a first determination result based on the magnetic signal of the magnetic sensor; a second determination unit configured to output whether or not the magnetic body has passed as a second determination result based on the magnetic signal of the magnetic sensor after an output of the first determination result by the first determination unit; and a notification unit configured to notify the first determination result and the second determination result, characterized in that the second determination unit is configured to have higher determination accuracy than the first determination unit and perform the outputting of the second determination result as parallel processing independently of the outputting of the first determination result by the first determination unit. a magnetic sensor configured to be installed underwater to acquire a magnetic signal ; a storage unit configured to store the magnetic signal acquired by the magnetic sensor; a first determination unit configured to output whether or not a magnetic body has passed as a first determination result based on the magnetic signal of the magnetic sensor; a second determination unit configured to output whether or not the magnetic body has passed as a second determination result based on the magnetic signal of the magnetic sensor after an output of the first determination result by the first determination unit; and a notification unit configured to notify the first determination result and the second determination result, characterized in that the second determination unit is configured to have higher determination accuracy than the first determination unit and perform the outputting of the second determination result as parallel processing independently of the outputting of the first determination result by the first determination unit.
A multirotor wind turbine comprising at least two rotor nacelle assemblies mounted to a support arrangement via respective yawing systems, and a toe angle control system for controlling the toe angles (A) of the rotor nacelle assemblies with respect to the support arrangement, the toe angle being the angle (A) in a horizontal plane between the plane of the rotor and the support arrangement ; wherein the toe angle control system is configured to operate in a first mode in which the rotor nacelle assemblies are held at positive and at least substantially constant toe angles of at least 2 degrees while the wind turbine is generating power in a main production mode; wherein the toe angle control system is further configured to monitor the operating mode of the wind turbine, and to switch to a second mode in which the yawing systems of the rotor nacelle assemblies are operated to reduce the toe angles of the rotor nacelle assemblies if an operating mode-based trigger condition has been met. wherein the toe angle control system is configured to operate in a first mode in which the rotor nacelle assemblies are held at positive and at least substantially constant toe angles of at least 2 degrees while the wind turbine is generating power in a main production mode; wherein the toe angle control system is further configured to monitor the operating mode of the wind turbine, and to switch to a second mode in which the yawing systems of the rotor nacelle assemblies are operated to reduce the toe angles of the rotor nacelle assemblies if an operating mode-based trigger condition has been met.
Method for operating a radar sensor which is installed in a motor vehicle behind a component , in particular a bumper component, which can be radiographed by radar radiation, characterised in that when the component is disassembled from the motor vehicle , radar data are also recorded with the radar sensor , wherein, upon recognition of the disassembly of the component using a disassembly criterion determined from the radar data, calibration information indicating a necessary recalibration of the radar sensor is generated after reinstallation of the component and is used to initiate the recalibration of the radar sensor , wherein a noise level in the radar data is evaluated to determine the disassembly criterion.