mhurhangee/patent-ind-claim-en huggingface dataset:
A control method for a microwave oven , wherein the microwave oven comprises an enamel cavity , a hot air convection heating pipe and a baking heating pipe for heating the enamel cavity , and a temperature sensor for detecting the temperature in the enamel cavity , the control method for the microwave oven comprises: detecting the temperature in the enamel cavity by the temperature sensor ; and according to a relationship between the temperature in the enamel cavity detected by the temperature sensor and a predetermined temperature, controlling the operation and closing of the hot air convection heating pipe and the baking heating pipe , controlling the baking heating pipe to work at a predetermined period, which is 10s to 20s, during the operation, and controlling a working time of the baking heating pipe within each period, wherein, the step of controlling the operation and closing of the hot air convection heating pipe and the baking heating pipe , controlling the baking heating pipe to work at the predetermined period, which is 10s to 20s, during the operation, and controlling the working time of the baking heating pipe within each period, specifically comprises: when an instruction of starting the microwave oven is received, controlling the hot air convection heating pipe and the baking heating pipe to operate, and controlling the baking heating pipe to work for a first predetermined time length within each period, which accounts for 40% to 60% of the predetermined period; and when the temperature in the enamel cavity reaches a value which equals to a difference between the predetermined temperature and a first set value, controlling the hot air convection heating pipe and the baking heating pipe to close. detecting the temperature in the enamel cavity by the temperature sensor ; and according to a relationship between the temperature in the enamel cavity detected by the temperature sensor and a predetermined temperature, controlling the operation and closing of the hot air convection heating pipe and the baking heating pipe , controlling the baking heating pipe to work at a predetermined period, which is 10s to 20s, during the operation, and controlling a working time of the baking heating pipe within each period, wherein, the step of controlling the operation and closing of the hot air convection heating pipe and the baking heating pipe , controlling the baking heating pipe to work at the predetermined period, which is 10s to 20s, during the operation, and controlling the working time of the baking heating pipe within each period, specifically comprises: when an instruction of starting the microwave oven is received, controlling the hot air convection heating pipe and the baking heating pipe to operate, and controlling the baking heating pipe to work for a first predetermined time length within each period, which accounts for 40% to 60% of the predetermined period; and when the temperature in the enamel cavity reaches a value which equals to a difference between the predetermined temperature and a first set value, controlling the hot air convection heating pipe and the baking heating pipe to close.
Set for the production of a ready-to-use chemotherapeutic composition for intraperitoneal administration as aerosol, characterized in that the set comprises: an aqueous concentrate containing at least cisplatin in a first predetermined concentration and doxorubicin in a second predetermined concentration with a predetermined ratio of the first and the second concentrations and having a pH value ranging from 3.0 to 7.0.
A radar level gauge , for determining a process variable of a product in a tank using electromagnetic measuring signals, the radar level gauge comprising: an antenna arrangement comprising an antenna mounting structure , the antenna arrangement being adapted to direct a microwave transmit signal toward said product and return reflections thereof from a surface of said product; and a dielectric filling member arranged in said antenna arrangement, the dielectric filling member comprising a main body , and a sealing arrangement for preventing tank content from escaping into the outside environment, the sealing arrangement being arranged around a periphery of the main body and comprises a first sealing portion positioned between a portion of the antenna mounting structure and a portion of the tank, wherein a lower surface of the first sealing portion is arranged in abutment with the portion of the tank; wherein the sealing arrangement and the main body are formed in one piece and made of the same material; characterized in that the radar level gauge further comprises a structural reinforcement element arranged around a periphery of the main body, the structural reinforcement element being arranged in abutment with an upper surface of the first sealing portion such that, as seen in a microwave transmit signal direction, the first sealing portion is positioned above the portion of the tank and below the structural reinforcement element, and the dielectric filling member comprises an annular groove into which the structural reinforcement element is connected. an antenna arrangement comprising an antenna mounting structure , the antenna arrangement being adapted to direct a microwave transmit signal toward said product and return reflections thereof from a surface of said product; and a dielectric filling member arranged in said antenna arrangement, the dielectric filling member comprising a main body , and a sealing arrangement for preventing tank content from escaping into the outside environment, the sealing arrangement being arranged around a periphery of the main body and comprises a first sealing portion positioned between a portion of the antenna mounting structure and a portion of the tank, wherein a lower surface of the first sealing portion is arranged in abutment with the portion of the tank; wherein the sealing arrangement and the main body are formed in one piece and made of the same material;
An air shroud (100;200) for a nozzle, comprising: an air shroud body (101;201) defining an inlet and an outlet in fluid communication with one another to allow an outer airflow to issue therefrom; and an air wipe (107;207;307a;307b) disposed outboard of the air shroud body (101;200); wherein the air wipe includes a web (109;209) defining a plurality of air wipe outlets (111;211;311a;311b) in fluid communication with a downstream surface (105;205) of the air shroud body (101;201) such that air can flow through the air wipe outlets (111;211;311a;311b) and wipe the downstream surface (105;205) of the air shroud body (101;201); characterised in that : the plurality of air wipe outlets (111; 211; 311a; 311b) fan out such that their flow area increases closer to the air shroud body . an air shroud body (101;201) defining an inlet and an outlet in fluid communication with one another to allow an outer airflow to issue therefrom; and an air wipe (107;207;307a;307b) disposed outboard of the air shroud body (101;200); wherein the air wipe includes a web (109;209) defining a plurality of air wipe outlets (111;211;311a;311b) in fluid communication with a downstream surface (105;205) of the air shroud body (101;201) such that air can flow through the air wipe outlets (111;211;311a;311b) and wipe the downstream surface (105;205) of the air shroud body (101;201); characterised in that : the plurality of air wipe outlets (111; 211; 311a; 311b) fan out such that their flow area increases closer to the air shroud body .
A traumatic brain injury treatment system, comprising: (a) a headpiece comprising: (i) a housing comprising 1) a head cavity defined by the housing; and 2) an inner surface within the head cavity; and (ii) a light array disposed on the inner surface, wherein the light array comprises a plurality of LED light assemblies, wherein the plurality of LED light assemblies further comprise a portion of the LED light assemblies disposed adjacent to a front sinus or a mastoid process of a patient's head when the patient's head is disposed within the housing, wherein the portion of the LED light assemblies disposed adjacent to the front sinus or the mastoid process have a different radiant intensity than other LED light assemblies in the plurality of LED light assemblies; (b) a power/communication line coupled to the light array; (c) a controller coupled to the power/communication line; and (d) an energy source coupled to the power/communication line; wherein the different radiant intensity is greater radiant intensity ranging from about 15% to about 50% greater intensity than the other LED light assemblies in the plurality of LED light assemblies. (a) a headpiece comprising: (i) a housing comprising 1) a head cavity defined by the housing; and 2) an inner surface within the head cavity; and (ii) a light array disposed on the inner surface, wherein the light array comprises a plurality of LED light assemblies, wherein the plurality of LED light assemblies further comprise a portion of the LED light assemblies disposed adjacent to a front sinus or a mastoid process of a patient's head when the patient's head is disposed within the housing, wherein the portion of the LED light assemblies disposed adjacent to the front sinus or the mastoid process have a different radiant intensity than other LED light assemblies in the plurality of LED light assemblies; (i) a housing comprising 1) a head cavity defined by the housing; and 2) an inner surface within the head cavity; and 1) a head cavity defined by the housing; and 2) an inner surface within the head cavity; and (ii) a light array disposed on the inner surface, wherein the light array comprises a plurality of LED light assemblies, wherein the plurality of LED light assemblies further comprise a portion of the LED light assemblies disposed adjacent to a front sinus or a mastoid process of a patient's head when the patient's head is disposed within the housing, wherein the portion of the LED light assemblies disposed adjacent to the front sinus or the mastoid process have a different radiant intensity than other LED light assemblies in the plurality of LED light assemblies; (b) a power/communication line coupled to the light array; (c) a controller coupled to the power/communication line; and (d) an energy source coupled to the power/communication line;
A vial assembly comprising: a vial comprising a vial body and a vial neck , the vial neck having a syringe interface; and a vial cap comprising a first component and a second component , said first component having an internal threaded segment that engages the syringe interface and an outer surface comprising a plurality of longitudinally extending ribs separated by a plurality of longitudinally extending channels , said second component including a plurality of longitudinally extending prongs that engage with a surface in the channels on the outer surface of the first component, said second component further including a central opening formed by the plurality of longitudinally extending prongs, and a plug disposed in the central opening, said plug having a lower stopper portion that fits within the vial neck and an upper portion that attaches to an upper portion of the second component. a vial comprising a vial body and a vial neck , the vial neck having a syringe interface; and a vial cap comprising a first component and a second component , said first component having an internal threaded segment that engages the syringe interface and an outer surface comprising a plurality of longitudinally extending ribs separated by a plurality of longitudinally extending channels , said second component including a plurality of longitudinally extending prongs that engage with a surface in the channels on the outer surface of the first component, said second component further including a central opening formed by the plurality of longitudinally extending prongs, and a plug disposed in the central opening, said plug having a lower stopper portion that fits within the vial neck and an upper portion that attaches to an upper portion of the second component.
A feeding arrangement for feeding biomass having a material density of not more than 200 kg/m 3 to a treatment vessel , the feeding arrangement comprising: • a plug screw feeder for feeding the biomass to the treatment vessel , the plug screw feeder comprising a plug screw and a corresponding plug screw housing surrounding the plug screw ; • a force-feeding screw for feeding the biomass to the plug screw feeder and a corresponding force-feeding screw housing surrounding the force feeding screw ; and • a feeding device being arranged to feed incoming biomass to the force-feeding screw ; wherein the force feeding screw is arranged to provide the biomass to an inlet section of the plug screw feeder ; the longitudinal axis of the force-feeding screw is arranged essentially perpendicular to the longitudinal axis of the plug screw ; and the plug screw is adapted to be able to be rotated at variable speed in relation to a production flow rate set by the feeding device ; characterized in that the feeding arrangement further comprises • a monitoring device configured to monitoring at least one parameter related to the load of the force-feeding screw , which is a parameter which is connected to the energy consumption of the force-feeding screw; and • an adjustment device configured to adjusting the rotational speed of the plug screw to the at least one parameter related to the load of the force-feeding screw. • a plug screw feeder for feeding the biomass to the treatment vessel , the plug screw feeder comprising a plug screw and a corresponding plug screw housing surrounding the plug screw ; • a force-feeding screw for feeding the biomass to the plug screw feeder and a corresponding force-feeding screw housing surrounding the force feeding screw ; and • a feeding device being arranged to feed incoming biomass to the force-feeding screw ; wherein the force feeding screw is arranged to provide the biomass to an inlet section of the plug screw feeder ; the longitudinal axis of the force-feeding screw is arranged essentially perpendicular to the longitudinal axis of the plug screw ; and the plug screw is adapted to be able to be rotated at variable speed in relation to a production flow rate set by the feeding device ; characterized in that the feeding arrangement further comprises wherein the force feeding screw is arranged to provide the biomass to an inlet section of the plug screw feeder ; the longitudinal axis of the force-feeding screw is arranged essentially perpendicular to the longitudinal axis of the plug screw ; and the plug screw is adapted to be able to be rotated at variable speed in relation to a production flow rate set by the feeding device ; characterized in that the feeding arrangement further comprises • a monitoring device configured to monitoring at least one parameter related to the load of the force-feeding screw , which is a parameter which is connected to the energy consumption of the force-feeding screw; and • an adjustment device configured to adjusting the rotational speed of the plug screw to the at least one parameter related to the load of the force-feeding screw.
A method for producing recombinant adeno-associated virus (rAAV) particles in host cells comprising: culturing host cells which contain: at least (a) an expression cassette comprising an AAV5' inverted terminal repeat (ITR), a human alpha-L-iduronidase (hIDUA) gene under the control of regulatory sequences which control expression thereof, and an AAV 3' ITR, wherein said hIDUA gene has a sequence of SEQ ID NO: 1, or a sequence at least about 95% identical to SEQ ID NO: 1, which encodes a functional human alpha-L-iduronidase, (b) rep sequences and a nucleic acid sequence encoding an AAV capsid protein (cap sequences); and (c) sufficient helper functions to package the expression cassette into the AAV capsid, wherein the host cells express the rep and AAV capsid proteins and package the expression cassette into the AAV capsid to produce the rAAV particles.
A method for upgrading firmware of an adapter , characterized in that the method comprises: receiving, by the adapter , an upgrade file in accordance with a Universal Asynchronous Receiver/Transmitter (UART) transfer protocol, transferred by a converter , via a data line of a charging interface of the adapter , the data line being operated under the UART mode, wherein the converter is configured to convert the upgrade file in accordance with a Universal Serial Bus (USB) transfer protocol in a personal computer (PC) into the upgrade file in accordance with the UART transfer protocol, and is configured to transmit the upgrade file in accordance with the UART transfer protocol to the adapter ; decreasing, by the adapter , an output voltage of a bus-powered VBUS line when the adapter detects an output current of the bus-powered VBUS line in the charging interface and determines that the detected output current is greater than a first threshold current; setting, by the adapter , the data line of the charging interface to be operated under the UART mode when the adapter detects the output voltage and determines that the detected output voltage decreases to a voltage value less than a second threshold voltage, and the output current is still greater than the first threshold current; and processing, by a microcontroller unit (MCU), the upgrade file in accordance with the UART transfer protocol for upgrading the firmware of the adapter when the adapter is in an upgrading mode responsive to the UART mode, wherein the MCU is built in the adapter . receiving, by the adapter , an upgrade file in accordance with a Universal Asynchronous Receiver/Transmitter (UART) transfer protocol, transferred by a converter , via a data line of a charging interface of the adapter , the data line being operated under the UART mode, wherein the converter is configured to convert the upgrade file in accordance with a Universal Serial Bus (USB) transfer protocol in a personal computer (PC) into the upgrade file in accordance with the UART transfer protocol, and is configured to transmit the upgrade file in accordance with the UART transfer protocol to the adapter ; decreasing, by the adapter , an output voltage of a bus-powered VBUS line when the adapter detects an output current of the bus-powered VBUS line in the charging interface and determines that the detected output current is greater than a first threshold current; setting, by the adapter , the data line of the charging interface to be operated under the UART mode when the adapter detects the output voltage and determines that the detected output voltage decreases to a voltage value less than a second threshold voltage, and the output current is still greater than the first threshold current; and processing, by a microcontroller unit (MCU), the upgrade file in accordance with the UART transfer protocol for upgrading the firmware of the adapter when the adapter is in an upgrading mode responsive to the UART mode, wherein the MCU is built in the adapter .
Use of compound 2-(2,4-dichlorophenyl)methyl-4,4-dimethyl-3-isoxazolidone (compound I) as foliar herbicide, wherein cloquintocet-mexyl is added as safener.
A machine for processing hides, which comprises a supporting framework which defines an entry zone for the hide to be processed and an exit zone for the processed hide and which supports at least two processing stations which are arranged along the route of the hide between said entry zone and said exit zone , transport means for the hide from said entry zone to said exit zone being provided, said transport means comprising at least one entrainment assembly which has at least one pair of conveyor belts which roll continuously and define respective entrainment portions which are mutually facing and are designed to come into contact with the opposite faces of the hide being processed, characterized in that each one of said processing stations comprises a respective scraper cylinder and a respective contrast element which is adapted to push the hides against the scraper cylinder , said processing stations being arranged one above the other, said at least one entrainment assembly being positioned between said processing stations .
A method of performing mass spectrometry, comprising: accumulating , over an accumulation time, ions produced from components eluting from a chromatography column ; transferring the accumulated ions to a mass analyzer ; acquiring , during an acquisition, a mass spectrum of detected ions derived from the transferred ions; obtaining , from a series of acquired mass spectra including the acquired mass spectrum and a plurality of previously-acquired mass spectra , an elution profile comprising a plurality of detection points representing intensity of the detected ions as a function of time; classifying , based on a subset of detection points included in the plurality of detection points , a current signal state of the elution profile as one of the group consisting of a baseline state, a rising state, an apex state and a falling state; and setting , for a next acquisition of a mass spectrum, the accumulation time based on the classified current signal state of the elution profile. accumulating , over an accumulation time, ions produced from components eluting from a chromatography column ; transferring the accumulated ions to a mass analyzer ; acquiring , during an acquisition, a mass spectrum of detected ions derived from the transferred ions; obtaining , from a series of acquired mass spectra including the acquired mass spectrum and a plurality of previously-acquired mass spectra , an elution profile comprising a plurality of detection points representing intensity of the detected ions as a function of time; classifying , based on a subset of detection points included in the plurality of detection points , a current signal state of the elution profile as one of the group consisting of a baseline state, a rising state, an apex state and a falling state; and setting , for a next acquisition of a mass spectrum, the accumulation time based on the classified current signal state of the elution profile.