mhurhangee/patent-ind-claim-en huggingface dataset:
A method of analyzing potassium content in soil, the method comprising: a) obtaining a soil sample; b) adding a liquid to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction and performing chemical analysis on the soil mixture flowing through the analysis tool, whereby a potassium absorbance of the soil mixture is measured. a) obtaining a soil sample; b) adding a liquid to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction and performing chemical analysis on the soil mixture flowing through the analysis tool, whereby a potassium absorbance of the soil mixture is measured.
An electric power tool comprising: an output shaft on which a front-end tool is adapted to be mounted; a power transmission mechanism that transmits a rotational output of a driving source to the output shaft ; a posture information acquisition unit that acquires posture information for identifying a posture of the electric power tool ; a torque information acquisition unit that acquires torque information indicating a measured value of tightening torque produced by the front-end tool; a transmission unit that transmits the posture information, the torque information, and time information related to a time when respective information is acquired, to an external apparatus ; characterised in that it further comprises a reception unit that receives recommendation information generated based on the posture information, the torque information, and the time information; a notification interface that communicates the recommendation information received; and a drive restriction unit that restricts the driving source from being driven while the recommendation information is being communicated by the notification interface, wherein the recommendation information is a type of the electric power tool suited to an estimated content of work or an optimum value of an operation parameter in the electric power tool being used. an output shaft on which a front-end tool is adapted to be mounted; a power transmission mechanism that transmits a rotational output of a driving source to the output shaft ; a posture information acquisition unit that acquires posture information for identifying a posture of the electric power tool ; a torque information acquisition unit that acquires torque information indicating a measured value of tightening torque produced by the front-end tool; a transmission unit that transmits the posture information, the torque information, and time information related to a time when respective information is acquired, to an external apparatus ; characterised in that it further comprises a reception unit that receives recommendation information generated based on the posture information, the torque information, and the time information; a notification interface that communicates the recommendation information received; and a drive restriction unit that restricts the driving source from being driven while the recommendation information is being communicated by the notification interface, wherein the recommendation information is a type of the electric power tool suited to an estimated content of work or an optimum value of an operation parameter in the electric power tool being used.
An echogenic over-the-needle (OTN) catheter assembly , comprising: a catheter comprising a proximal end and a distal end and defining a lumen extending from said proximal end to said distal end; a needle configured within the lumen of said catheter; and an echogenic member , the echogenic member being configured to surround at least one of a portion of the needle of the OTN catheter assembly or a portion of the catheter of the OTN catheter assembly, wherein a longitudinal length of said echogenic member is less than a total length of the catheter of the OTN catheter assembly; and characterised in that the echogenic member comprises a cylindrical body comprising a first end and a second end defining said longitudinal length , said body defining an exterior surface extending from the first end to the second end , the exterior surface comprising a plurality of discontinuities , said discontinuities being arranged in a predetermined pattern so as to enhance ultrasonic imaging, wherein said discontinuities comprise at least one or more of the following: indentations, grooves, notches, or recesses; wherein the discontinuities include flat bottoms and flat sides; or the discontinuities comprise a first spherical indentation and a second spherical indentation contained within the first indentation. a catheter comprising a proximal end and a distal end and defining a lumen extending from said proximal end to said distal end; a needle configured within the lumen of said catheter; and an echogenic member , the echogenic member being configured to surround at least one of a portion of the needle of the OTN catheter assembly or a portion of the catheter of the OTN catheter assembly, wherein a longitudinal length of said echogenic member is less than a total length of the catheter of the OTN catheter assembly; and characterised in that the echogenic member comprises a cylindrical body comprising a first end and a second end defining said longitudinal length , said body defining an exterior surface extending from the first end to the second end , the exterior surface comprising a plurality of discontinuities , said discontinuities being arranged in a predetermined pattern so as to enhance ultrasonic imaging, wherein said discontinuities comprise at least one or more of the following: indentations, grooves, notches, or recesses; wherein the discontinuities include flat bottoms and flat sides; or the discontinuities comprise a first spherical indentation and a second spherical indentation contained within the first indentation.
Mounting system for mounting aircraft system components in a triangular region in a lower deck of an aircraft , wherein the mounting system comprises: - a support structure ; - a guide mechanism which is fastened to the support structure and is specified to guide the support structure; - at least one bracket which is fastened to the support structure and is specified to releasably hold an elongate aircraft system component ; wherein the mounting system further comprises a guide rail ; the guide mechanism being set up to be moved along the guide rail , the support structure being dimensioned such that the support structure can be pushed into the triangular region in the longitudinal direction of the triangular region through the guide mechanism and the guide rail , characterized in that the support structure is elongate, the guide rail is specified to be inserted in a portion of the triangular region and in the longitudinal direction of the triangular region , and at least one portion of the support structure is specified to be moved in a direction perpendicular to the longitudinal direction of the support structure . - a support structure ; - a guide mechanism which is fastened to the support structure and is specified to guide the support structure; - at least one bracket which is fastened to the support structure and is specified to releasably hold an elongate aircraft system component ; wherein the mounting system further comprises a guide rail ; the guide mechanism being set up to be moved along the guide rail , the support structure being dimensioned such that the support structure can be pushed into the triangular region in the longitudinal direction of the triangular region through the guide mechanism and the guide rail , characterized in that the support structure is elongate, the guide rail is specified to be inserted in a portion of the triangular region and in the longitudinal direction of the triangular region , and at least one portion of the support structure is specified to be moved in a direction perpendicular to the longitudinal direction of the support structure .
A method for the determination of impurities in polyalkylene ethers comprising the steps of i) introducing polyalkylene ethers as analyte into a chromatography column containing monolithic silica gel as stationary phase ii) eluting the analyte with a liquid eluent having a polarity such that the analyte is in adsorptive equilibrium with the stationary phase during chromatography, iii) detecting the components of the analyte at the outlet end of the chromatography column to obtain a chromatogram which shows different components of the analyte and their qualitative quantity as a function of the elution time of the individual components, and iv) determining bands in the chromatogram which have a small height or area compared to the band with the largest height or area as an indication of the presence of impurities in the analyte. i) introducing polyalkylene ethers as analyte into a chromatography column containing monolithic silica gel as stationary phase ii) eluting the analyte with a liquid eluent having a polarity such that the analyte is in adsorptive equilibrium with the stationary phase during chromatography, iii) detecting the components of the analyte at the outlet end of the chromatography column to obtain a chromatogram which shows different components of the analyte and their qualitative quantity as a function of the elution time of the individual components, and iv) determining bands in the chromatogram which have a small height or area compared to the band with the largest height or area as an indication of the presence of impurities in the analyte.
A treatment machine for containers , comprising: at least a stationary treatment unit ; a container carousel moving past it and including rotary plates and centering bells distributed around its circumference; characterized by work carriers for the containers temporarily associated to the rotary plates , wherein the work carriers comprise a guiding base for guiding the work carrier within the treatment machine , a centering member for supporting and centering a container to be treated and a drive shaft accessible from below through the guiding base , wherein the centering member is mounted in the guiding base by means of a bearing to be rotatable about itself and is furthermore non-rotatably connected to the drive shaft . at least a stationary treatment unit ; a container carousel moving past it and including rotary plates and centering bells distributed around its circumference; characterized by work carriers for the containers temporarily associated to the rotary plates , wherein the work carriers comprise a guiding base for guiding the work carrier within the treatment machine , a centering member for supporting and centering a container to be treated and a drive shaft accessible from below through the guiding base , wherein the centering member is mounted in the guiding base by means of a bearing to be rotatable about itself and is furthermore non-rotatably connected to the drive shaft .
An electrochemical energy storage system, comprising: a molten sodium-halogen secondary cell that charges at a high temperature and discharges at a relatively lower temperature, comprising: a sodium anode that undergoes electrochemical oxidation during discharge and electrochemical reduction during charge; a cathode that undergoes electrochemical reduction during discharge and electrochemical oxidation during charge, wherein the cathode comprises a catholyte composition that is thermally stable at cell operating conditions; and a sodium ion conductive solid membrane comprising a NaSICON ceramic electrolyte and separating the cathode and catholyte composition from the sodium anode that selectively transports sodium ions and is chemically and thermally stable at cell operating conditions; and a solar energy source comprising: a photovoltaic system to provide an electric charging potential to the sodium anode and the cathode; and a solar thermal concentrator to provide heat to the cathode and catholyte composition; wherein: the cathode comprises a halogen and the catholyte composition comprises a sodium halide and a solvent; the molten sodium secondary cell has a charge temperature in the range from 300 to 400°C and a discharge temperature in the range of 110 to 200°C. a sodium anode that undergoes electrochemical oxidation during discharge and electrochemical reduction during charge; a cathode that undergoes electrochemical reduction during discharge and electrochemical oxidation during charge, wherein the cathode comprises a catholyte composition that is thermally stable at cell operating conditions; and a sodium ion conductive solid membrane comprising a NaSICON ceramic electrolyte and separating the cathode and catholyte composition from the sodium anode that selectively transports sodium ions and is chemically and thermally stable at cell operating conditions; and a solar energy source comprising: a photovoltaic system to provide an electric charging potential to the sodium anode and the cathode; and a solar thermal concentrator to provide heat to the cathode and catholyte composition; wherein: the cathode comprises a halogen and the catholyte composition comprises a sodium halide and a solvent; the molten sodium secondary cell has a charge temperature in the range from 300 to 400°C and a discharge temperature in the range of 110 to 200°C. a photovoltaic system to provide an electric charging potential to the sodium anode and the cathode; and a solar thermal concentrator to provide heat to the cathode and catholyte composition; wherein: the cathode comprises a halogen and the catholyte composition comprises a sodium halide and a solvent; the molten sodium secondary cell has a charge temperature in the range from 300 to 400°C and a discharge temperature in the range of 110 to 200°C. the cathode comprises a halogen and the catholyte composition comprises a sodium halide and a solvent; the molten sodium secondary cell has a charge temperature in the range from 300 to 400°C and a discharge temperature in the range of 110 to 200°C.
Battery cooling plate comprising of a main body portion having opposed ends and a first and second outer surface each defining a primary heat transfer surface between said opposed ends, - said main body portion comprising a first outer plate and a second outer plate ; - at least one fluid flow passage formed within said main body portion between said first and second outer plates ; - the fluid flow passage having a first end for inletting a fluid into said fluid passage and a second end for discharging said fluid from said fluid flow passage , said first and second ends defining a flow direction through said fluid flow passage ; - each of said first and second outer plates has a central, generally planar portion surrounded by a peripheral flange ; - wherein the first and second outer plates have been joined to each other by means of remote laser welding; characterized in that - the first outer plate is made of a 3xxx-series aluminium alloy comprising Mn in a range of 0.5% to 1.5% and Mg is a range of up to 0.15%; - the second outer plate is made of a 3xxx-series aluminium alloy comprising Mn in a range of 0.5% to 1.5% and Mg is a range of up to 0.15%; - the first outer plate , and preferably both the first and second outer plate , on its side facing said fluid flow passage is provided with a passivation layer - and the first outer plate on its side facing said fluid flow passage is further provided with a clad liner of a 4xxx-series aluminium alloy having Mg up to 0.35%, the clad liner being positioned between the 3xxx-series aluminium alloy and the passivation layer . - said main body portion comprising a first outer plate and a second outer plate ; - at least one fluid flow passage formed within said main body portion between said first and second outer plates ; - the fluid flow passage having a first end for inletting a fluid into said fluid passage and a second end for discharging said fluid from said fluid flow passage , said first and second ends defining a flow direction through said fluid flow passage ; - each of said first and second outer plates has a central, generally planar portion surrounded by a peripheral flange ; - wherein the first and second outer plates have been joined to each other by means of remote laser welding; - the first outer plate is made of a 3xxx-series aluminium alloy comprising Mn in a range of 0.5% to 1.5% and Mg is a range of up to 0.15%; - the second outer plate is made of a 3xxx-series aluminium alloy comprising Mn in a range of 0.5% to 1.5% and Mg is a range of up to 0.15%; - the first outer plate , and preferably both the first and second outer plate , on its side facing said fluid flow passage is provided with a passivation layer - and the first outer plate on its side facing said fluid flow passage is further provided with a clad liner of a 4xxx-series aluminium alloy having Mg up to 0.35%, the clad liner being positioned between the 3xxx-series aluminium alloy and the passivation layer .
An insect pest control agent for adhesion to an insect pest, comprising: cis-1,1,1,4,4,4-hexafluoro-2-butene, characterized in that the content of cis-1,1,1,4,4,4-hexafluoro-2-butene in the insect pest control agent is not smaller than 0.74 w/v% and not greater than 10 w/v%.
A surveillance camera and image data storage system, comprising: surveillance cameras arranged to generate image data, wherein each surveillance camera includes a camera image data storage system for locally storing the image data, a rules engine and a messaging engine; a storage system that is remote from the surveillance cameras; and a distributed arbitration system comprising the rules engine and messaging engine of each surveillance camera, wherein the distributed arbitration system is arranged to be used by the surveillance cameras to arbitrate uploading of the image data by the surveillance cameras to the storage system, wherein the rules engine of each surveillance camera is arranged to calculate a self priority value for uploading the image data of the surveillance camera, wherein the messaging engine of each surveillance camera is arranged to share the calculated self priority value with the other surveillance cameras, and wherein the rules engine of each surveillance camera is arranged to determine whether to upload or locally store the image data based on the self priority value and self priority values of the other surveillance cameras. surveillance cameras arranged to generate image data, wherein each surveillance camera includes a camera image data storage system for locally storing the image data, a rules engine and a messaging engine; a storage system that is remote from the surveillance cameras; and a distributed arbitration system comprising the rules engine and messaging engine of each surveillance camera, wherein the distributed arbitration system is arranged to be used by the surveillance cameras to arbitrate uploading of the image data by the surveillance cameras to the storage system, wherein the rules engine of each surveillance camera is arranged to calculate a self priority value for uploading the image data of the surveillance camera, wherein the messaging engine of each surveillance camera is arranged to share the calculated self priority value with the other surveillance cameras, and wherein the rules engine of each surveillance camera is arranged to determine whether to upload or locally store the image data based on the self priority value and self priority values of the other surveillance cameras.
A method for control-flow validation comprising: determining, via a hardware processing circuit, a first identifier for a source packet based on a computation using contents of the source packet; determining, via the hardware processing circuit, a second identifier for a target packet to which the source packet is directed based on a computation using contents of the target packet, wherein at least one of the first and/or second identifiers are calculated by applying a combination function to bits of one or more instructions of the source packet or target packet where the combination function includes combining bits from the one or more instructions of the source packet or target packet, and wherein at least one of the first and/or second identifiers are configured as a predefined instruction insertable in a packet; and comparing, via the hardware processing circuit, the first identifier and the second identifier and determining an invalid control flow when the first and second identifiers are determined from comparing to not be compatible. determining, via a hardware processing circuit, a first identifier for a source packet based on a computation using contents of the source packet; determining, via the hardware processing circuit, a second identifier for a target packet to which the source packet is directed based on a computation using contents of the target packet, wherein at least one of the first and/or second identifiers are calculated by applying a combination function to bits of one or more instructions of the source packet or target packet where the combination function includes combining bits from the one or more instructions of the source packet or target packet, and wherein at least one of the first and/or second identifiers are configured as a predefined instruction insertable in a packet; and comparing, via the hardware processing circuit, the first identifier and the second identifier and determining an invalid control flow when the first and second identifiers are determined from comparing to not be compatible.