mhurhangee/patent-ind-claim-en huggingface dataset:
Method in vitro for measuring Telomere Associated Variables (TAVs) in an isolated biological test sample of a subject, wherein the method uses a set of standard isolated biological samples of known telomere length, and comprises the following steps: a) providing a first set of intensity values of known telomere length, by using a HT Q-FISH methodology, from the set of standard isolated biological samples; b) generating a standard curve correlating the first set of intensity values with the known telomere length from the set of standard isolated biological samples; c) providing a second set of intensity values, by using a HT Q-FISH methodology, from the isolated biological test sample; d) calculating the telomere lengths within the isolated biological test sample of a subject by interpolating the second set of intensity values into the standard curve; and e) calculating, in the isolated biological test sample, at least one of the TAVs selecting from the list consisting of: telomere length percentiles from 1th to 99th, percentages of telomeric length values that can be specified to a particular bp range or number, percentages of cells with specific telomere median or average value that can be specified to a particular bp value, median absolute deviation of the intensities of a sample, difference between the 99th and 1st percentile of the telomere length of the sample, interquartile of the telomere length of a sample, standard deviation of the median telomere length values, or any combinations thereof. a) providing a first set of intensity values of known telomere length, by using a HT Q-FISH methodology, from the set of standard isolated biological samples; b) generating a standard curve correlating the first set of intensity values with the known telomere length from the set of standard isolated biological samples; c) providing a second set of intensity values, by using a HT Q-FISH methodology, from the isolated biological test sample; d) calculating the telomere lengths within the isolated biological test sample of a subject by interpolating the second set of intensity values into the standard curve; and e) calculating, in the isolated biological test sample, at least one of the TAVs selecting from the list consisting of: telomere length percentiles from 1th to 99th, percentages of telomeric length values that can be specified to a particular bp range or number, percentages of cells with specific telomere median or average value that can be specified to a particular bp value, median absolute deviation of the intensities of a sample, difference between the 99th and 1st percentile of the telomere length of the sample, interquartile of the telomere length of a sample, standard deviation of the median telomere length values, or any combinations thereof.
Method for the manufacture of a semiconductor device, comprising the steps of I) forming a wafer comprising the steps of: growing a doped layer on a semiconductor substrate ; growing an intrinsic first semiconductor layer on the doped layer ; providing a buried oxide layer on the intrinsic first semiconductor layer ; providing a second semiconductor layer on the buried oxide layer ; and II) forming an embedded DRAM device in a first region (A) of the wafer; and III) forming a back-biased transistor in a second region (B) of the wafer that is different from the first region (A); and wherein forming the back-biased transistor comprises forming a back-biasing region in the intrinsic first semiconductor layer by doping at least a part of the intrinsic first semiconductor layer of the already provided wafer with n or p dopants. I) forming a wafer comprising the steps of: growing a doped layer on a semiconductor substrate ; growing an intrinsic first semiconductor layer on the doped layer ; providing a buried oxide layer on the intrinsic first semiconductor layer ; providing a second semiconductor layer on the buried oxide layer ; and growing a doped layer on a semiconductor substrate ; growing an intrinsic first semiconductor layer on the doped layer ; providing a buried oxide layer on the intrinsic first semiconductor layer ; providing a second semiconductor layer on the buried oxide layer ; and II) forming an embedded DRAM device in a first region (A) of the wafer; and III) forming a back-biased transistor in a second region (B) of the wafer that is different from the first region (A);
A method of producing 1,5-anhydro-2,4-dideoxy-2-(4-fluoro-5-methyl-1-oxo-6-(4-(1H-pyrazol-1-yl)benzyl)-1,3-dihydro-2H-isoindol-2-yl)-L-threo-pentitol or a salt thereof, which comprises reacting 4-fluoro-3-hydroxy-5-methyl-6-[4-(1H-pyrazol-1-yl)benzyl]-2-benzofuran-1 -one or a salt thereof, 3-fluoro-2-formyl-4-methyl-5-[4-(1H-pyrazol-1-yl)benzyl]benzoic acid or a salt thereof, or a mixture thereof with 2-amino-1,5-anhydro-2,4-dideoxy-L-threo-pentitol.
Rotor for an outrunner motor comprising a rotor housing designed as a rotor bell with rotor poles situated therein, wherein the rotor bell is mountable in a stator of the outrunner motor so as to be rotatable about an axis of rotation (R) and exhibits a rigidity that is asymmetrical in relation to the axis of rotation (R), in particular an asymmetrical tilting rigidity, characterized in that the center of gravity of the rotor bell is located on its axis of rotation (R).
A direct current power supply comprising: an exciter having an excitation winding and operable to output an excitation voltage; a generator connected to the exciter and that generates a multiphase output having phase voltages based on the excitation voltage; a rectifier configured to receive the multiphase output and having diodes oriented to rectify multiphase output; a direct current link capacitor connected to an output of the rectifier that generates a direct current link capacitor voltage; a controller having an exciter winding driver, digital storage, and instructions stored on the digital storage operable upon execution by the controller to: receive a phase voltage for each phase of the multiphase output; define a maximum line-to-line voltage based on the phase voltages; generate an oscillating signal according to the maximum line-to-line voltage; and energize the exciter winding driver to drive the excitation winding based on the oscillating signal; and characterised in that : the phase voltages define a quadratic mean that is maintained greater than the direct current link capacitor voltage during a load-off. an exciter having an excitation winding and operable to output an excitation voltage; a generator connected to the exciter and that generates a multiphase output having phase voltages based on the excitation voltage; a rectifier configured to receive the multiphase output and having diodes oriented to rectify multiphase output; a direct current link capacitor connected to an output of the rectifier that generates a direct current link capacitor voltage; a controller having an exciter winding driver, digital storage, and instructions stored on the digital storage operable upon execution by the controller to: receive a phase voltage for each phase of the multiphase output; define a maximum line-to-line voltage based on the phase voltages; generate an oscillating signal according to the maximum line-to-line voltage; and energize the exciter winding driver to drive the excitation winding based on the oscillating signal; and characterised in that : receive a phase voltage for each phase of the multiphase output; define a maximum line-to-line voltage based on the phase voltages; generate an oscillating signal according to the maximum line-to-line voltage; and energize the exciter winding driver to drive the excitation winding based on the oscillating signal; and characterised in that : the phase voltages define a quadratic mean that is maintained greater than the direct current link capacitor voltage during a load-off.
A system comprising: a camera assembly ; at least one processor ; and memory storing instructions that, when executed by the at least one processor , cause the system to: determine a direction of movement of the camera assembly ; predict environmental factors based on the direction of movement; determine camera settings based on the environmental factors; and capture an image with the camera assembly using the determined camera settings; characterized in that the camera assembly includes a first camera and a second camera , and wherein the instructions that cause the system to determine the camera settings based on the environmental factors, comprise instructions that cause the system to: apply a negative offset to the camera settings to generate negative offset camera settings; apply a positive offset to the camera settings to generate positive offset camera settings; adjust the first camera based on the negative offset camera settings; and adjust the second camera based on the positive offset camera settings. a camera assembly ; at least one processor ; and memory storing instructions that, when executed by the at least one processor , cause the system to: determine a direction of movement of the camera assembly ; predict environmental factors based on the direction of movement; determine camera settings based on the environmental factors; and capture an image with the camera assembly using the determined camera settings; determine a direction of movement of the camera assembly ; predict environmental factors based on the direction of movement; determine camera settings based on the environmental factors; and capture an image with the camera assembly using the determined camera settings; characterized in that the camera assembly includes a first camera and a second camera , and wherein the instructions that cause the system to determine the camera settings based on the environmental factors, comprise instructions that cause the system to: apply a negative offset to the camera settings to generate negative offset camera settings; apply a positive offset to the camera settings to generate positive offset camera settings; adjust the first camera based on the negative offset camera settings; and adjust the second camera based on the positive offset camera settings. apply a negative offset to the camera settings to generate negative offset camera settings; apply a positive offset to the camera settings to generate positive offset camera settings; adjust the first camera based on the negative offset camera settings; and adjust the second camera based on the positive offset camera settings.
Vehicle compartment having a loading opening which can be covered by means of a movable cover , and having a manually operable locking mechanism for locking the cover in its closed position covering the loading opening , wherein - the locking mechanism has a movable pushbutton , a movement transmission element that can be displaced by the pushbutton , a locking element that can be unlocked by displacing the movement transmission element , and an elastic restoring element , - the elastic restoring element has at least two spring arms , of which at least one first spring arm can be deflected exclusively linearly during the movement of the movement transmission element , and of which at least one second spring arm is configured such that - when moved from its rest position, the movement transmission element firstly slides on the at least one second spring arm under its linear deflection and, when a predefined movement distance (xk) is reached, slides over the at least one second spring arm . - the locking mechanism has a movable pushbutton , a movement transmission element that can be displaced by the pushbutton , a locking element that can be unlocked by displacing the movement transmission element , and an elastic restoring element , - the elastic restoring element has at least two spring arms , of which at least one first spring arm can be deflected exclusively linearly during the movement of the movement transmission element , and of which at least one second spring arm is configured such that - when moved from its rest position, the movement transmission element firstly slides on the at least one second spring arm under its linear deflection and, when a predefined movement distance (xk) is reached, slides over the at least one second spring arm .
A drying system comprising the drying unit of claim 10, for lowering the moisture content in materials, comprising an air inlet through a heat pump evaporator unit , an heat pump condenser unit , a drying unit , a heat exchanger unit , a fan and air channels for closed transport of an airflow from the air inlet through the system, wherein the fan is arranged to cause ambient and/or surrounding air to flow into the air inlet through the heat pump evaporator unit and to maintain an airflow through the system; the heat pump evaporator unit is at least partly encased, the evaporator includes a refrigerant absorbing heat from surrounding air of which a portion flows into the system through the heat pump evaporator unit , thereby producing a cold and dehumidified air flow ; the heat pump condenser unit is encased defining a volume, through which the air flows, wherein the refrigerant releases the heat absorbed at the evaporator to the airflow, producing a dry, heated airflow which is introduced into the drying unit ; the drying unit is a pipe comprising a stationary outer pipe comprising a first end wall and a second end wall at opposite ends, at least one of the said end walls is provided with an opening for charging and discharging the material, and at least one opening in an outer pipe side wall for supplying warm, dry air a rotatable drying chamber holding the material to be dried, coaxially arranged inside the outer pipe , having a smaller diameter than the inner diameter of the outer pipe, and the side wall of the drying chamber is at least partially perforated, wherein the space defined between the inner side wall of the outer pipe and the drying chamber defines at least one compartment for receiving and distributing warm, dry air , an inner stationary chamber coaxially arranged inside the said drying chamber , the inner chamber has perforated or at least partially perforated side wall, for receiving air from the drying chamber, and discharging, the airflow via at least one pipe arranged in one of the end walls of the outer pipe ; and the heat exchanger unit is arranged to transfer heat from an airflow leaving the drying unit to the cold, dehumidified air flowing from the heat pump evaporator unit .
A method of sorting polymers that each comprise a sequence of polymer units, the method using a system that comprises a sample chamber containing a sample comprising the polymers, a collection chambers sealed from the sample chamber and a sensor element comprising a nanopore that communicates between the sample chamber and the collection chamber , the method comprising causing successive polymers from the sample chamber to start translocation through the nanopore , and, during the translocation of each polymer: taking successive measurements of the polymer from the sensor element ; analysing the series of measurements taken from the polymer during the partial translocation thereof using reference data derived from at least one reference sequence of polymer units to provide a measure of similarity between the sequence of polymer units of the partially translocated polymer and the at least one reference sequence, in dependence on the measure of similarity, selectively completing the translocation of the polymer into the collection chamber or else ejecting the polymer back into the sample chamber . taking successive measurements of the polymer from the sensor element ; analysing the series of measurements taken from the polymer during the partial translocation thereof using reference data derived from at least one reference sequence of polymer units to provide a measure of similarity between the sequence of polymer units of the partially translocated polymer and the at least one reference sequence, in dependence on the measure of similarity, selectively completing the translocation of the polymer into the collection chamber or else ejecting the polymer back into the sample chamber .
Seal carrier for a turbomachine, in particular a gas turbine, comprising a carrier base and at least one seal body , wherein the at least one seal body is connected to the carrier base , and wherein the at least one seal body is formed by a plurality of cavities arranged next to one another, in particular uniformly, in the peripheral direction (UR) and in the axial direction (AR), wherein the cavities extend out from the carrier base in the radial direction (RR) and are delimited by a cavity wall , wherein the seal body has a plurality of damping portions which are configured to locally dampen or interrupt the flow of force in the seal body, wherein the carrier base is configured to be continuous in the region of the damping portions , wherein that the damping portions are designed as slot-like openings which are provided in each case in two adjacent cavities such that these two adjacent cavities are in fluid communication with one another via the relevant opening , characterized in that the openings are arranged distributed on the seal body such that a cavity is in fluid communication with only a single adjacent cavity . a carrier base and at least one seal body , wherein the at least one seal body is connected to the carrier base , and wherein the at least one seal body is formed by a plurality of cavities arranged next to one another, in particular uniformly, in the peripheral direction (UR) and in the axial direction (AR), wherein the cavities extend out from the carrier base in the radial direction (RR) and are delimited by a cavity wall , wherein the seal body has a plurality of damping portions which are configured to locally dampen or interrupt the flow of force in the seal body, wherein the carrier base is configured to be continuous in the region of the damping portions , wherein that the damping portions are designed as slot-like openings which are provided in each case in two adjacent cavities such that these two adjacent cavities are in fluid communication with one another via the relevant opening , characterized in that the openings are arranged distributed on the seal body such that a cavity is in fluid communication with only a single adjacent cavity .
A conductive paste for forming electrodes of a solar cell, comprising at least: a conductive powder; a glass frit; and an organic vehicle, wherein the glass frit contains 35 to 90 mol% of Te in terms of TeO 2 , 5 to 50 mol% of Zn in terms of ZnO, 1 to 20 mol% of Bi in terms of Bi 2 O 3 , and 0.1 to 15 mol% of at least one element selected from the group of Li, Na and K in terms of oxides thereof, respectively. a conductive powder; a glass frit; and an organic vehicle,
Nebulizer comprising a nebulizer head and a control unit, the control unit comprising at least one sensor and being configured to activate the nebulizer head depending on measured values of the at least one sensor, the nebulizer comprising a signal generator which is configured to output a signal which is directly perceptible to the patient, which indicates an activation state of the nebulizer head, a measured value of the at least one sensor, and/or information derived therefrom, wherein the nebulizer head comprises an aerosol generator, and wherein the aerosol generator is a mesh nebulizer, and wherein the signal generator comprises a vibration exciter, wherein the vibration exciter is configured to generate vibration signals with different frequencies and/or intensities, wherein the vibration exciter is configured to provide feedback to a user of the nebulizer about its use, wherein the control unit is configured to activate the nebulizer head depending on the respiratory flow measured via the sensor, characterised in that the control unit is configured to activate the vibration exciter simultaneously with the nebulizer head and for the duration of at least one breath, and wherein the control unit is configured to activate the vibration exciter at a different frequency and/or intensity if the breath is too weak or too strong.
An information processing device , comprising: a processing unit configured to perform a plurality of calculations to generate an authentication key, wherein the plurality of calculations includes: calculations using keys assigned to a plurality of areas of a recording medium , and either: a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; wherein each conversion value corresponds to one of the keys assigned to a plurality of areas of the recording medium, wherein the conversion value corresponding to each key is obtained by converting device-specific information using one of a plurality of conversion methods, the conversion method associated with the key. a processing unit configured to perform a plurality of calculations to generate an authentication key, wherein the plurality of calculations includes: calculations using keys assigned to a plurality of areas of a recording medium , and either: a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; wherein each conversion value corresponds to one of the keys assigned to a plurality of areas of the recording medium, wherein the conversion value corresponding to each key is obtained by converting device-specific information using one of a plurality of conversion methods, the conversion method associated with the key. calculations using keys assigned to a plurality of areas of a recording medium , and either: a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; wherein each conversion value corresponds to one of the keys assigned to a plurality of areas of the recording medium, wherein the conversion value corresponding to each key is obtained by converting device-specific information using one of a plurality of conversion methods, the conversion method associated with the key.
Protective device for a voltage-controlled semiconductor switch having a gate terminal (G10), a power emitter terminal (L10), an auxiliary emitter terminal (H10) and a collector terminal (K10), wherein the semiconductor switch can switch a current between the collector terminal (K10) and the power emitter terminal (L10), the protective device containing - a voltage limiting device , which limits the voltage between the gate terminal (G10) and the power emitter terminal (L10), characterized by - a deactivation device , which is connected to the voltage limiting device and which deactivates the voltage limiting device during the switch-on of the semiconductor switch and thereby reduces switch-on losses during the switch-on of the semiconductor switch . - a voltage limiting device , which limits the voltage between the gate terminal (G10) and the power emitter terminal (L10), characterized by - a deactivation device , which is connected to the voltage limiting device and which deactivates the voltage limiting device during the switch-on of the semiconductor switch and thereby reduces switch-on losses during the switch-on of the semiconductor switch .