mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for treating floors, in particular a scrubber dryer apparatus for floors comprising a floor-contact part equipped with at least one tool for treating a floor (P), and a guide part connected to said floor-contact part , at least one motor member to suck an operating fluid from said floor (P), a cooling circuit to cool said motor member by means of a flow of cooling air, said circuit cooling comprising a filter member for filtering said flow of cooling air, said floor-contact part and said guide part being mutually connected by means of an articulation assembly which enables said guide part to be oriented in different positions with respect to said floor-contact part , said guide part being provided with at least one handle characterised in that it comprises a collection circuit of said operating fluid present on the floor (P) to be treated, said operating fluid comprising at least a portion of air, and a further filter member positioned at said collection circuit , to filter said portion of air separated from said collected operating fluid, said collection circuit comprising a suction opening , through which said operating fluid is sucked from said floor (P), a collection pipe connected, at one end, to said suction opening and, at the other end, to a collection tank of said apparatus arranged in the guide part of the apparatus , and a return duct , which connects the top of said collecting tank in use with said floor-contact part , so that the air separated from the sucked operating fluid flows out, said further filter member being arranged in said return duct , in order to filter out any contaminating particles present in the air separated from the aspirated operating fluid.
A method for preparing an acryloxy or methacryloxy group-containing organosilicon compound of general formula below wherein R 1 is a substituted or unsubstituted monovalent hydrocarbon group of 1 to 10 carbon atoms, R 2 is a hydrogen atom or a methyl group, R 3 is an unsubstituted divalent hydrocarbon group of 1 to 18 carbon atoms, X is a halogen atom and n is an integer of 1, 2 or 3, which method comprises the step of subjecting a hydrohalosilane compound of general formula below HSiX n R 1 3-n wherein R 1 , X and n are as defined above and an alkenyl group-containing (meth)acrylate compound of general formula below wherein R 2 and R 3 are as defined above to a hydrosilylation reaction in the presence of an acid amide compound and a platinum catalyst. wherein R 1 is a substituted or unsubstituted monovalent hydrocarbon group of 1 to 10 carbon atoms, R 2 is a hydrogen atom or a methyl group, R 3 is an unsubstituted divalent hydrocarbon group of 1 to 18 carbon atoms, X is a halogen atom and n is an integer of 1, 2 or 3, which method comprises the step of subjecting a hydrohalosilane compound of general formula below HSiX n R 1 3-n wherein R 1 , X and n are as defined above and an alkenyl group-containing (meth)acrylate compound of general formula below wherein R 2 and R 3 are as defined above to a hydrosilylation reaction in the presence of an acid amide compound and a platinum catalyst.
A system for sequencing nucleic acid samples, the system comprising: a sequencing instrument for interrogating a control set and a nucleic acid sample for producing control data for the control set and sample data for the nucleic acid sample; and a processor in communication with the sequencing instrument configured to: receive the control data and the sample data from the sequencing instrument ; determine a control quality value for the control data and a sample quality value for the sample data , the control quality value identifying a signal to noise ratio of the control data, and the sample quality value identifying a signal to noise ratio of the sample data, compare the control quality value to the sample quality value ; when the sample quality value is below a predetermined threshold and the control quality value is above the predetermined threshold, identifying a problem with the sample, perform an event handling routine based on the comparison of the control quality value to the sample quality value and, wherein the processor is further configured to send an instruction to the sequencing instrument to suspend interrogating when a problem with the sample has been identified . a sequencing instrument for interrogating a control set and a nucleic acid sample for producing control data for the control set and sample data for the nucleic acid sample; and a processor in communication with the sequencing instrument configured to: receive the control data and the sample data from the sequencing instrument ; determine a control quality value for the control data and a sample quality value for the sample data , the control quality value identifying a signal to noise ratio of the control data, and the sample quality value identifying a signal to noise ratio of the sample data, receive the control data and the sample data from the sequencing instrument ; determine a control quality value for the control data and a sample quality value for the sample data , the control quality value identifying a signal to noise ratio of the control data, and the sample quality value identifying a signal to noise ratio of the sample data, compare the control quality value to the sample quality value ; when the sample quality value is below a predetermined threshold and the control quality value is above the predetermined threshold, identifying a problem with the sample, perform an event handling routine based on the comparison of the control quality value to the sample quality value and, wherein the processor is further configured to send an instruction to the sequencing instrument to suspend interrogating when a problem with the sample has been identified .
A method applied to a signal synchronization system, wherein the system comprises a stylus and an electronic device, the electronic device supports (S1501) a first refresh rate and a second refresh rate higher than the first refresh rate, and the method comprises: after the electronic device is wirelessly connected to the stylus, sampling (S1502), by the electronic device, a downlink signal from the stylus based on a third refresh rate, wherein the third refresh rate is equal to the first refresh rate; sending, by the stylus, a downlink signal to the electronic device based on the third refresh rate, and sampling (S1503) an uplink signal from the electronic device at a fourth refresh rate, wherein the fourth refresh rate is the least common multiple of the first refresh rate and the second refresh rate and higher than the first refresh rate and the second refresh rate, wherein the method further comprises: sending, by the electronic device, the uplink signal to the stylus at the first refresh rate; and the method further comprises: when the stylus detects that the electronic device is switched from the first refresh rate to the second refresh rate, sending, by the stylus, the downlink signal to the electronic device based on the second refresh rate, and sampling the uplink signal from the electronic device at the fourth refresh rate, wherein the switching of the electronic device from the first refresh rate to the second refresh rate represents: sending, by the electronic device, the uplink signal to the stylus at the second refresh rate, and sampling the downlink signal from the stylus based on the second refresh rate. after the electronic device is wirelessly connected to the stylus, sampling (S1502), by the electronic device, a downlink signal from the stylus based on a third refresh rate, wherein the third refresh rate is equal to the first refresh rate; sending, by the stylus, a downlink signal to the electronic device based on the third refresh rate, and sampling (S1503) an uplink signal from the electronic device at a fourth refresh rate, wherein the fourth refresh rate is the least common multiple of the first refresh rate and the second refresh rate and higher than the first refresh rate and the second refresh rate, wherein the method further comprises: sending, by the electronic device, the uplink signal to the stylus at the first refresh rate; and the method further comprises: when the stylus detects that the electronic device is switched from the first refresh rate to the second refresh rate, sending, by the stylus, the downlink signal to the electronic device based on the second refresh rate, and sampling the uplink signal from the electronic device at the fourth refresh rate, wherein the switching of the electronic device from the first refresh rate to the second refresh rate represents: sending, by the electronic device, the uplink signal to the stylus at the second refresh rate, and sampling the downlink signal from the stylus based on the second refresh rate.
Device for disinfecting containers in a beverage bottling system, comprising a container treatment device and an insulator space shielded from the environment, in which a disinfection of containers can be carried out, and a reservoir for receiving a disinfectant for the disinfection of the containers, wherein the reservoir is integrated into the insulator space and the container treatment device is provided so that said container treatment device draws off the disinfectant in a lower plane of the reservoir and applies it by means of a container treatment nozzle to the containers to be treated, and the insulator space has cleaning nozzles for cleaning the insulator space , and the cleaning nozzles are also designed for cleaning the reservoir .
A gateway device for an IoT system configured for Bluetooth low energy (BLE) communication, comprising: a short range (SR) wireless communication module for interfacing with one or more BLE sensors, actuators or devices (150-155); a memory unit containing a software to control a micro-controller , wherein data from the one or more BLE sensors, actuators or devices (150-155) are aggregated into a data package such that a BLE scan cycle is divided into 64 equal time blocks so that a BLE scan window has a scan interval lasting 160 ms; and the BLE scan window is shifted by one time block for each scan cycle to listen for any BLE sensor (150-155) that is located within range and is cyclically advertising; a low power, long range (LR) wireless communication module for transmitting the data package to a monitor centre at predetermined time periods; an artificial intelligence or a machine learning module disposed in the micro-controller to record time blocks when the SR wireless communication is silent and, in response, to turn on a radio associated with the LR wireless communication, so as to avert interference between the SR and LR wireless communication; and a battery for powering the gateway device ; characterised by : the BLE scan window shifting and listening processes are repeated until a scan window time block substantially or effectively coincides with a time block that a BLE sensor (150-155) is advertising, and in response, the artificial intelligence or the machine learning module turns on a BLE scanner located in the gateway device during these coincidental or connected time blocks to conserve power in the battery . a short range (SR) wireless communication module for interfacing with one or more BLE sensors, actuators or devices (150-155); a memory unit containing a software to control a micro-controller , wherein data from the one or more BLE sensors, actuators or devices (150-155) are aggregated into a data package such that a BLE scan cycle is divided into 64 equal time blocks so that a BLE scan window has a scan interval lasting 160 ms; and the BLE scan window is shifted by one time block for each scan cycle to listen for any BLE sensor (150-155) that is located within range and is cyclically advertising; a low power, long range (LR) wireless communication module for transmitting the data package to a monitor centre at predetermined time periods; an artificial intelligence or a machine learning module disposed in the micro-controller to record time blocks when the SR wireless communication is silent and, in response, to turn on a radio associated with the LR wireless communication, so as to avert interference between the SR and LR wireless communication; and a battery for powering the gateway device ; characterised by : the BLE scan window shifting and listening processes are repeated until a scan window time block substantially or effectively coincides with a time block that a BLE sensor (150-155) is advertising, and in response, the artificial intelligence or the machine learning module turns on a BLE scanner located in the gateway device during these coincidental or connected time blocks to conserve power in the battery .
A belt , comprising: a plurality of lengthwise-extending tension members ; and a jacket substantially retaining the plurality of tension members , the jacket having a first side region , a second side region , and a center region between the first and second side regions , the jacket further comprising a first side surface opposing a second side surface , the first and second side surfaces extending between a first traction surface and a second traction surface ; wherein a widthwise distance between the first and second side surfaces is greater than a heightwise distance between the first and second traction surfaces ; wherein the first side region is contiguous with the first side surface , and the second side region is contiguous with the second side surface ; and wherein the first and second side regions of the jacket are more fire retardant than the center region of the jacket ; characterised in that : the first and second side regions of the jacket are made from a first material and the center region is made from a second material, the first material including a greater concentration of a fire-retardant material than the second material of the center region , wherein the second material of the center region extends from the first traction surface to the second traction surface . a plurality of lengthwise-extending tension members ; and a jacket substantially retaining the plurality of tension members , the jacket having a first side region , a second side region , and a center region between the first and second side regions , the jacket further comprising a first side surface opposing a second side surface , the first and second side surfaces extending between a first traction surface and a second traction surface ; wherein a widthwise distance between the first and second side surfaces is greater than a heightwise distance between the first and second traction surfaces ; wherein the first side region is contiguous with the first side surface , and the second side region is contiguous with the second side surface ; and wherein the first and second side regions of the jacket are more fire retardant than the center region of the jacket ; characterised in that : the first and second side regions of the jacket are made from a first material and the center region is made from a second material, the first material including a greater concentration of a fire-retardant material than the second material of the center region , wherein the second material of the center region extends from the first traction surface to the second traction surface .
A method for manufacturing a metallic-sodium-filled engine valve in which a hollow valve (V) having a hollow part (H) inside a stem part (S) and a head part (A) as well as an opening (O) at an upper end of the stem part (S) is provided thereinside with metallic sodium (Na) from the opening (O) of the stem part (S), and then the opening (O) is closed such that the engine valve is filled with the metallic sodium (Na) thereinside, the method comprising: a head part metallic sodium insertion step of inserting rod-shaped metallic sodium (Na) into the hollow part (H) of the hollow valve (V); the method being characterized in that it comprises: a melting step of melting the metallic sodium (Na) in the hollow part (H) by inserting a push rod from the opening (O) into the hollow part (H) of the hollow valve (V) in which the metallic sodium (Na) is inserted at the head part metallic sodium insertion step, and by pressing the rod-shaped metallic sodium (Na) in the hollow part (H) while heating the head part (A) to a temperature high enough to melt metallic sodium (Na), and then pulling the push rod out of the hollow part (H) while stopping heating the head part (A); a stem part cooling step of cooling the stem part (S) of the hollow valve (V) in a state after the metallic sodium (Na) is melted and heating the head part (A) of the hollow valve (V) is stopped at the melting step, to below the melting point of metallic sodium (Na); and a stem part metallic sodium insertion step of inserting rod-shaped metallic sodium (Na) into the hollow part (H) of the hollow valve (V) cooled at the stem part cooling step. a melting step of melting the metallic sodium (Na) in the hollow part (H) by inserting a push rod from the opening (O) into the hollow part (H) of the hollow valve (V) in which the metallic sodium (Na) is inserted at the head part metallic sodium insertion step, and by pressing the rod-shaped metallic sodium (Na) in the hollow part (H) while heating the head part (A) to a temperature high enough to melt metallic sodium (Na), and then pulling the push rod out of the hollow part (H) while stopping heating the head part (A); a stem part cooling step of cooling the stem part (S) of the hollow valve (V) in a state after the metallic sodium (Na) is melted and heating the head part (A) of the hollow valve (V) is stopped at the melting step, to below the melting point of metallic sodium (Na); and a stem part metallic sodium insertion step of inserting rod-shaped metallic sodium (Na) into the hollow part (H) of the hollow valve (V) cooled at the stem part cooling step.
Method for operating an air conditioning system , which can be operated as a heat pump for heating an interior of a vehicle in a heat pump mode and as a refrigeration machine for cooling the interior in a cooling mode, the air conditioning system having a compressor by means of which a refrigerant is compressed in the heat pump mode and in the cooling mode, at least one first heat exchanger operated in the heat pump mode as an evaporator for evaporating the refrigerant and in the cooling mode as a cooling device for cooling the refrigerant, and at least one second heat exchanger operated in the heat pump mode as a cooling device for cooling the refrigerant and in the cooling mode as an evaporator for evaporating the refrigerant, wherein the air conditioning system is operated in a defrosting mode in which the respective heat exchanger is operated in parallel as a cooling device for cooling the refrigerant and as an evaporator for evaporating the refrigerant, wherein the refrigerant flows in the defrosting mode through at least one respective first sub-region and through at least one second sub-region of the respective heat exchanger , wherein the respective first sub-region is operated as a cooling device for cooling the refrigerant in the defrosting mode, and wherein the respective second sub-region is operated in parallel to the respective first sub-region as an evaporator for evaporating the refrigerant, characterised in that the refrigerant flows in the defrosting mode through the first sub-region of the first heat exchanger and through the second sub-region of the second heat exchanger with a first mass flow and through the second sub-region of the first heat exchanger and through the first sub-region of the second heat exchanger with a second mass flow which is different from the first mass flow.
A linker-drug intermediate of Formula Ic: wherein R 1 and R 2 are independently selected from H or C 1 -C 6 alkyl, or R 1 and R 2 form a 3, 4, 5, or 6-membered cycloalkyl or heterocyclyl group; R 3 is independently selected from NO 2 , Cl, F, CN, CO 2 H or Br; R 4 and R 5 are =O; and m is 0, 1 or 2. wherein R 1 and R 2 are independently selected from H or C 1 -C 6 alkyl, or R 1 and R 2 form a 3, 4, 5, or 6-membered cycloalkyl or heterocyclyl group; R 3 is independently selected from NO 2 , Cl, F, CN, CO 2 H or Br; R 4 and R 5 are =O; and m is 0, 1 or 2.
A production method for an Fe-based nanocrystalline alloy core composed of a wound Fe-based nanocrystalline alloy ribbon, the method comprising, after winding an Fe-based amorphous alloy ribbon that is capable of nanocrystallization, a heat treatment step of heating the Fe-based amorphous alloy ribbon up to a crystallization temperature region and cooling the Fe-based amorphous alloy ribbon, wherein the heat treatment step comprises a magnetic field application step of applying a magnetic field in a height direction of the core for not less than 10 minutes and not more than 60 minutes, within only a temperature range in a period of temperature elevation spanning from a temperature which is 25°C higher than a crystallization onset temperature by differential scanning calorimeter to a temperature which is 60°C higher than the crystallization onset temperature.
Method for testing the oxidation capability of an NO oxidation catalytic converter installed in the exhaust line of an internal combustion engine which is operated with an excess of air, characterized in that , for the testing of the oxidation capability of the NO oxidation catalytic converter , a defined quantity of carbon monoxide as reducing agent is metered in and/or generated upstream of the NO oxidation catalytic converter through variation of at least one defined internal combustion engine operating parameter, such that the carbon monoxide emissions of the internal combustion engine are increased in relation to a setting in a non-testing phase, in that said carbon monoxide is oxidized at the NO oxidation catalytic converter with the aid of the oxygen contained in the exhaust-gas flow upstream of the NO oxidation catalytic converter, and in that the change in the oxygen content in the exhaust-gas flow within and/or downstream of the NO oxidation catalytic converter caused as a result of the oxidation of the metered-in and/or generated carbon monoxide is detected and/or ascertained as an oxygen actual value and is compared with a predefined oxygen setpoint value, wherein, in the presence of a defined deviation of the oxygen actual value from the oxygen setpoint value, an impaired oxidation capability of the NO oxidation catalytic converter is inferred.
A chewy confection composition comprising: (a) a non-cariogenic sweetener comprising erythritol; (b) a doctoring agent comprising sucromalt; (c) fat; and (d) a gelling agent, wherein a solids weight ratio of doctoring agent to erythritol is from 1.3:1 to 2.5:1. (a) a non-cariogenic sweetener comprising erythritol; (b) a doctoring agent comprising sucromalt; (c) fat; and (d) a gelling agent,
An insert part and base plate for an orthodontic bracket; wherein a first edge of the base plate forms a region which is crimped by more than 180° and less than 360° in order to form a hinge bearing for receiving a flap, and a second edge of the base plate which is opposite to the first edge is crimped by 180° to form a crimped region which, with the aid of the insert part , serves to centrally guide and/or retain an orthodontic arch wire (300 - 303); wherein the insert part can be interchangeably inserted into the base plate in order to guide and/or retain the arch wire (300 - 303); wherein the insert part has an extension the shape of which is such that it fits into a bent region of the second edge of the base plate in a positive locking and/or non-positive locking manner; wherein the insert part has a retaining extension which is formed opposite to the extension and which engages with the first edge of the base plate , when the insert part has been inserted.