mhurhangee/patent-ind-claim-en huggingface dataset:
A method of processing a spectrum obtained using a particle detection system, so as to reduce spectrum artefacts arising from unresolved particle events in the detection system, the method comprising: a. Obtaining an input spectrum from the particle detection system, the input spectrum containing spectrum artefacts; b. Using the input spectrum to evaluate a first effect of pairs of particle events, which are unresolvable by the particle detection system, upon the input spectrum; c. Generating a first corrected input spectrum (ac1) comprising the input spectrum with the pairs of particle events according to the first effect removed; d. Using the first corrected input spectrum to evaluate a second effect of pairs of particle events, which are unresolvable by the particle detection system, upon the input spectrum, wherein the first and second effects each calculate the effect of single pile-up; e. Generating a second corrected input spectrum (ac2) comprising the input spectrum with the pairs of particle events according to the second effect removed; and, f. Generating an output spectrum (ac) based upon a combination of the first and second corrected spectra. a. Obtaining an input spectrum from the particle detection system, the input spectrum containing spectrum artefacts; b. Using the input spectrum to evaluate a first effect of pairs of particle events, which are unresolvable by the particle detection system, upon the input spectrum; c. Generating a first corrected input spectrum (ac1) comprising the input spectrum with the pairs of particle events according to the first effect removed; d. Using the first corrected input spectrum to evaluate a second effect of pairs of particle events, which are unresolvable by the particle detection system, upon the input spectrum, wherein the first and second effects each calculate the effect of single pile-up; e. Generating a second corrected input spectrum (ac2) comprising the input spectrum with the pairs of particle events according to the second effect removed; and, f. Generating an output spectrum (ac) based upon a combination of the first and second corrected spectra.
A cosmetic composition, comprising: an aggregate including a core and a shell; the core comprising a hydroxyethylcellulose; and the shell having a C 4-24 alkyl covalently bonded to the hydroxyethylcellulose of the core. an aggregate including a core and a shell; the core comprising a hydroxyethylcellulose; and the shell having a C 4-24 alkyl covalently bonded to the hydroxyethylcellulose of the core.
Analysis system for testing an in particular biological sample (P), the analysis system being adapted for electrochemically detecting or identifying one or more analytes (A) of the sample (P) and/or for detecting or identifying one or more analytes (A) of the sample (P) by specifically bonding the analytes (A) to one or more preferably immobilized catcher molecules (M) as primary measurement, wherein the analysis system is adapted for detecting or identifying further analytes (A), compounds and/or material characteristics of the sample (P) by optical measurement, preferably without specific bonding, of the sample (P) as additional measurement, wherein the analysis system is mobile and comprises a cartridge for receiving the sample (P) and an analysis device for connecting or receiving the cartridge with the sample (P), wherein the cartridge comprises a fluid system having a plurality of channels , cavities (104-111) and valves for controlling the flow through the channels and/or cavities (104-111), wherein the cartridge comprises a sensor apparatus for electrochemically detecting or identifying the one or more analytes (A) of the sample (P) and/or for detecting or identifying one or more analytes (A) of the sample (P) by specifically bonding the analyte or analytes (A) to one or more catcher molecules (M), wherein the analysis device is adapted to control the testing of the sample (P) in the cartridge and to actuate the valves , and wherein the analysis device comprises a spectrometer for the additional measurement working independently from the sensor apparatus for the primary measurement. the analysis system being adapted for electrochemically detecting or identifying one or more analytes (A) of the sample (P) and/or for detecting or identifying one or more analytes (A) of the sample (P) by specifically bonding the analytes (A) to one or more preferably immobilized catcher molecules (M) as primary measurement, wherein the analysis system is adapted for detecting or identifying further analytes (A), compounds and/or material characteristics of the sample (P) by optical measurement, preferably without specific bonding, of the sample (P) as additional measurement, wherein the analysis system is mobile and comprises a cartridge for receiving the sample (P) and an analysis device for connecting or receiving the cartridge with the sample (P), wherein the cartridge comprises a fluid system having a plurality of channels , cavities (104-111) and valves for controlling the flow through the channels and/or cavities (104-111), wherein the cartridge comprises a sensor apparatus for electrochemically detecting or identifying the one or more analytes (A) of the sample (P) and/or for detecting or identifying one or more analytes (A) of the sample (P) by specifically bonding the analyte or analytes (A) to one or more catcher molecules (M), wherein the analysis device is adapted to control the testing of the sample (P) in the cartridge and to actuate the valves , and wherein the analysis device comprises a spectrometer for the additional measurement working independently from the sensor apparatus for the primary measurement.
A cartridge for housing an aerosol-forming substrate , the cartridge comprising: a body comprising one or more walls and a top wall , and a body opening in the top wall; a cavity in the body in fluid communication with the body opening; a cap removably and replaceably engaged with the body and extending across the body opening, the cap comprising a cap opening , wherein by rotating the cap to a first position the cap opening is aligned with the body opening and by rotating the cap to a second position the cap opening is not aligned with the body opening such that the cap closes the cartridge; and a removable layer removably attached to the body and disposed between the body and the cap. a body comprising one or more walls and a top wall , and a body opening in the top wall; a cavity in the body in fluid communication with the body opening; a cap removably and replaceably engaged with the body and extending across the body opening, the cap comprising a cap opening , wherein by rotating the cap to a first position the cap opening is aligned with the body opening and by rotating the cap to a second position the cap opening is not aligned with the body opening such that the cap closes the cartridge; and a removable layer removably attached to the body and disposed between the body and the cap.
Method for shaking foam cans following a production and filling process, comprising the following steps: - supplying foam cans by means of a conveyor belt ; - machine-loading a predetermined number of foam cans in a standing position into a holder of a shaking frame in a lying position; - shaking the shaking frame mechanically; - mechanically unloading the foam cans onto a conveyor belt resulting in shaken foam cans , wherein the shaking frame is rotatable about a lying axis , wherein the holder of the shaking frame is parallel to the lying axis , wherein the holder of the shaking frame is lifted after loading the predetermined number of foam cans by rotation about the lying axis to a first position, the first position being on a first side of a standing plane, wherein the lying axis lies in the standing plane, wherein the foam cans are shaken by moving the shaking frame from the first position to a second position and back a number of times, the second position being on a second opposite side of the standing plane, wherein the foam cans move through a circular arc of at least 30° and at most 90° and wherein the shaking frame , after shaking the foam cans , lowers to a lying position for unloading the shaken foam cans . - supplying foam cans by means of a conveyor belt ; - machine-loading a predetermined number of foam cans in a standing position into a holder of a shaking frame in a lying position; - shaking the shaking frame mechanically; - mechanically unloading the foam cans onto a conveyor belt resulting in shaken foam cans ,
A system for non-destructive evaluation of a mold or crucible , said system comprising: a support comprising a fixture for securing a mold or crucible of interest in place for non-destructive evaluation, said fixture comprising a mount portion onto which the mold or crucible is securable; a three-dimensional scanning device for scanning an outer surface of a target region of the mold or crucible in order to generate a 3D structure of the scanned outer surface of the target region; and a computer component operably connected to the 3D scanning device and effective to create a difference map between the 3D structure of the scanned outer surface of the target region of the mold or crucible and a 3D structure of a reference object corresponding to an inner surface of a nominal model of the same target region of the mold or crucible, wherein said difference map indicates whether the mold or crucible falls within or outside a desired structural integrity parameter range. a support comprising a fixture for securing a mold or crucible of interest in place for non-destructive evaluation, said fixture comprising a mount portion onto which the mold or crucible is securable; a three-dimensional scanning device for scanning an outer surface of a target region of the mold or crucible in order to generate a 3D structure of the scanned outer surface of the target region; and a computer component operably connected to the 3D scanning device and effective to create a difference map between the 3D structure of the scanned outer surface of the target region of the mold or crucible and a 3D structure of a reference object corresponding to an inner surface of a nominal model of the same target region of the mold or crucible, wherein said difference map indicates whether the mold or crucible falls within or outside a desired structural integrity parameter range.
Height measuring device for a vehicle, with a sensor assembly , by means of which sensor signals that characterize a position of at least one chassis component relative to the vehicle structure can be generated, said chassis component connecting a vehicle wheel to a vehicle structure and being connected to the latter in an articulated manner, and with an evaluating device , which is connected to the sensor assembly and by means of which at least one item of height information that characterizes a height (h) of the vehicle structure by evaluating the sensor signals can be formed, wherein the sensor assembly comprises at least one acceleration sensor , which is stationary relative to the chassis component , is intended for detecting the acceleration acting on the chassis component and by means of which at least one sensor signal that characterizes this acceleration can be generated, and at least one reference sensor , which is stationary relative to the vehicle structure , is intended for detecting the acceleration acting on the vehicle structure and by means of which at least one sensor signal that characterizes this acceleration can be generated, characterized in that the inclination of the chassis component relative to the direction of the detected acceleration is characterized by at least one chassis-component inclination angle and the inclination of the vehicle structure relative to the direction of the detected acceleration is characterized by at least one vehicle-structure inclination angle, wherein, by comparison of the chassis-component inclination angle and the vehicle-structure inclination angle, a characterizing inclination-angle differential signal can be determined by means of the evaluating device , said signal characterizing the position of the chassis component relative to the vehicle structure .
Cylinder-piston arrangement for a volumetrically acting fluid pump or a fluid motor, with at least one axial expansion hose membrane piston (ASK), which defines at least one internal pulsating working space (AR), characterized in that at least one dead space displacer (TK1, TK2a , TK2b, TK2c, VK) is provided, which is in operative connection with the pulsating working space (AR) and wherein the dead space displacer (TK1, TK2a, TK2b, TK2c, VK) is designed such that the effective dead space in the working space (AR) is reduced and a steepening in the time course of the pressure rise as well as the pressure drop is effectuated compared to a cylinder-piston arrangement without dead space displacer.
A method for measuring the thickness of flat workpieces processed in a double-sided processing machine, comprising the following steps: - the workpieces are processed in a working gap formed between an upper working disk and a lower working disk of the double-sided processing machine, involving rotating the working disks relative to one another in such a way that material is removed, - the workpiece thickness is optically measured during the processing of the workpieces by means of at least one optical thickness measurement apparatus arranged on the upper working disk and/or the lower working disk , wherein the at least one thickness measurement apparatus measures the workpiece thickness of the workpieces located in the working gap through at least one through-hole in the upper working disk and/or the lower working disk , - the measurement results of the at least one thickness measurement apparatus are supplied to a control apparatus of the double-sided processing machine, - once a previously specified target thickness of the workpieces is reached, the control apparatus terminates the processing operation of the workpieces, - characterized in that at least one focusing optic of the at least one thickness measurement apparatus is arranged in the at least one through-hole . - the workpieces are processed in a working gap formed between an upper working disk and a lower working disk of the double-sided processing machine, involving rotating the working disks relative to one another in such a way that material is removed, - the workpiece thickness is optically measured during the processing of the workpieces by means of at least one optical thickness measurement apparatus arranged on the upper working disk and/or the lower working disk , wherein the at least one thickness measurement apparatus measures the workpiece thickness of the workpieces located in the working gap through at least one through-hole in the upper working disk and/or the lower working disk , - the measurement results of the at least one thickness measurement apparatus are supplied to a control apparatus of the double-sided processing machine, - once a previously specified target thickness of the workpieces is reached, the control apparatus terminates the processing operation of the workpieces, - characterized in that at least one focusing optic of the at least one thickness measurement apparatus is arranged in the at least one through-hole .
Method for the combustion of moist charge materials, which method is performed as staged firing and has the following steps: a) a pre-combustion process in the form of a fluidized-bed firing process; followed by b) a heat transfer process in a heat exchanger ; followed by c) a dust separation process , followed by d) a post-combustion process ; wherein, in the heat transfer process in the heat exchanger , exhaust gases from the pre-combustion process are cooled and combustion air for the pre-combustion process is heated by means of the exhaust gases and is subsequently fed to the pre-combustion process . a) a pre-combustion process in the form of a fluidized-bed firing process; followed by b) a heat transfer process in a heat exchanger ; followed by c) a dust separation process , followed by d) a post-combustion process ; wherein, in the heat transfer process in the heat exchanger , exhaust gases from the pre-combustion process are cooled and combustion air for the pre-combustion process is heated by means of the exhaust gases and is subsequently fed to the pre-combustion process .
A rubber composition comprising a solid rubber (A), a liquid diene rubber (B), a silane coupling agent (C), and silica (D) having a BET specific surface area of 15 to 250 m 2 /g, which comprises a product formed by covalent bonding of the liquid diene rubber (B) and at least part of the silane coupling agent (C) .
An electrochemical gas sensor comprising: a housing ; an electrolyte disposed within the housing ; a plurality of leads ; a sealing material ; a plurality of electrodes in contact with the electrolyte within the housing , wherein the plurality of electrodes comprise a working electrode and a counter electrode , and wherein the plurality of electrodes contact the plurality of leads passing through one or more gaps in the housing , and wherein the gaps in the housing are sealed with the sealing material , wherein the sealing material comprises an epoxy material; and a tab incorporated into the counter electrode and located within the housing wherein the tab extends perpendicular to the surface of the counter electrode and covers at least a portion of the gaps to prevent the sealing material from entering the interior of the housing . a housing ; an electrolyte disposed within the housing ; a plurality of leads ; a sealing material ; a plurality of electrodes in contact with the electrolyte within the housing , wherein the plurality of electrodes comprise a working electrode and a counter electrode , and wherein the plurality of electrodes contact the plurality of leads passing through one or more gaps in the housing , and wherein the gaps in the housing are sealed with the sealing material , wherein the sealing material comprises an epoxy material; and a tab incorporated into the counter electrode and located within the housing wherein the tab extends perpendicular to the surface of the counter electrode and covers at least a portion of the gaps to prevent the sealing material from entering the interior of the housing .
A variable aperture , comprising: a base , provided with a through hole ; a fixed plate , fixedly connected to the base , wherein the fixed plate is in a ring shape, and an inner through hole of the fixed plate is disposed opposite to the through hole ; a rotation plate , rotatively connected to the base and disposed around the fixed plate ; a plurality of blades , located on a same side of the fixed plate and the rotation plate , wherein the plurality of blades are annularly distributed and enclose an aperture hole , the aperture hole is disposed opposite to the through hole , and each of the blades is rotatively connected to the fixed plate and slidably connected to the rotation plate ; and a first SMA wire and a second SMA wire , wherein one end of each of the first SMA wire and the second SMA wire is connected to the base , the other end is connected to the rotation plate , the first SMA wire or the second SMA wire is configured to shrink when power is on, to drive the rotation plate to rotate relative to the fixed plate , and each of the blades rotates relative to the fixed plate and slides relative to the rotation plate , so that an aperture of the aperture hole changes; and a direction in which the first SMA wire shrinks to drive the rotation plate to rotate is opposite to a direction in which the second SMA wire shrinks to drive the rotation plate to rotate. a base , provided with a through hole ; a fixed plate , fixedly connected to the base , wherein the fixed plate is in a ring shape, and an inner through hole of the fixed plate is disposed opposite to the through hole ; a rotation plate , rotatively connected to the base and disposed around the fixed plate ; a plurality of blades , located on a same side of the fixed plate and the rotation plate , wherein the plurality of blades are annularly distributed and enclose an aperture hole , the aperture hole is disposed opposite to the through hole , and each of the blades is rotatively connected to the fixed plate and slidably connected to the rotation plate ; and a first SMA wire and a second SMA wire , wherein one end of each of the first SMA wire and the second SMA wire is connected to the base , the other end is connected to the rotation plate , the first SMA wire or the second SMA wire is configured to shrink when power is on, to drive the rotation plate to rotate relative to the fixed plate , and each of the blades rotates relative to the fixed plate and slides relative to the rotation plate , so that an aperture of the aperture hole changes; and a direction in which the first SMA wire shrinks to drive the rotation plate to rotate is opposite to a direction in which the second SMA wire shrinks to drive the rotation plate to rotate.
Method for operating a plurality of assistance systems (A) of a vehicle , characterized in that - the assistance systems (A) are divided into a number of categories, - assistance systems (A) of one category being deactivated depending on a captured current geoposition of the vehicle and - assistance systems (A) of another category being adapted depending on captured dynamic factors. - the assistance systems (A) are divided into a number of categories, - assistance systems (A) of one category being deactivated depending on a captured current geoposition of the vehicle and - assistance systems (A) of another category being adapted depending on captured dynamic factors.
A cosmetic composition comprising a low molecular weight silk fibroin and a cosmetically acceptable carrier; wherein said low molecular weight silk fibroin comprises at least 85 parts by weight peptides of molecular weight less than 2500 Da, where amino acid sequence of at least 50 wt% of said peptides is GAGY, GAGAGAGY, GAGVGAGY or AWSSESDF and where said silk fibroin is produced by a process comprising the steps of: (i) mixing an aqueous solution comprising 0.01 to 20 wt% of a high molecular weight silk fibroin of weight average molecular weight 6 to 100 KDa with α-chymotrypsin at temperature of 25 to 45°C, under pH of 6 to 9 for 4 to 24 hours, where ratio of said high molecular weight silk fibroin to said α-chymotrypsin in said solution is from 100:1 to 300:1 parts by weight; (ii) inactivating excess α-chymotrypsin and separating the inactivated α-chymotrypsin from reaction mixture of step (i); and, (iii) drying said reaction mixture to obtain said low molecular weight silk fibroin; wherein said composition comprises 0.1 to 10 wt% by weight of the low molecular weight silk fibroin; wherein said low molecular weight silk fibroin comprises tyrosine and its mole fraction in said low molecular weight silk fibroin is not less than 10 mol%; wherein said composition is a hair care composition. (i) mixing an aqueous solution comprising 0.01 to 20 wt% of a high molecular weight silk fibroin of weight average molecular weight 6 to 100 KDa with α-chymotrypsin at temperature of 25 to 45°C, under pH of 6 to 9 for 4 to 24 hours, where ratio of said high molecular weight silk fibroin to said α-chymotrypsin in said solution is from 100:1 to 300:1 parts by weight; (ii) inactivating excess α-chymotrypsin and separating the inactivated α-chymotrypsin from reaction mixture of step (i); and, (iii) drying said reaction mixture to obtain said low molecular weight silk fibroin;