mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a route (W) of a vehicle tyre , wherein the vehicle tyre has a tyre sensor module with a sensor unit for measuring a radial acceleration (aR), having at least the following steps of: - generating sensor signals (S3) characterizing the radial acceleration (aR) of the vehicle tyre over at least one interval of time (dt) by means of the sensor unit ; - determining at least one route interval (Wi) covered by the vehicle tyre within the respective interval of time (dt) on the basis of the generated sensor signals (S3) by means of an algorithm (A); and - determining the route (W) of the vehicle tyre from the at least one determined route interval (Wi), wherein, when determining the at least one route interval (Wi), the algorithm (A) takes into account a correction factor (K) for correcting the determined route interval (Wi), characterized in that the correction factor (K) is determined from a correction function (F), wherein the correction function (F) assigns a correction factor (K) to the radial acceleration (aR) measured by the sensor unit or to a variable dependent thereon, wherein the correction function (F) is determined in such a manner that the route interval (Wi) is corrected to a greater degree by means of the respectively assigned correction factor (K) in the case of a low radial acceleration (aR) than in the case of a high radial acceleration (aR). - generating sensor signals (S3) characterizing the radial acceleration (aR) of the vehicle tyre over at least one interval of time (dt) by means of the sensor unit ; - determining at least one route interval (Wi) covered by the vehicle tyre within the respective interval of time (dt) on the basis of the generated sensor signals (S3) by means of an algorithm (A); and - determining the route (W) of the vehicle tyre from the at least one determined route interval (Wi), wherein, when determining the at least one route interval (Wi), the algorithm (A) takes into account a correction factor (K) for correcting the determined route interval (Wi), characterized in that the correction factor (K) is determined from a correction function (F), wherein the correction function (F) assigns a correction factor (K) to the radial acceleration (aR) measured by the sensor unit or to a variable dependent thereon, wherein the correction function (F) is determined in such a manner that the route interval (Wi) is corrected to a greater degree by means of the respectively assigned correction factor (K) in the case of a low radial acceleration (aR) than in the case of a high radial acceleration (aR).
A dosimetry method comprising: imaging a sample displaced between a sensor surface and a surface of a microscopy sample chamber to produce an image of at least a part of the sample, the image being produced using lensless optical microscopy, the sample containing at least blood from a subject and optionally containing fiduciary beads distributed among blood cells of the sample; automatically differentiating cells of different types in the image; generating a count of one or more cell types based on the automatic differentiation, wherein generating a count of one or more cell types comprises generating a count of lymphocytes, the lymphocytes not distributed perfectly uniformly within the sample, such that there is a difference between the actual number of lymphocytes in the sample and the counts of lymphocytes generated based on the automatic differentiation; correcting the count of lymphocytes to take account for the difference based on the non perfectly uniform distribution of lymphocytes within the sample; and deriving a radiation dose the subject has absorbed based on the corrected count. imaging a sample displaced between a sensor surface and a surface of a microscopy sample chamber to produce an image of at least a part of the sample, the image being produced using lensless optical microscopy, the sample containing at least blood from a subject and optionally containing fiduciary beads distributed among blood cells of the sample; automatically differentiating cells of different types in the image; generating a count of one or more cell types based on the automatic differentiation, wherein generating a count of one or more cell types comprises generating a count of lymphocytes, the lymphocytes not distributed perfectly uniformly within the sample, such that there is a difference between the actual number of lymphocytes in the sample and the counts of lymphocytes generated based on the automatic differentiation; correcting the count of lymphocytes to take account for the difference based on the non perfectly uniform distribution of lymphocytes within the sample; and deriving a radiation dose the subject has absorbed based on the corrected count.
Motor vehicle secondary electric device having a housing , an electronically commutated drive motor , a working means driven by the drive motor , a peripheral connector arrangement having at least two exposed connector pins , and a motor control circuit board at least partly potted in a cast body , wherein the connector pins are each formed by a single rigid pin element , which is directly electrically connected to the motor control circuit board , characterized in that the cast body has a connector core that is integrally molded on in one piece and encloses the pin elements between the motor control board and a connector base formed by the connector core , such that the pin elements are completely potted in the cast body between the connector pins and the motor control board , the connector core is plugged into a housing opening of a housing body , such that the connector base closes the housing opening completely, and the pin elements project outward from the connector base through the housing opening , and the cast body or the housing body has at least two axial support noses by which the cast body is axially supported at the housing body .
A power generation system including a plurality of power generation apparatuses and configured to supply electric power to a load by performing interconnecting operation of the plurality of power generation apparatuses , wherein one of the plurality of power generation apparatuses is set as a master apparatus and the other power generation apparatuses are set as slave apparatuses when a power consumption by the load is less than electric power generated by rated operation of the master apparatus and the slave appartuses, the master apparatus is configured to cause the master apparatus and the slave appartuses to generate and supply electric power which follows the power consumption by the load , the master apparatus is configured to set priorities to the master apparatus and the slave apparatuses and control an apparatus with a higher priority to perform the rated operation, and characterized in that the master apparatus is configured to measure the power consumption by the load and, to determine whether the power consumption is equal to or greater than a threshold or not, when the master apparatus determines that the power consumption is equal to or greater than the threshold, the master apparatus is configured to set the priorities and switch to a control to cause an apparatus with a higher priority to perform rated operation and, when the master apparatus determines that the power consumption by the load is less than the threshold, the master apparatus is configured to switch to a control to equalize power generation outputs of the master apparatus and the slave apparatuses.
Tunnel kiln for heat treatment of products, comprising the following features: 1.1 A tunnel-like kiln chamber which extends from a first end to a second end of the kiln chamber , the kiln chamber being limited on the upper side by a kiln ceiling and on the side by kiln walls ; 1.2 kiln cars which can be moved from the first end to the second end along a transport direction through the kiln chamber and on which products to be treated with heat in the kiln chamber can be transported; 1.3 kiln furniture for receiving the products, the kiln furniture being arranged on the kiln cars ; 1.4 gas outlets , via which gas present in the kiln chamber can be discharged from the kiln chamber ; 1.5 gas inlets via which gas can be introduced into the kiln chamber ; and 1.6 means for heating the kiln chamber ; wherein 1.7 gas located in the region of the kiln ceiling can be discharged from the kiln chamber via the gas outlets ; 1.8 gas in the region of the kiln walls can be introduced into the kiln chamber via the gas inlets ; wherein 1.9 the kiln furniture being arranged on the kiln cars with the formation of at least one vertical gap between the kiln furniture ; wherein 1.10 the means for heating the kiln chamber are electric heating elements; wherein 1.11 gas which can be introduced into the kiln chamber via the gas inlets can be heated by the heating elements before the gas is introduced into the kiln chamber ; and wherein 1.12 gas can be introduced into the kiln chamber at different heights via the gas inlets . 1.1 A tunnel-like kiln chamber which extends from a first end to a second end of the kiln chamber , the kiln chamber being limited on the upper side by a kiln ceiling and on the side by kiln walls ; 1.2 kiln cars which can be moved from the first end to the second end along a transport direction through the kiln chamber and on which products to be treated with heat in the kiln chamber can be transported; 1.3 kiln furniture for receiving the products, the kiln furniture being arranged on the kiln cars ; 1.4 gas outlets , via which gas present in the kiln chamber can be discharged from the kiln chamber ; 1.5 gas inlets via which gas can be introduced into the kiln chamber ; and 1.6 means for heating the kiln chamber ; wherein 1.7 gas located in the region of the kiln ceiling can be discharged from the kiln chamber via the gas outlets ; 1.8 gas in the region of the kiln walls can be introduced into the kiln chamber via the gas inlets ; wherein 1.9 the kiln furniture being arranged on the kiln cars with the formation of at least one vertical gap between the kiln furniture ; wherein 1.10 the means for heating the kiln chamber are electric heating elements; wherein 1.11 gas which can be introduced into the kiln chamber via the gas inlets can be heated by the heating elements before the gas is introduced into the kiln chamber ; and wherein 1.12 gas can be introduced into the kiln chamber at different heights via the gas inlets .
Use of a composition comprising at least three different amino acids for stabilizing biomolecules immobilized on a solid carrier.
A shading device , the shading device comprising at least: a box , a screen , the screen being arranged at least partly inside the box , in an assembled configuration of the shading device , and a motorised drive device , the screen being configured to be moved by means of the motorised drive device , the motorised drive device comprising at least: an electromechanical actuator , the electromechanical actuator comprising at least one electric motor , an electronic control unit , the electronic control unit being electrically connected to the electric motor , the electronic control unit being disposed inside the box , in the assembled configuration of the shading device , and a radio antenna , the radio antenna being electrically connected to the electronic control unit , characterised in that the shading device further comprises a support , the support comprising at least one housing , the support being arranged outside the box , in the assembled configuration of the shading device , and in that the radio antenna is arranged partly inside the housing of the support , in the assembled configuration of the shading device . the shading device comprising at least: a box , a screen , the screen being arranged at least partly inside the box , in an assembled configuration of the shading device , and a motorised drive device , the screen being configured to be moved by means of the motorised drive device , a box , a screen , the screen being arranged at least partly inside the box , in an assembled configuration of the shading device , and a motorised drive device , the screen being configured to be moved by means of the motorised drive device , the motorised drive device comprising at least: an electromechanical actuator , the electromechanical actuator comprising at least one electric motor , an electronic control unit , the electronic control unit being electrically connected to the electric motor , the electronic control unit being disposed inside the box , in the assembled configuration of the shading device , and a radio antenna , the radio antenna being electrically connected to the electronic control unit , an electromechanical actuator , the electromechanical actuator comprising at least one electric motor , an electronic control unit , the electronic control unit being electrically connected to the electric motor , the electronic control unit being disposed inside the box , in the assembled configuration of the shading device , and a radio antenna , the radio antenna being electrically connected to the electronic control unit , characterised in that the shading device further comprises a support , the support comprising at least one housing , the support being arranged outside the box , in the assembled configuration of the shading device , and in that the radio antenna is arranged partly inside the housing of the support , in the assembled configuration of the shading device .
Compressor for conveying an air and/or gas stream for a ventilator or anaesthesia machine, having a housing , in the housing interior space of which there is arranged a rotatably mounted compressor wheel which is connected to an electric motor via a drive shaft , during the rotation of which compressor wheel the air and/or gas stream is conveyed from an inlet arranged upstream on a suction side of the compressor wheel to an outlet arranged downstream on a pressure side of the compressor wheel through a flow channel , wherein the compressor wheel arranged in the housing interior space is at least regionally surrounded by the housing, which is in the form of a collecting housing for the air and/or gas stream exiting the compressor wheel and is at least partially arranged on the pressure side of the compressor wheel , and by a cover element , which is at least partially arranged on the suction side of the compressor wheel and is at least sectionally separated from the compressor wheel by a gap , wherein, between the cover element and the collecting housing and between a functional component , which is at least indirectly connected to the compressor wheel and/or the electric motor , and the collecting housing , there is arranged in each case at least one decoupling element for vibration damping and at least partial sealing of the housing interior space with respect to surroundings , characterized in that the collecting housing is of spiral-shaped design.
A cathode active material comprising: a core comprising a compound represented by Formula 1; and a coating layer comprising a phosphorus-containing compound disposed on the surface of the core: Formula 1 Li a Zr α W β M 1-α-β O 2-b S b wherein, in Formula 1, M is at least one transition metal selected from transition metals, except Zr and W; and 0.98≤a≤1.02, 0<α≤0.005, 0<β≤0.005, and 0<b≤0.1. a core comprising a compound represented by Formula 1; and a coating layer comprising a phosphorus-containing compound disposed on the surface of the core: Formula 1 Li a Zr α W β M 1-α-β O 2-b S b wherein, in Formula 1, M is at least one transition metal selected from transition metals, except Zr and W; and 0.98≤a≤1.02, 0<α≤0.005, 0<β≤0.005, and 0<b≤0.1.
Method for the manufacture of an ALS inhibitor herbicide tolerant Beta vulgaris plant and parts thereof comprising a mutation at a position corresponding to position 1705-1707 of an endogenous acetolactate synthase (ALS) gene shown in reference nucleotide sequence SEQ ID NO: 1, wherein the ALS gene encodes an ALS polypeptide containing amino acid leucine at a position 569 of the ALS polypeptide, and which are homozygous for the mutation of the ALS gene, wherein the Beta vulgaris plant is non-transgenic as regards said endogenous ALS gene, and the codon at a position corresponding to position 1705-1707 is TTG, said method comprising the following steps: (a) exposing calli from B. vulgaris, to about 10 -7 M - 10 -9 M of an ALS inhibitor herbicide; (b) selecting cell colonies which can grow in the presence of up to3 x 10 -6 M of an ALS inhibitor herbicide; (c) regenerating shoots in presence of an ALS inhibitor herbicide; (d) selecting regenerated plantlets with an ALS inhibitor herbicide, wherein the plantlets comprise a mutation at a position corresponding to position 1705-1707 of an endogenous acetolactate synthase (ALS) gene shown in reference nucleotide sequence SEQ ID NO: 1, wherein the ALS gene encodes an ALS polypeptide containing amino acid leucine at a position 569 of the ALS polypeptide. (a) exposing calli from B. vulgaris, to about 10 -7 M - 10 -9 M of an ALS inhibitor herbicide; (b) selecting cell colonies which can grow in the presence of up to3 x 10 -6 M of an ALS inhibitor herbicide; (c) regenerating shoots in presence of an ALS inhibitor herbicide; (d) selecting regenerated plantlets with an ALS inhibitor herbicide,
Measurement device for performing measurements on a mixture of water and material being collected from a mining or dredging operation, the measurement device comprising a pipe section of a collecting or discharge pipe for collecting or discharging material from an underwater bottom, the pipe section being adapted for the mixture being guided therethrough, wherein the pipe section comprises a window arranged to withstand a pressure difference of 30 bar between an inside of the pipe section and an outside of the pipe section, the measurement device comprises an image capturing device arranged to capture an image of the collected material through the window , wherein the device further comprises a density measurement device for measuring the density of the mixture; and wherein the measurement device further comprises a control unit arranged to receive an image captured by the image capturing device and analyse the image to determine information about the collected material including an average grain size and a grain size distribution of the collected material, wherein the control unit is arranged to control dredging or mining equipment and wherein the control unit is configured to generate control signals to control operating parameters of dredging or mining equipment to optimize the loading process by using the determined average grain size and grain size distribution to estimate settling speed, wherein the control signals are based on information from said image capturing device and said density measurement device.
A cosmetic applicator comprising: a grip; a holder shaft that extends from the grip, the holder shaft comprising a longitudinal axis; an applicator region , one end of the applicator region being connected to a ball stud ; and a buffer element that is disposed inside the holder shaft and is in contact with one end of the ball stud , wherein the applicator region is adapted to pivot at a desired angle of up to 90° off the longitudinal axis, wherein the ball stud is connected to the holder shaft , wherein the holder shaft comprises an eye which acts as a socket for the ball stud to fit securely into, wherein the applicator region is further adapted to be adjusted in any direction or at least a plurality of directions around the longitudinal axis, and wherein the eye of the holder shaft , which acts as the socket for the ball stud , allows adjustments to be made in any direction or in said plural directions, and characterized in that the ball stud has a stopper, a protrusion or a hole at its bottom portion, the stopper or protrusion adapted to work in conjunction with cavities or ridges that are placed along grooves of inner walls of an socket of the holder shaft and the hole adapted to work in conjunction with stoppers or protrusions that are placed along grooves of inner walls of the socket of the holder shaft . a grip; a holder shaft that extends from the grip, the holder shaft comprising a longitudinal axis; an applicator region , one end of the applicator region being connected to a ball stud ; and a buffer element that is disposed inside the holder shaft and is in contact with one end of the ball stud , wherein the applicator region is adapted to pivot at a desired angle of up to 90° off the longitudinal axis, wherein the ball stud is connected to the holder shaft , wherein the holder shaft comprises an eye which acts as a socket for the ball stud to fit securely into, wherein the applicator region is further adapted to be adjusted in any direction or at least a plurality of directions around the longitudinal axis, and wherein the eye of the holder shaft , which acts as the socket for the ball stud , allows adjustments to be made in any direction or in said plural directions, and characterized in that the ball stud has a stopper, a protrusion or a hole at its bottom portion, the stopper or protrusion adapted to work in conjunction with cavities or ridges that are placed along grooves of inner walls of an socket of the holder shaft and the hole adapted to work in conjunction with stoppers or protrusions that are placed along grooves of inner walls of the socket of the holder shaft .
Support stocking configured for therapeutic compression and for exerting a pressure of at least 10 mm Hg on the ankle of the user during use, wherein the support stocking is made of elastic material with an upper end comprising one or more hooking provisions for manual pulling on of the support stocking, wherein the hooking provision comprises an opening through the material of the upper end of the support stocking, wherein the opening takes the form of a slit having a longitudinal direction extending in radial orientation on the support stocking and a reinforcing structure -arranged around a part of the slit , wherein a slit has a form and dimensions such that two or more fingers at the same time, can be inserted therein.