mhurhangee/patent-ind-claim-en huggingface dataset:
Steam cooking appliance , having - a cooking appliance muffle , which delimits a cooking compartment which can have steam applied to it, - at least one water inlet opening for the introduction of water (W) into the cooking compartment and - a water reception area disposed in the cooking compartment , via which the water (W) can be filled, characterised in that - the at least one water inlet opening is arranged on the cooking compartment side flush with a wall of the cooking appliance muffle surrounding it, in that - in a front view into the cooking compartment the at least one water inlet opening is arranged behind a support for a food carrier projecting into the cooking compartment and in that - the support for the food carrier, behind which the at least one water inlet opening is disposed, is shortened compared to the other supports . - a cooking appliance muffle , which delimits a cooking compartment which can have steam applied to it, - at least one water inlet opening for the introduction of water (W) into the cooking compartment and - a water reception area disposed in the cooking compartment , via which the water (W) can be filled, - the at least one water inlet opening is arranged on the cooking compartment side flush with a wall of the cooking appliance muffle surrounding it, in that - in a front view into the cooking compartment the at least one water inlet opening is arranged behind a support for a food carrier projecting into the cooking compartment and in that - the support for the food carrier, behind which the at least one water inlet opening is disposed, is shortened compared to the other supports .
Method for automatically executing a control function of an autonomously or semi-autonomously controlled vehicle , comprising the steps of: - acquiring sensor data by means of at least one sensor of the vehicle , - processing the sensor data by means of an artificial neural network , wherein the sensor data, or data derived from the sensor data, are supplied as input variables to the artificial neural network , and the artificial neural network maps the input variables onto output variables depending on a parametrizable processing chain , - classifying the acquired sensor data depending on the output variables determined by the artificial neural network, and depending on a prespecified safety-directed decision rule, wherein classifying comprises performing at least one calculation in accordance with a calculation rule comprising a cost matrix; wherein the cost matrix comprises a cost factor for each combination of associable class and intended class; wherein the respective cost factor indicates the costs that result if the respective associable class is associated instead of the intended class, and - executing the control function depending on the classification. - acquiring sensor data by means of at least one sensor of the vehicle , - processing the sensor data by means of an artificial neural network , wherein the sensor data, or data derived from the sensor data, are supplied as input variables to the artificial neural network , and the artificial neural network maps the input variables onto output variables depending on a parametrizable processing chain , - classifying the acquired sensor data depending on the output variables determined by the artificial neural network, and depending on a prespecified safety-directed decision rule, wherein classifying comprises performing at least one calculation in accordance with a calculation rule comprising a cost matrix; wherein the cost matrix comprises a cost factor for each combination of associable class and intended class; wherein the respective cost factor indicates the costs that result if the respective associable class is associated instead of the intended class, and - executing the control function depending on the classification.
An apparatus comprising: a ribbon wire for attachment to a solar panel; a lower junction box assembly comprising a bottom side comprising a raised protrusion formed on the bottom side of the lower junction box assembly , the bottom side comprising a slot adapted to allow entry of the ribbon wire exiting from a back side of the solar panel; wherein the ribbon wire enters the lower junction box assembly through the slot and extends along a first region on the bottom side to a first side of the raised protrusion, is bent over the raised protrusion and formed to be substantially in the same shape as the raised protrusion, and extends along a second region on the bottom side to a second side of the raised protrusion; and a clamping plate , having an aperture through which the raised protrusion projects, that is attached to the bottom side so as to clamp the ribbon wire to the first and second regions of the bottom side; wherein the lower junction box assembly is adapted for attachment to the back side of the solar panel. a ribbon wire for attachment to a solar panel; a lower junction box assembly comprising a bottom side comprising a raised protrusion formed on the bottom side of the lower junction box assembly , the bottom side comprising a slot adapted to allow entry of the ribbon wire exiting from a back side of the solar panel; wherein the ribbon wire enters the lower junction box assembly through the slot and extends along a first region on the bottom side to a first side of the raised protrusion, is bent over the raised protrusion and formed to be substantially in the same shape as the raised protrusion, and extends along a second region on the bottom side to a second side of the raised protrusion; and a clamping plate , having an aperture through which the raised protrusion projects, that is attached to the bottom side so as to clamp the ribbon wire to the first and second regions of the bottom side; wherein the lower junction box assembly is adapted for attachment to the back side of the solar panel.
A method of assaying a sample for presence of nucleic acids from cells of a cancer type in a subject, the method comprising capturing converted cell-free DNA (cfDNA) fragments from the sample or amplification products thereof with a composition comprising a plurality of different bait oligonucleotides and sequencing the captured converted cfDNA fragments or amplification products thereof to produce sequencing reads, wherein: (a) each bait oligonucleotide in the plurality of different bait oligonucleotides is at least 45 nucleotides in length; (b) the plurality of different bait oligonucleotides are designed to collectively hybridize to converted cfDNA from at least 200 target genomic regions; (c) the at least 200 target genomic regions are differentially methylated in cfDNA of reference subjects with at least one cancer type relative to a different cancer type or relative to non-cancer; (d) the at least 200 target genomic regions comprise, for all possible pairs of cancer types selected from a set comprising at least 10 cancer types, at least one target genomic region that is identified as differentially methylated between the pair of cancer types in the cfDNA of the reference subjects; (e) detection by a classifier of an amount of sequences of cfDNA fragments from a plurality of the at least 200 target genomic regions in the sample that are hypermethylated or hypomethylated above a threshold amount identifies the cancer type in the subject; and (f) the classifier is a trained classifier that is trained using the converted cfDNA from the reference subjects; and (g) converted cfDNA comprises cfDNA treated to deaminate unmethylated cytosines. (a) each bait oligonucleotide in the plurality of different bait oligonucleotides is at least 45 nucleotides in length; (b) the plurality of different bait oligonucleotides are designed to collectively hybridize to converted cfDNA from at least 200 target genomic regions; (c) the at least 200 target genomic regions are differentially methylated in cfDNA of reference subjects with at least one cancer type relative to a different cancer type or relative to non-cancer; (d) the at least 200 target genomic regions comprise, for all possible pairs of cancer types selected from a set comprising at least 10 cancer types, at least one target genomic region that is identified as differentially methylated between the pair of cancer types in the cfDNA of the reference subjects; (e) detection by a classifier of an amount of sequences of cfDNA fragments from a plurality of the at least 200 target genomic regions in the sample that are hypermethylated or hypomethylated above a threshold amount identifies the cancer type in the subject; and (f) the classifier is a trained classifier that is trained using the converted cfDNA from the reference subjects; and (g) converted cfDNA comprises cfDNA treated to deaminate unmethylated cytosines.
A repair agent for use in repairing damaged tissue, comprising mesenchymal stem cells cultured in a serum-free medium, wherein the damaged tissue is tissue damage that accompanies chronic renal failure, a chronic kidney disease, cirrhosis, viral hepatitis, alcoholic hepatitis, or non-alcoholic steatohepatitis.
Filter device for polymer melts, having a filter screen , through which the polymer melt to be cleaned is conducted, wherein the filter device has at least one scraper element , which slides by way of a scraping edge over the inflow-side surface of the filter screen and/or rests with its end region close to the scraping edge on the inflow-side surface and which, when moving over the inflow-side surface , lifts and/or scrapes off the contaminants adhering to the inflow-side surface as well as the contaminants situated in front of the screen holes , wherein the scraping edge has a curve at least in its leading end region in the direction of movement , characterised in that the radius (R) of the curve is less than 90 % of the maximum diameter and/or the maximum opening width of the screen holes , wherein, at the surface facing the screen of the end region of the scraper element , the curve adjoins a contact surface , the extension of which perpendicular to the longitudinal extent (L) of the scraping edge corresponds to 5 to 100 times the maximum diameter and/or the maximum opening width of the screen holes , and the scraper element , in its end region close to the screen, has a tapering section supporting the curve ending in the scraping edge , wherein the apex angle (S) between the rear surface facing the screen and the front surface facing away from the screen bounding this section is 1 to 60°.
A coupling system between a wired communications link having a characteristic line impedance (Z 0 ) and capable of conveying a signal simultaneously comprising an electric power supply and data, and a control unit including an electric power supply terminal and a data terminal , said system having an input impedance (Z e ), and including means for matching the input impedance (Z e ) to the characteristic line impedance (Z 0 ) characterized in that the matching means include a load with a variable value depending on an output current (I s ) consumed by the control unit at the output of said system , and in that it comprises an energy recovery device intended to be connected between the wired link and the power supply terminal , and including said variable load , and a data transmission device intended to be connected between the wired link and the data terminal and including an attenuator capable of strongly reducing a second current (I 2 ), consumed at the input of said transmission device .
A method comprising: storing, in a first buffer associated with a first analog to digital converter, ADC, of a digital signal processor, DSP, resolver sine values collected from a first resolver, a second resolver, and a third resolver; storing, in a second buffer associated with a second ADC of the DSP, resolver cosine values collected from the first resolver, the second resolver, and the third resolver; storing, in a third buffer associated with a third ADC of the DSP, resolver excitation values collected from the first resolver, the second resolver, and the third resolver; determining a midpoint value of the resolver excitation values; determining a sine amplitude based at least in part on the resolver sine values and the midpoint value; determining a cosine amplitude based at least in part on the resolver cosine values and the midpoint value; and identifying a quadrant of a resolver position. storing, in a first buffer associated with a first analog to digital converter, ADC, of a digital signal processor, DSP, resolver sine values collected from a first resolver, a second resolver, and a third resolver; storing, in a second buffer associated with a second ADC of the DSP, resolver cosine values collected from the first resolver, the second resolver, and the third resolver; storing, in a third buffer associated with a third ADC of the DSP, resolver excitation values collected from the first resolver, the second resolver, and the third resolver; determining a midpoint value of the resolver excitation values; determining a sine amplitude based at least in part on the resolver sine values and the midpoint value; determining a cosine amplitude based at least in part on the resolver cosine values and the midpoint value; and identifying a quadrant of a resolver position.
A carrier based dental obturator , comprising: a carrier core having a generally conical body; a plurality of discrete protrusions (16'a, 16'b, 16'd, 16'd) provided at two or more axial locations on the surface of the conical body; and a layer of endodontic filling material coating the carrier core, wherein the thickness of the coating layer is about the same as the height of the protrusions above the surface of the conical body, wherein the protrusions comprises a single discrete protrusion at each axial location along the carrier core body and the relative circumferential positions of the protrusions are offset by a predetermined angle between axially adjacent protrusions. a carrier core having a generally conical body; a plurality of discrete protrusions (16'a, 16'b, 16'd, 16'd) provided at two or more axial locations on the surface of the conical body; and a layer of endodontic filling material coating the carrier core, wherein the thickness of the coating layer is about the same as the height of the protrusions above the surface of the conical body, wherein the protrusions comprises a single discrete protrusion at each axial location along the carrier core body and the relative circumferential positions of the protrusions are offset by a predetermined angle between axially adjacent protrusions.
A liquid-free trap for trace levels of an acidic or basic airborne molecular contaminant in a gas, comprising: a housing , comprising an inlet and an outlet ; a flow path between the inlet and the outlet ; and a porous solid mass of rigid sintered hydrophilic material situated in the flow path between the inlet and the outlet and sealed in the housing, the rigid sintered hydrophilic material functionalized with a basic species for trapping an acidic airborne molecular contaminant in the gas or an acidic species for trapping a basic airborne molecular contaminant in the gas, wherein the rigid sintered hydrophilic material has an average pore size of from 2 microns to 50 microns and is sintered stainless steel, sintered hydrophilic polyethylene, sintered hydrophilic polytetrafluoroethylene, sintered hydrophilic polyethersulfone or sintered hydrophilic nylon. a housing , comprising an inlet and an outlet ; a flow path between the inlet and the outlet ; and a porous solid mass of rigid sintered hydrophilic material situated in the flow path between the inlet and the outlet and sealed in the housing, the rigid sintered hydrophilic material functionalized with a basic species for trapping an acidic airborne molecular contaminant in the gas or an acidic species for trapping a basic airborne molecular contaminant in the gas, wherein the rigid sintered hydrophilic material has an average pore size of from 2 microns to 50 microns and is sintered stainless steel, sintered hydrophilic polyethylene, sintered hydrophilic polytetrafluoroethylene, sintered hydrophilic polyethersulfone or sintered hydrophilic nylon.
A method of managing IoT-based devices (104A-N) in an Internet-of-Things, IoT, environment including an IoT-cloud platform and a plurality of IoT-based devices (104A-N) connectable to the IoT-cloud platform , comprising: a) determining , by the IoT-cloud platform , a violation of at least one pre-defined security requirement by at least one vulnerable IoT-based device ; b) terminating , by the IoT-cloud platform , communication with the vulnerable IoT based device when the violation of the at least one pre-defined security requirement by the at least one vulnerable IoT-based device is determined, characterized in that the method further comprises the following steps: c) generating , by the IoT-cloud platform , a unique signature of the vulnerable IoT-based device based on information associated with the vulnerable IoT-based device ; and d) sending , by the IoT-cloud platform , a first notification indicating that the vulnerable IoT-based device violates the at least one pre-defined security requirement to one or more other non-vulnerable IoT-based devices (104B-N) connected to the IoT-cloud platform , wherein the first notification comprises the unique signature of the vulnerable IoT-based device , and e) wherein the one or more other non-vulnerable IoT-based devices (104B-N) terminate communication with the vulnerable IoT-based device based on the unique signature of the vulnerable IoT-based device in the first notification. a) determining , by the IoT-cloud platform , a violation of at least one pre-defined security requirement by at least one vulnerable IoT-based device ; b) terminating , by the IoT-cloud platform , communication with the vulnerable IoT based device when the violation of the at least one pre-defined security requirement by the at least one vulnerable IoT-based device is determined, characterized in that the method further comprises the following steps: c) generating , by the IoT-cloud platform , a unique signature of the vulnerable IoT-based device based on information associated with the vulnerable IoT-based device ; and d) sending , by the IoT-cloud platform , a first notification indicating that the vulnerable IoT-based device violates the at least one pre-defined security requirement to one or more other non-vulnerable IoT-based devices (104B-N) connected to the IoT-cloud platform , wherein the first notification comprises the unique signature of the vulnerable IoT-based device , and e) wherein the one or more other non-vulnerable IoT-based devices (104B-N) terminate communication with the vulnerable IoT-based device based on the unique signature of the vulnerable IoT-based device in the first notification.
An imaging system comprising: an imaging apparatus (IMA) having an X-ray source (S) and a detector (D) for receiving X-ray radiation emittable from said source, the X-ray source movable relative to the detector or the detector (D) movable relative to the X-ray source (S); a transmitter (TX) for transmitting a radio signal; a reflector (RF) arranged to reflect said radio signal; a receiver (RX) for receiving said reflected radio signal; a transducer (TR) operative to convert the received radio signal into positional correction information suitable to guide a motion of the X-ray source or of the detector so as to achieve a target spatial configuration of X-ray source and detector, where the X-ray source and the detector are in alignment and/or are at a predefined distance from each other, wherein the position correction information as produced by the transducer (TR) is based on a signal strength of the radio signal as received at the receiver (RX), and wherein the signal strength of the radio signal so received is below a sensitivity threshold once the target spatial configuration is assumed. an imaging apparatus (IMA) having an X-ray source (S) and a detector (D) for receiving X-ray radiation emittable from said source, the X-ray source movable relative to the detector or the detector (D) movable relative to the X-ray source (S); a transmitter (TX) for transmitting a radio signal; a reflector (RF) arranged to reflect said radio signal; a receiver (RX) for receiving said reflected radio signal; a transducer (TR) operative to convert the received radio signal into positional correction information suitable to guide a motion of the X-ray source or of the detector so as to achieve a target spatial configuration of X-ray source and detector, where the X-ray source and the detector are in alignment and/or are at a predefined distance from each other, wherein the position correction information as produced by the transducer (TR) is based on a signal strength of the radio signal as received at the receiver (RX), and wherein the signal strength of the radio signal so received is below a sensitivity threshold once the target spatial configuration is assumed.
Ultrasonic flowmeter, which comprises a measuring tube with a straight measuring tube axis as well as a first half and a second half, a transmitter designed to transmit an acoustic signal to a first signal path, a receiver designed to receive the acoustic signal on the first signal path and at least a first reflection surface at which the acoustic signal on the first signal path is reflected at least once, wherein the acoustic signal acting on the first reflection surface and the acoustic signal reflected at the first reflection surface extend along a straight subsection of the first signal path, characterized in that the transmitter , the receiver and the first reflection surface are oriented towards one another in such a way and are arranged in or on the measuring tube in such a way that the acoustic signal on the first signal path from the transmitter to the receiver is reflected at the first reflection surface in such a way that the sum of all the lengths , projected onto the measuring tube axis , of all the sub-sections (10, 12 or 11, 13) that extend in a first plane parallel to the measuring tube axis has a predefined value which is unequal to zero, wherein the sub-sections have a predefined distance which is unequal to zero in relation to the measuring tube axis , and wherein the sum of all the lengths , projected onto the measuring tube axis , of all the sub-sections (10, 12 or 11, 13) that extend in a second plane which is different to the first plane and parallel to the measuring tube axis has the same predefined value, wherein the sub-sections have the same predefined distance in relation to the measuring tube axis , and in that two consecutive sub-sections (11 and 13) of the optical path of the first signal path are located on the first plane and in that these sub-sections (11 et 13) extend in a first half of the measuring tube , and in that two consecutive sub-sections (10 and 12) of the optical path of the first signal path are located on the second plane and in that these sub-sections (10 and 12) extend in a second half of the measuring tube .