mhurhangee/patent-ind-claim-en huggingface dataset:
An electrically heated aerosol-generating system comprising an aerosol-generating device and a cartridge configured to be used with the device , wherein the device comprises a device housing defining a cavity for receiving at least a portion of the cartridge ; an inductor coil positioned in the device housing around or adjacent to the cavity and positioned outside of the cartridge when the cartridge is received in the cavity ; and a power supply connected to the inductor coil and configured to provide a high frequency oscillating current to the inductor coil ; the cartridge comprising a cartridge housing containing an aerosol-forming substrate, the cartridge housing having an internal surface surrounding an internal passage through which air can flow; a susceptor element positioned to heat the aerosol-forming substrate; and a capillary material; wherein the aerosol forming substrate is a liquid substrate held in the capillary material; and wherein, in use, a magnetic field generated by the inductor coil causes the generation of heat in the susceptor element in the cartridge . the cartridge comprising a cartridge housing containing an aerosol-forming substrate, the cartridge housing having an internal surface surrounding an internal passage through which air can flow; a susceptor element positioned to heat the aerosol-forming substrate; and a capillary material; wherein the aerosol forming substrate is a liquid substrate held in the capillary material; and wherein, in use, a magnetic field generated by the inductor coil causes the generation of heat in the susceptor element in the cartridge .
Method for operating a test bench with a test object having at least two rotating masses which are connected in a rotationally fixed manner and each have a mass moment of inertia (J1, J2), with at least one rotating mass being connected by means of a loading shaft to a loading machine for driving or loading the test object , the loading machine being controlled by a loading machine control unit , and with loads being applied to the test object on the test bench and an internal test object torque (M P_int ) being estimated and used to determine a target loading machine speed (N B_soll ) that is adjusted by the loading machine control unit , a shaft torque (M W ) acting in the loading shaft being determined for the at least one loading shaft , characterized in that the determined shaft torque (MW) is added to determined acceleration torques (M B1 , M B2 ) for accelerating the at least two rotating masses , with the correct sign, to form a corrected internal effective test object torque (M P_int_korr ), and in that the target loading machine speed (N B_soll ) is determined from the corrected internal effective test object torque (M P_int_korr ) or a torque derived therefrom ( M ^ 1 _ INT , M ^ 1 _ INT _ M , M ^ 2 _ INT , M ⌢ 2 _ INT _ S ), a specified target test object torque (M W_soll ) and from the mass moments of inertia (J 1 , J 2 ) or simulated mass moments of inertia (J 1_sim , J 2_sim ) of the at least two rotating masses .
A method for determining at least one sequence of interest of a fetus of a pregnant mother, the method comprising: (a) separating a buffy coat and a plasma of a blood sample obtained from the pregnant mother; (b) obtaining mother-only cellular DNA of the pregnant mother from the buffy coat of the blood sample, wherein the mother-only cellular DNA has a sequence that maps to the at least one sequence of interest; (c) obtaining mother-and-fetus mixed cfDNA from the plasma of the blood sample, wherein the mother-and-fetus mixed cfDNA has a sequence that maps to the at least one sequence of interest; (d) applying an index sequence to at least one of the mother-only cellular DNA and the cfDNA, wherein the index sequence identifies a source of DNA as being from the mother-only cellular DNA or the cfDNA; (e) combining the mother-only cellular DNA and the mother-and-fetus mixed cfDNA to provide a sample of combined cellular DNA and cfDNA; (f) sequencing said sample of combined cellular DNA and cfDNA to provide a plurality of sequence tags; and (g) obtaining a test-difference value based on the difference of counts of test sequence tags derived from the mother-only cellular DNA vs the cfDNA by subtracting counts of test sequence tags derived from the mother-only cellular DNA from counts of test sequence tags derived from the cfDNA, to determine the presence and/or abundance of the at least one sequence of interest in the fetus's DNA, wherein the plurality of sequence tags map to the at least one sequence of interest. (a) separating a buffy coat and a plasma of a blood sample obtained from the pregnant mother; (b) obtaining mother-only cellular DNA of the pregnant mother from the buffy coat of the blood sample, wherein the mother-only cellular DNA has a sequence that maps to the at least one sequence of interest; (c) obtaining mother-and-fetus mixed cfDNA from the plasma of the blood sample, wherein the mother-and-fetus mixed cfDNA has a sequence that maps to the at least one sequence of interest; (d) applying an index sequence to at least one of the mother-only cellular DNA and the cfDNA, wherein the index sequence identifies a source of DNA as being from the mother-only cellular DNA or the cfDNA; (e) combining the mother-only cellular DNA and the mother-and-fetus mixed cfDNA to provide a sample of combined cellular DNA and cfDNA; (f) sequencing said sample of combined cellular DNA and cfDNA to provide a plurality of sequence tags; and (g) obtaining a test-difference value based on the difference of counts of test sequence tags derived from the mother-only cellular DNA vs the cfDNA by subtracting counts of test sequence tags derived from the mother-only cellular DNA from counts of test sequence tags derived from the cfDNA, to determine the presence and/or abundance of the at least one sequence of interest in the fetus's DNA, wherein the plurality of sequence tags map to the at least one sequence of interest.
A method performed by a resource manager of a computing device , the method comprising: receiving a request for a resource set that is to be applied from one of multiple pools of resources, each of the multiple pools being associated with a different workload type, wherein the multiple pools at least in part specify a budget of resources of the computing device among the different workload types, respectively; evaluating the request based at least in part upon the budget, wherein the evaluating includes: selecting, from among the multiple pools , a pool that is appropriate for the requested resource set; determining whether sufficient resources are free within the selected pool based upon currently available resources within the selected pool and a resource quota for the requested resource set; and if sufficient resources are not free within the selected pool , determining whether a previous resource set applied from the selected pool has lower priority than the requested resource set and, if so, requesting release of the previous resource set; and sending a reply to the request based on the evaluating . receiving a request for a resource set that is to be applied from one of multiple pools of resources, each of the multiple pools being associated with a different workload type, wherein the multiple pools at least in part specify a budget of resources of the computing device among the different workload types, respectively; evaluating the request based at least in part upon the budget, wherein the evaluating includes: selecting, from among the multiple pools , a pool that is appropriate for the requested resource set; determining whether sufficient resources are free within the selected pool based upon currently available resources within the selected pool and a resource quota for the requested resource set; and if sufficient resources are not free within the selected pool , determining whether a previous resource set applied from the selected pool has lower priority than the requested resource set and, if so, requesting release of the previous resource set; and selecting, from among the multiple pools , a pool that is appropriate for the requested resource set; determining whether sufficient resources are free within the selected pool based upon currently available resources within the selected pool and a resource quota for the requested resource set; and if sufficient resources are not free within the selected pool , determining whether a previous resource set applied from the selected pool has lower priority than the requested resource set and, if so, requesting release of the previous resource set; and sending a reply to the request based on the evaluating .
A seeing aid for a visually impaired pedestrian , wherein the seeing aid comprises: - a camera for recording an image of an environment of the pedestrian , - a processing unit adapted for processing the image to obtain verbal information about the environment, and - an output unit for outputting the verbal information in order to notify the pedestrian about the environment, wherein the processing unit comprises a machine learning unit configured to learn a correspondence between an image of an object and a name of the object, wherein the seeing aid further comprises an audio input unit configured to record speech and/or verbal commands from the pedestrian , characterized in that the seeing aid is configured to control the machine learning unit to learn a correspondence between the image and the name of the object if the pedestrian speaks the name while the camera is pointed at the object. wherein the seeing aid comprises: - a camera for recording an image of an environment of the pedestrian , - a processing unit adapted for processing the image to obtain verbal information about the environment, and - an output unit for outputting the verbal information in order to notify the pedestrian about the environment, - a camera for recording an image of an environment of the pedestrian , - a processing unit adapted for processing the image to obtain verbal information about the environment, and - an output unit for outputting the verbal information in order to notify the pedestrian about the environment, wherein the processing unit comprises a machine learning unit configured to learn a correspondence between an image of an object and a name of the object, wherein the seeing aid further comprises an audio input unit configured to record speech and/or verbal commands from the pedestrian , characterized in that the seeing aid is configured to control the machine learning unit to learn a correspondence between the image and the name of the object if the pedestrian speaks the name while the camera is pointed at the object.
A method for estimating the range to an object using transmission of a multi frequency signal comprising the steps of: • transmitting a first signal towards the object, wherein the first signal comprises at least a primary frequency (F0), a first frequency (F1), and a second frequency (F2); • receiving a reflected echo signal reflected from the object comprising at least the primary frequency (FO'), the first frequency (F1'), and the second frequency (F2'); • determining a measured point (MP) in an N-dimensional phase space comprising at least a first phase coordinate representing the phase difference between the phase of the first frequency (F1') and the phase of the primary frequency (F0') in the received reflected echo signal, and a second phase coordinate representing the phase difference between the phase of the second frequency (F2') in the received reflected echo signal and the phase of a first reference frequency in a first reference signal wherein the first reference signal is a reflected echo signal reflected from the object, wherein the N-dimensional phase space has a dimensionality equal to the number of phase coordinates in the measure point (MP); characterized in that the range to the object is estimated by selecting a candidate range estimate from a plurality of candidate range estimates, each candidate range estimate in the unambiguous range R having an unique associated point in the N-dimensional phase space positioned on a range line, and wherein a candidate range estimate is selected dependent on the distance from its unique associated point in the N-dimensional phase space to the measured point (MP), so that a single range estimate is generated using information from at least two measured phase differences without directly averaging ambiguous range estimates, wherein the selected candidate range estimate is the candidate range estimate having an associated point in the N-dimensional phase space with the lowest distance to the measured point (MP). • transmitting a first signal towards the object, wherein the first signal comprises at least a primary frequency (F0), a first frequency (F1), and a second frequency (F2); • receiving a reflected echo signal reflected from the object comprising at least the primary frequency (FO'), the first frequency (F1'), and the second frequency (F2'); • determining a measured point (MP) in an N-dimensional phase space comprising at least a first phase coordinate representing the phase difference between the phase of the first frequency (F1') and the phase of the primary frequency (F0') in the received reflected echo signal, and a second phase coordinate representing the phase difference between the phase of the second frequency (F2') in the received reflected echo signal and the phase of a first reference frequency in a first reference signal wherein the first reference signal is a reflected echo signal reflected from the object, wherein the N-dimensional phase space has a dimensionality equal to the number of phase coordinates in the measure point (MP);
A mold for manufacturing cleated sole structures for articles of footwear, comprising: a first mold component including a first portion of a mold cavity , wherein the first portion of the mold cavity includes: a first area for forming a first portion of an article of footwear to be molded, wherein the first area includes a first molding surface exposed in the mold cavity made from a first material having a first thermal conductivity, and a second area including a cleat receptacle for receiving a cleat to be in-molded into the article of footwear, wherein the cleat receptacle includes a second surface exposed in the mold cavity for engaging the cleat to be in-molded, wherein the second surface is made from a second material having a second thermal conductivity, and wherein the second thermal conductivity is less than the first thermal conductivity; and a second mold component including a second portion of the mold cavity for at least partially covering the first portion of the mold cavity . a first mold component including a first portion of a mold cavity , wherein the first portion of the mold cavity includes: a first area for forming a first portion of an article of footwear to be molded, wherein the first area includes a first molding surface exposed in the mold cavity made from a first material having a first thermal conductivity, and a second area including a cleat receptacle for receiving a cleat to be in-molded into the article of footwear, wherein the cleat receptacle includes a second surface exposed in the mold cavity for engaging the cleat to be in-molded, wherein the second surface is made from a second material having a second thermal conductivity, and wherein the second thermal conductivity is less than the first thermal conductivity; and a first area for forming a first portion of an article of footwear to be molded, wherein the first area includes a first molding surface exposed in the mold cavity made from a first material having a first thermal conductivity, and a second area including a cleat receptacle for receiving a cleat to be in-molded into the article of footwear, wherein the cleat receptacle includes a second surface exposed in the mold cavity for engaging the cleat to be in-molded, wherein the second surface is made from a second material having a second thermal conductivity, and wherein the second thermal conductivity is less than the first thermal conductivity; and a second mold component including a second portion of the mold cavity for at least partially covering the first portion of the mold cavity .
Laboratory system to monitor reference points of laboratory devices , wherein the laboratory system comprises: - a first laboratory device comprising a first reference point - a second laboratory device comprising a second reference point - a coupling element , wherein the coupling element couples the first reference point and the second reference point , characterized in that - the coupling element comprises a detectable part adapted to be moved between a starting position and at least one detection position when the relative position of the first reference point and the second reference point to each other changes, - the laboratory system further comprises a sensor configured to detect the detectable part of the coupling element in the at least one detection position , - wherein the first reference point comprises a pivot point, wherein the coupling element is pivotably fixed to the pivot point so that the detectable part is movable between the starting position and the at least one detection position , - wherein the coupling element is a lever comprising a first recess and a second recess , wherein the pivot point comprises a first pin engaging pivotably with the first recess , wherein the second reference point comprises a second pin engaging movably with the second recess . - a first laboratory device comprising a first reference point - a second laboratory device comprising a second reference point - a coupling element , wherein the coupling element couples the first reference point and the second reference point , - the coupling element comprises a detectable part adapted to be moved between a starting position and at least one detection position when the relative position of the first reference point and the second reference point to each other changes, - the laboratory system further comprises a sensor configured to detect the detectable part of the coupling element in the at least one detection position , - wherein the first reference point comprises a pivot point, wherein the coupling element is pivotably fixed to the pivot point so that the detectable part is movable between the starting position and the at least one detection position , - wherein the coupling element is a lever comprising a first recess and a second recess , wherein the pivot point comprises a first pin engaging pivotably with the first recess , wherein the second reference point comprises a second pin engaging movably with the second recess .
A semiconductor device comprising a plurality of memory chips and a temperature detection module , characterised in that the temperature detection module comprises: a plurality of temperature sensitive units , arranged on at least part of the memory chips to detect temperatures of at least part of the memory chips ; and a processing unit , wherein the plurality of temperature sensitive units share the processing unit with each other, the processing unit is configured to process a signal of at least one of the temperature sensitive units , the processing unit comprises a calibration value memory cell and a calibration unit , the calibration value memory cell being configured to store a calibration value corresponding to the temperature sensitive unit , and the calibration unit being configured to calibrate the temperature sensitive unit according to the calibration value, wherein the calibration value is a resistance value, and the calibration unit is an adjustable resistor. a plurality of temperature sensitive units , arranged on at least part of the memory chips to detect temperatures of at least part of the memory chips ; and a processing unit , wherein the plurality of temperature sensitive units share the processing unit with each other, the processing unit is configured to process a signal of at least one of the temperature sensitive units , the processing unit comprises a calibration value memory cell and a calibration unit , the calibration value memory cell being configured to store a calibration value corresponding to the temperature sensitive unit , and the calibration unit being configured to calibrate the temperature sensitive unit according to the calibration value, wherein the calibration value is a resistance value, and the calibration unit is an adjustable resistor.
A front ballast system with a front perception module utilized in conjunction with the front ballast system , the front ballast system being configured to be mounted to the front of a work vehicle , wherein: the front ballast system supports removable ballast weights , the front perception module comprises: an environmental depth perception (EDP) sensor system including a first EDP device having a field of view (FOV) encompassing an environmental region forward of the work vehicle ; a mounting base configured to be attached to the front of the work vehicle (20, 232;), and a front module housing containing the EDP sensor system and joined to the mounting base , characterized in that the front ballast system has a laterally-extending hanger bracket supporting the removable ballast weights , and that the front module housing is positioned over and vertically spaced from the laterally-extending hanger bracket in a manner enabling positioning of the removable ballast weights beneath the front module housing . the front ballast system supports removable ballast weights , the front perception module comprises: an environmental depth perception (EDP) sensor system including a first EDP device having a field of view (FOV) encompassing an environmental region forward of the work vehicle ; a mounting base configured to be attached to the front of the work vehicle (20, 232;), and a front module housing containing the EDP sensor system and joined to the mounting base , an environmental depth perception (EDP) sensor system including a first EDP device having a field of view (FOV) encompassing an environmental region forward of the work vehicle ; a mounting base configured to be attached to the front of the work vehicle (20, 232;), and a front module housing containing the EDP sensor system and joined to the mounting base , characterized in that the front ballast system has a laterally-extending hanger bracket supporting the removable ballast weights , and that the front module housing is positioned over and vertically spaced from the laterally-extending hanger bracket in a manner enabling positioning of the removable ballast weights beneath the front module housing .