mhurhangee/patent-ind-claim-en huggingface dataset:
Electric steam iron, comprising an iron with a vaporisation device, wherein the vaporisation device has a heating device and a temperature control device; wherein the heating device has a first heating body and a second heating body ; wherein the first heating body is provided with a preheating chamber within the iron, and the second heating body is provided with a vaporisation chamber ; wherein the temperature control device is designed so as to control the temperature of the first heating body; wherein the preheating chamber has a water inlet hole; a water outlet hole of the preheating chamber is connected to a water inlet hole of the vaporisation chamber, and the vaporisation chamber is also provided with a steam discharge hole; wherein the vaporisation chamber is provided inside the iron; characterised in that , a machine stand with a water supply device , and a connecting tube , are provided, wherein the iron is connected to the machine stand via the connecting tube, and the water inlet hole of the preheating chamber is connected to the water supply device so as to supply water from the water supply device to the preheating chamber, wherein the weight of the first heating body is greater than or equal to 200 g, and less than 2000 g, the water supply device comprises a water tank and a water pump, wherein the water pump is a mechanical pump, or an electromagnetic vibration pump, and a flow channel is provided in the preheating chamber, such that the water is heated to its full extent as it flows through the preheating chamber.
A cap liner, comprising: a sintered plasma etched fluoropolymer layer; and a backing layer; wherein the sintered plasma etched fluoropolymer layer is in direct physical contact with the backing layer with no intervening layer located there between. a sintered plasma etched fluoropolymer layer; and a backing layer; wherein the sintered plasma etched fluoropolymer layer is in direct physical contact with the backing layer with no intervening layer located there between.
A system for performing automated defect detection for a flexible member using image processing, the system comprising: one or more sensors configured to monitor a flexible member ; an image processor configured to convert the sensor data from the one or more sensors to image data; and a processing module configured to: receive reference image data, compare the image data with the reference image data ; determine a defect based on the comparison and a threshold setting information for the flexible member; and characterized in that : the threshold setting information is based on an application type for the flexible member, wherein the threshold setting information comprises, for the same flexible member, different acceptable thresholds and different tolerances for operation based on the application type; and the processing module is further configured to: categorize the defect into one or more classes based at least in part on the defect, wherein the one or more classes indicates remaining life of the flexible member based on an application for the flexible member; and transmit a notification based on the defect. one or more sensors configured to monitor a flexible member ; an image processor configured to convert the sensor data from the one or more sensors to image data; and a processing module configured to: receive reference image data, compare the image data with the reference image data ; determine a defect based on the comparison and a threshold setting information for the flexible member; receive reference image data, compare the image data with the reference image data ; determine a defect based on the comparison and a threshold setting information for the flexible member; the threshold setting information is based on an application type for the flexible member, wherein the threshold setting information comprises, for the same flexible member, different acceptable thresholds and different tolerances for operation based on the application type; and the processing module is further configured to: categorize the defect into one or more classes based at least in part on the defect, wherein the one or more classes indicates remaining life of the flexible member based on an application for the flexible member; and transmit a notification based on the defect. categorize the defect into one or more classes based at least in part on the defect, wherein the one or more classes indicates remaining life of the flexible member based on an application for the flexible member; and transmit a notification based on the defect.
Passing flow centrifuge comprising a driving arrangement and/or transmission arrangement with a planetary gear set wherein at least one planetary belt gear (34; 36) is supported for being rotated on a rotating planet carrier , a torque of the planetary belt gear (34; 36) being transmitted by a belt (33; 37) and the planet carrier and the planetary belt gear (34; 36) being driven with different numbers of revolutions, characterised in that the planet carrier is held by a belt tensioning unit rotating with the planet carrier , wherein by means of the belt tensioning unit it is possible to change a distance of the planet carrier from a rotor axis .
A system, comprising: a signal sensor circuit , including a sense amplifier circuit to sense a heart sound (HS) signal from a patient; a memory circuit ; a HS component detector circuit , coupled to the signal sensor circuit and the memory circuit to detect at least first and different second HS components from the received HS signal; a HS metric generator circuit , coupled to the HS component detector circuit to use the detected first and second HS components to respectively generate first and second HS metrics stored in the memory circuit; a blending circuit , coupled to the memory circuit or the HS metric generator circuit to generate one or more composite HS metrics using the first and second metrics, wherein one of the one or more composite HS metrics is determined as a function of the first and second HS metrics, wherein the function includes a product of the first and second HS metrics; and a heart failure (HF) event detector circuit being configured to detect a HF status using a combination of at least one of the first or second HS metric and at least one of the one or more composite HS metrics, wherein said at least one of the one or more composite HS metrics comprises said one of the one or more composite HS metrics which is determined as a function of the first and second HS metrics; and an output circuit configured to output an indication of the HF status. a signal sensor circuit , including a sense amplifier circuit to sense a heart sound (HS) signal from a patient; a memory circuit ; a HS component detector circuit , coupled to the signal sensor circuit and the memory circuit to detect at least first and different second HS components from the received HS signal; a HS metric generator circuit , coupled to the HS component detector circuit to use the detected first and second HS components to respectively generate first and second HS metrics stored in the memory circuit; a blending circuit , coupled to the memory circuit or the HS metric generator circuit to generate one or more composite HS metrics using the first and second metrics, wherein one of the one or more composite HS metrics is determined as a function of the first and second HS metrics, wherein the function includes a product of the first and second HS metrics; and a heart failure (HF) event detector circuit being configured to detect a HF status using a combination of at least one of the first or second HS metric and at least one of the one or more composite HS metrics, wherein said at least one of the one or more composite HS metrics comprises said one of the one or more composite HS metrics which is determined as a function of the first and second HS metrics; and an output circuit configured to output an indication of the HF status.
An optical scanning beam system comprising: a collimator configured to receive an optical fiber coupled to a source of the system; a scan mirror assembly coupled to the collimator of the system; and a focal assembly preceding the scan mirror assembly of the system between the collimator and the scan mirror assembly , wherein the focal assembly is configured to change both a numerical aperture, NA, of the system and a focus of the system responsive to a control input, characterised in that the focal assembly comprises a hybrid telescope , HT, the HT comprising: a first positive lens following the collimator ; a second, movable, negative lens following the first positive lens ; and a third, moveable, positive lens following the second movable, negative lens and preceding the scan mirror assembly . a collimator configured to receive an optical fiber coupled to a source of the system; a scan mirror assembly coupled to the collimator of the system; and a focal assembly preceding the scan mirror assembly of the system between the collimator and the scan mirror assembly , wherein the focal assembly is configured to change both a numerical aperture, NA, of the system and a focus of the system responsive to a control input, characterised in that the focal assembly comprises a hybrid telescope , HT, the HT comprising: a first positive lens following the collimator ; a second, movable, negative lens following the first positive lens ; and a third, moveable, positive lens following the second movable, negative lens and preceding the scan mirror assembly . a first positive lens following the collimator ; a second, movable, negative lens following the first positive lens ; and a third, moveable, positive lens following the second movable, negative lens and preceding the scan mirror assembly .
A method in a radio network node adapted to serve a carrier aggregation capable wireless terminal , the method comprising : determining a scheduling instance during which the wireless terminal is expected to be scheduled on at least one cell; and determining , based on the scheduling instance, a timing at which to send a setup command or a release command for a secondary cell, such that a corresponding setup procedure or release procedure does not coincide with the scheduling instance. determining a scheduling instance during which the wireless terminal is expected to be scheduled on at least one cell; and determining , based on the scheduling instance, a timing at which to send a setup command or a release command for a secondary cell, such that a corresponding setup procedure or release procedure does not coincide with the scheduling instance.
Shielding element comprising at least two sections which are designed to be joined together in abutting relationship at at least one separating surface in order to enclose a three-dimensionally shaped pipe section (R) of an exhaust gas train of an internal combustion engine over a length in an application, characterised in that the sections of the shielding element each comprise at least one electrical heating system which, in an installation position on the pipe section (R) to be enclosed on the outside, is directed thermally inwards towards the pipe section (R) to be enclosed.
A method performed by a device for monitoring a radio link control, RLC, communication path for transmitting data units, DUs, the method comprising or triggering the step of: determining a decline of the RLC communication path based on a timer for one or more unacknowledged DUs transmitted on the RLC communication path, wherein the timer is reinitiated upon receiving an acknowledgment for the oldest DU among the unacknowledged DUs transmitted on the RLC communication path, and characterized in that reinitiating the timer includes initiating the timer according to the time elapsed since transmitting the second-oldest DU among the transmitted and unacknowledged DUs, and wherein determining the decline includes, upon elapse of at least one duration of the timer, reducing a channel quality indicator for a physical channel used by the RLC communication path. determining a decline of the RLC communication path based on a timer for one or more unacknowledged DUs transmitted on the RLC communication path, wherein the timer is reinitiated upon receiving an acknowledgment for the oldest DU among the unacknowledged DUs transmitted on the RLC communication path, and characterized in that reinitiating the timer includes initiating the timer according to the time elapsed since transmitting the second-oldest DU among the transmitted and unacknowledged DUs, and wherein determining the decline includes, upon elapse of at least one duration of the timer, reducing a channel quality indicator for a physical channel used by the RLC communication path.
A method for preparing a reagent cartridge, the method comprising: attaching a plurality of flexible enclosures to a cartridge lid ; securing the cartridge lid to a cartridge base ), the cartridge lid defining a plurality of openings, an opening of the cartridge lid providing access to an interior of an enclosure of the plurality of enclosures; inserting a plurality of reagent containers ) into the plurality of enclosures, a reagent container of the plurality of reagent containers extending through the opening to the interior of the enclosure, the reagent container including a reagent in an internal cavity defining a compressible volume, an access defined through the reagent container to the internal cavity, and securing a port gasket to the cartridge lid to permit connection of a compressed air system to the reagent cartridge. attaching a plurality of flexible enclosures to a cartridge lid ; securing the cartridge lid to a cartridge base ), the cartridge lid defining a plurality of openings, an opening of the cartridge lid providing access to an interior of an enclosure of the plurality of enclosures; inserting a plurality of reagent containers ) into the plurality of enclosures, a reagent container of the plurality of reagent containers extending through the opening to the interior of the enclosure, the reagent container including a reagent in an internal cavity defining a compressible volume, an access defined through the reagent container to the internal cavity, and securing a port gasket to the cartridge lid to permit connection of a compressed air system to the reagent cartridge.
A pod for a vehicle, vessel or craft , comprising: an electrical device ; a thermal management system for the electrical device , the thermal management system comprising: a heat-activated release hydrogen storage tank ; and a fluid coolant comprising a carrier fluid and encapsulated phase change material (PCM) particles suspended in the carrier fluid; and an auxiliary power unit (APU) , fuelled, at least in part, by the released hydrogen , and adapted to provide power to both the electrical device and the thermal management system . an electrical device ; a thermal management system for the electrical device , the thermal management system comprising: a heat-activated release hydrogen storage tank ; and a fluid coolant comprising a carrier fluid and encapsulated phase change material (PCM) particles suspended in the carrier fluid; and a heat-activated release hydrogen storage tank ; and a fluid coolant comprising a carrier fluid and encapsulated phase change material (PCM) particles suspended in the carrier fluid; and an auxiliary power unit (APU) , fuelled, at least in part, by the released hydrogen , and adapted to provide power to both the electrical device and the thermal management system .
An aqueous formulation comprising a compound shown by the following Formula (I): (in which R 1 represents a hydrogen atom or an acyl group, and R 2 represents a hydrogen atom, a linear or branched alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group) or a salt thereof and an iron compound, characterized in that it further comprises 2.5 - 30 % by weight of salts, said salts are sodium salts selected from sodium chloride, sodium sulfate, sodium carbonate, and sodium acetate, or potassium salts selected from potassium chloride, potassium acetate, and potassium carbonate, and the pH of said aqueous formulation is 2 - 8. further comprises 2.5 - 30 % by weight of salts, said salts are sodium salts selected from sodium chloride, sodium sulfate, sodium carbonate, and sodium acetate, or potassium salts selected from potassium chloride, potassium acetate, and potassium carbonate, and the pH of said aqueous formulation is 2 - 8.
Use of a compound according to formula (I) wherein G is or H, or an agrochemically acceptable salt or an N-oxide thereof; as a treatment on crop plants to combat and control nematodes in the soil of said crop plants. wherein G is or H, or an agrochemically acceptable salt or an N-oxide thereof; as a treatment on crop plants to combat and control nematodes in the soil of said crop plants.
A double submodule for a modular multilevel power converter comprising a first and a second submodule coupled to the first one, wherein each submodule (19; 21) comprises: an asymmetric H bridge circuit (22; 32) with two parallel bridge branches which are connected between a first and a second direct voltage node (27, 28; 37, 38) of the submodule (19; 21), wherein each bridge branch (24, 26; 34, 36) is formed by a series connection of a controllable power semiconductor switch (T2, T3, T5, T6) and a diode (D1, D4, D5, D7); and a capacitor (C1, C2) which is connected in parallel to the asymmetric H bridge circuit (22; 32) between the first and the second direct voltage node (27, 28; 37, 38) of the submodule (19; 21); wherein the first submodule comprises a first bridge branch with a series connection of a first controllable power semiconductor switch (T2) and a first diode (D1), the cathode of which is connected to the first direct voltage node of the first submodule , and a second bridge branch with a series connection of a second controllable power semiconductor switch (T3) and a second diode (D4), the anode of which is connected to the second direct voltage node of the first submodule , wherein the second submodule comprises a first bridge branch with a series connection of a first controllable power semiconductor switch (T3; T5) and a first diode (D4), the cathode of which is connected to the first direct voltage node of the second submodule , and a second bridge branch with a series connection of a second controllable power semiconductor switch (T6) and a second diode (D7), the anode of which is connected to the second direct voltage node of the second submodule , and wherein the first and the second submodule (19; 21) are connected in such a way that a power semiconductor switch (T3) or a diode (D4) is both part of the second bridge branch of the first submodule and part of the first bridge branch of the second submodule . an asymmetric H bridge circuit (22; 32) with two parallel bridge branches which are connected between a first and a second direct voltage node (27, 28; 37, 38) of the submodule (19; 21), wherein each bridge branch (24, 26; 34, 36) is formed by a series connection of a controllable power semiconductor switch (T2, T3, T5, T6) and a diode (D1, D4, D5, D7); and a capacitor (C1, C2) which is connected in parallel to the asymmetric H bridge circuit (22; 32) between the first and the second direct voltage node (27, 28; 37, 38) of the submodule (19; 21);
A method for simultaneously starting two engines in a twin engine installation having a first engine arrangement and a second engine arrangement, the method characterised by comprising: receiving a first voltage level from a power source and increasing the first voltage level to a second voltage level; charging an energy storage unit having at least a first super-capacitor and a second super-capacitor to the second voltage level; applying power to the first engine arrangement from the first super-capacitor to start a first engine; and applying power to the second engine arrangement from the second super-capacitor to start the second engine. receiving a first voltage level from a power source and increasing the first voltage level to a second voltage level; charging an energy storage unit having at least a first super-capacitor and a second super-capacitor to the second voltage level; applying power to the first engine arrangement from the first super-capacitor to start a first engine; and applying power to the second engine arrangement from the second super-capacitor to start the second engine.
A motion video encoding apparatus for encoding each picture contained in motion video data by dividing the picture into a plurality of blocks, comprising: a group determining unit which determines, for each picture, to which of a plurality of groups within the picture each block belongs, and determines a size of each of the plurality of groups; a group decode time information computing unit which computes a decode time for each of the groups; a group information appending unit which appends group information identifying the group to which each block belongs and decode time information representing the decode time for each of the groups to data to be output; a code amount control unit which controls an amount of code for each block contained in the group so that data needed for decoding all the blocks contained in the group will arrive at a stream receive buffer provided in a motion video decoding apparatus by the decode time of the group computed by the group decode time information computing unit when the data is transmitted to the motion video decoding apparatus at a prescribed transmission rate; and an encode processing unit which encodes each block, based on control information concerning the amount of code. a group determining unit which determines, for each picture, to which of a plurality of groups within the picture each block belongs, and determines a size of each of the plurality of groups; a group decode time information computing unit which computes a decode time for each of the groups; a group information appending unit which appends group information identifying the group to which each block belongs and decode time information representing the decode time for each of the groups to data to be output; a code amount control unit which controls an amount of code for each block contained in the group so that data needed for decoding all the blocks contained in the group will arrive at a stream receive buffer provided in a motion video decoding apparatus by the decode time of the group computed by the group decode time information computing unit when the data is transmitted to the motion video decoding apparatus at a prescribed transmission rate; and an encode processing unit which encodes each block, based on control information concerning the amount of code.