mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a Central Unit, CU, (5-2b) of a distributed base station, the method comprising: sending, to a source Distributed Unit, DU, (5-2a-1) of the distributed base station, a user equipment, UE, CONTEXT MODIFICATION REQUEST message including a Configuration Query information element, IE, for requesting configuration information of the source DU (5-2a-1) for the UE , in a case where the UE is determined to move from the source DU (5-2a-1) to a target DU (5-2a-2) of the distributed base station; receiving, from the source DU (5-2a-1), a UE CONTEXT MODIFICATION RESPONSE message including configuration information including a cell group configuration of the source DU (5-2a-1) based on the UE CONTEXT MODIFICATION REQUEST message including the Configuration Query IE; and sending the configuration information including the cell group configuration of the source DU (5-2a-1) to the target DU (5-2a-2) or another base station. sending, to a source Distributed Unit, DU, (5-2a-1) of the distributed base station, a user equipment, UE, CONTEXT MODIFICATION REQUEST message including a Configuration Query information element, IE, for requesting configuration information of the source DU (5-2a-1) for the UE , in a case where the UE is determined to move from the source DU (5-2a-1) to a target DU (5-2a-2) of the distributed base station; receiving, from the source DU (5-2a-1), a UE CONTEXT MODIFICATION RESPONSE message including configuration information including a cell group configuration of the source DU (5-2a-1) based on the UE CONTEXT MODIFICATION REQUEST message including the Configuration Query IE; and sending the configuration information including the cell group configuration of the source DU (5-2a-1) to the target DU (5-2a-2) or another base station.
Centrifugal pump, in particular circulation pump, having a pump impeller and having an integrated motor for driving the impeller, wherein the motor is a wet-rotor motor, wherein provision is made of separating means for protecting the current-conducting elements of the stator from the delivery medium, wherein the motor is a synchronous reluctance motor having a rotor composed of a laminated core made of soft magnetic material, in which laminated core flux barriers are incorporated, wherein the distance A between the magnetically active components of the stator laminated core and of the rotor laminated core is less than or equal to 3% of the stator bore diameter, wherein the stator is protected completely from the delivery medium by a can , wherein the can is incorporated in the air gap between rotor and stator , wherein provision is made, as further separating means, of one or more groove wedges for sealing off one or more stator grooves , in order to protect current-conducting elements situated within the groove from the delivery medium, wherein the groove wedges are supported against shoulders of the stator tooth edges and are arranged on the surface of the can , wherein the groove wedges are connected to one another via two common end rings so as to form a groove-wedge cage, wherein, after the groove-wedge cage has been pushed into the stator, one of the end rings bears against the inner wall of the stator bore and the second end ring abuts against the stator face side.
Lighting device, in particular for motor vehicles, comprising at least: - a first light source and first optical means for participating in the generation of a first beam with an upper cut-off: - a second light source and second optical means for participating in the generation of a second beam with a lower cut-off, and - control means for controlling the first and second light sources capable of jointly switching on these first and second light sources to simultaneously generate the first and second beams, the first and second optical means being capable of projecting the first and second beams so that the lower cut-off is arranged on or below the upper cut-off to form a driving beam, the device comprising a plurality of second light sources each capable of generating a light strip and selectively controllable by the control means, all the light strips forming the second beam the device further comprises means for reducing the light intensity of at least one of the two beams as a function of the relative inclination of the vehicle with respect to the road on which it is travelling the device being characterized in that the means for reducing the light intensity operate a reduction whose amplitude is different for at least two of the second light sources. - a first light source and first optical means for participating in the generation of a first beam with an upper cut-off: - a second light source and second optical means for participating in the generation of a second beam with a lower cut-off, and - control means for controlling the first and second light sources capable of jointly switching on these first and second light sources to simultaneously generate the first and second beams, the first and second optical means being capable of projecting the first and second beams so that the lower cut-off is arranged on or below the upper cut-off to form a driving beam,
A process for producing a mono-PEGylated protein composition comprising at least about 90% mono-PEGylated protein, the process comprising: a) providing a first mixture comprising non-PEGylated protein and PEGylated protein, wherein the PEGylated protein comprises mono-PEGylated protein and oligo-PEGylated protein b) subjecting the first mixture to an ion exchange chromatography (IEC) step to provide an IEC flow-through solution in which the fraction of PEGylated protein is increased relative to the first mixture; the IEC step comprising applying the first mixture to an IEC material under conditions suitable for binding non-PEGylated protein; c) collecting the IEC flow-through solution from step b) to provide a second mixture comprising mono-PEGylated protein and oligo-PEGylated protein; and d) subjecting the second mixture to a hydrophobic interaction chromatography (HIC) step to provide a mono-PEGylated protein composition in which the fraction of mono-PEGylated protein is increased relative to the second mixture, wherein the mono-PEGylated protein composition comprises at least about 90% mono-PEGylated protein. a) providing a first mixture comprising non-PEGylated protein and PEGylated protein, wherein the PEGylated protein comprises mono-PEGylated protein and oligo-PEGylated protein b) subjecting the first mixture to an ion exchange chromatography (IEC) step to provide an IEC flow-through solution in which the fraction of PEGylated protein is increased relative to the first mixture; the IEC step comprising applying the first mixture to an IEC material under conditions suitable for binding non-PEGylated protein; c) collecting the IEC flow-through solution from step b) to provide a second mixture comprising mono-PEGylated protein and oligo-PEGylated protein; and d) subjecting the second mixture to a hydrophobic interaction chromatography (HIC) step to provide a mono-PEGylated protein composition in which the fraction of mono-PEGylated protein is increased relative to the second mixture, wherein the mono-PEGylated protein composition comprises at least about 90% mono-PEGylated protein.
A DC/DC converter, comprising a) a first DC link , preferably comprising a first DC link capacitor; b) a first plurality of N >1 converter bridges connected in parallel to the first DC link; c) a transformer, preferably a medium frequency transformer , having a primary side and a secondary side; d) wherein the primary side of the transformer comprises a plurality of M>1 primary windings, each of the plurality of primary windings having a first and a second terminal; e) characterized in that the converter further comprises a first plurality of N impedance elements and a second plurality of M impedance elements, wherein f) for each converter bridge, a different one from the first plurality of impedance elements is connected between said converter bridge and a common node (C); and g) each of the second plurality of M impedance elements is connected between the common node and the first terminal of a different one of the plurality of primary windings. a) a first DC link , preferably comprising a first DC link capacitor; b) a first plurality of N >1 converter bridges connected in parallel to the first DC link; c) a transformer, preferably a medium frequency transformer , having a primary side and a secondary side; d) wherein the primary side of the transformer comprises a plurality of M>1 primary windings, each of the plurality of primary windings having a first and a second terminal; e) characterized in that the converter further comprises a first plurality of N impedance elements and a second plurality of M impedance elements, wherein f) for each converter bridge, a different one from the first plurality of impedance elements is connected between said converter bridge and a common node (C); and g) each of the second plurality of M impedance elements is connected between the common node and the first terminal of a different one of the plurality of primary windings.
A method for molding a composite structure (1;51;61;71) comprising: a film formation step (S1) of forming a film adhesive (21;72), which is used in order to join a first composite material and a second composite material together, in a lump; an arrangement step (S2) of arranging the film adhesive (21; 72) formed in a lump on a corner part formed by the first composite material and the second composite material ; and a curing step (S4) of curing the film adhesive (21;72) to form a corner fillet part in the corner part . wherein the film adhesive is continuous toward the corner part from between the first composite material and the second composite material , and wherein the corner fillet part is formed with a surplus part of the film adhesive exposed from between the first composite material and the second composite material . a film formation step (S1) of forming a film adhesive (21;72), which is used in order to join a first composite material and a second composite material together, in a lump; an arrangement step (S2) of arranging the film adhesive (21; 72) formed in a lump on a corner part formed by the first composite material and the second composite material ; and a curing step (S4) of curing the film adhesive (21;72) to form a corner fillet part in the corner part . wherein the film adhesive is continuous toward the corner part from between the first composite material and the second composite material , and wherein the corner fillet part is formed with a surplus part of the film adhesive exposed from between the first composite material and the second composite material .
Method for cultivating a crop , such as lettuce or tomatoes, in an at least substantially daylight-free, climate- conditioned cultivation space, which cultivation space extends between a first side and an opposite second side , wherein the crop is exposed to photosynthetically active radiation from an array of spatially separated artificial light sources which is spatially distributed over the crop at least in the direction running from the first side to the second side characterised by that, an airflow is guided over and/or through the crop in a direction running from the first side to the second side, such that an air temperature of the cultivation space on the second side is higher than an air temperature of the cultivation space on the first side , wherein a higher dosage of photosynthetically active radiation is provided to the crop with light sources of the array of light sources located further downstream than with light sources located further upstream as seen in the flow direction of the airflow guided over the crop. an airflow is guided over and/or through the crop in a direction running from the first side to the second side, such that an air temperature of the cultivation space on the second side is higher than an air temperature of the cultivation space on the first side , wherein a higher dosage of photosynthetically active radiation is provided to the crop with light sources of the array of light sources located further downstream than with light sources located further upstream as seen in the flow direction of the airflow guided over the crop.
A method to adjust the orientation of a mobile video camera suited to film a pair of athletes moving on a field of play, the method comprising: - determining the position of the moving athletes relative to a coordinate system integral to the field of play by using radio transmitter means (12; 16), which are applied to the bodies of the athletes , and radio receiver means (13; 17), which are arranged around at least part of the field of play as well as fixed relative thereto and interfaced with processing and control means ; the method being characterised in that it further comprises: - determining in real time, by means of said processing and control means , an intermediate position between the two athletes relative to said coordinate system, as a function of the current positions of two athletes ; and - moving, by means of motor-driven moving means controlled by said processing and control means , the mobile video camera so as to center the respective framing on said intermediate position. - determining the position of the moving athletes relative to a coordinate system integral to the field of play by using radio transmitter means (12; 16), which are applied to the bodies of the athletes , and radio receiver means (13; 17), which are arranged around at least part of the field of play as well as fixed relative thereto and interfaced with processing and control means ; - determining in real time, by means of said processing and control means , an intermediate position between the two athletes relative to said coordinate system, as a function of the current positions of two athletes ; and - moving, by means of motor-driven moving means controlled by said processing and control means , the mobile video camera so as to center the respective framing on said intermediate position.
A method of illuminating a test sample , comprising: providing an illumination apparatus having a plurality of controllable light sources (108A-108D; 708A-708D), each having an emission wavelength; providing a test vessel (103; 703i-703iii) containing the test sample ; turning on all of the controllable light sources (108A-108D; 708A-708D) and providing a constant current to each of the plurality of controllable light sources (108A-108D; 708A-708D) for a time sufficient to ensure that any transients have died out and that the intensity of each of the plurality of light sources (108A-108D; 708A-708D) has become substantially constant; then turning off all but a single one of the plurality of controllable light sources (108A-108D; 708A-708D); receiving a changed light signal at a single detector from the single one light source passed through the test sample ; and repeatedly turning off all but a single other light source until readings at all wavelengths of interest are obtained. providing an illumination apparatus having a plurality of controllable light sources (108A-108D; 708A-708D), each having an emission wavelength; providing a test vessel (103; 703i-703iii) containing the test sample ; turning on all of the controllable light sources (108A-108D; 708A-708D) and providing a constant current to each of the plurality of controllable light sources (108A-108D; 708A-708D) for a time sufficient to ensure that any transients have died out and that the intensity of each of the plurality of light sources (108A-108D; 708A-708D) has become substantially constant; then turning off all but a single one of the plurality of controllable light sources (108A-108D; 708A-708D); receiving a changed light signal at a single detector from the single one light source passed through the test sample ; and repeatedly turning off all but a single other light source until readings at all wavelengths of interest are obtained.
A system for a drug delivery device comprising: - a reservoir holder configured to hold a reservoir , - an alignment interface comprising a main body configured to be coupled to the reservoir and a first alignment feature provided on the main body , characterised in that it comprises one or more coding features which allow the alignment interface to be mechanically coded to an inner wall of the reservoir holder , wherein, when the alignment interface is inserted into the reservoir holder , the first alignment feature cooperates with a corresponding alignment feature of the reservoir holder so as to rotate the alignment interface and thereby align the alignment interface within the reservoir holder . - a reservoir holder configured to hold a reservoir , - an alignment interface comprising a main body configured to be coupled to the reservoir and a first alignment feature provided on the main body ,
A method for installing a radiant panel, whereby the radiant panel is installed onto at least two mounting devices which comprise a frame , a spring part at the first end of the frame and a holder part at the second end of the frame, and the spring part comprises a spring , a spring nest and a spring nest holder , characterized in that the first side of the radiant panel is pushed towards the spring of the spring parts of the mounting devices such that the second side of the radiant panel is lifted on the holder parts of the frames and on top of the frames of the mounting devices, and the push of the first side of the radiant panel towards the spring parts is released such that the radiant panel places onto the frames of the mounting devices and the radiant panel is supported by the spring parts and holder parts of the mounting devices.
A method of predicting the sensitivity of the growth of a tumor cell to an AKT inhibitor, comprising determining the presence of a mutation to AKT, wherein the presence of a mutation to AKT correlates with sensitivity of the cell to the AKT inhibitor, wherein the AKT inhibitor is (S)-2-(4-chlorophenyl)-1-(4-( -7-hydroxy-5-methyl-6,7-dihydro-5H-cyclopenta[d]pyrimidin-4-yl)piperazin-1-yl)-3-(isopropylamino)propan-1-one, or a pharmaceutically acceptable salt thereof, wherein the mutation corresponds to, or aligns with, L52, K189 or D323.
A method for the preparation of a food grade coagulated potato protein concentrate, wherein it comprises the steps of a) separating fibers and starch from a potato pulp, wherein a potato fruit juice containing potato protein is obtained, b) coagulating the potato protein in the potato fruit juice by adjusting the pH to an acidic value and by heating, wherein a coagulated potato protein slurry containing particles of coagulated potato protein is obtained, c) reducing the total glycoalkaloid content in the coagulated potato protein slurry to less than 150 mg/kg protein concentrate, wherein the total glycoalkaloid content is reduced in a washing step comprising dewatering of the coagulated potato protein slurry and subsequent addition of water, wherein said washing step is performed one or more times, each time followed by a pH adjustment of the protein slurry to 2-7, and heating of the protein slurry to 20-150°C, and d) actively reducing the particle size of the potato protein particles by physical means in such a way that a coagulated potato protein concentrate is obtained in which 90 % of said particles have a particle size of less than 55 μm, measurable with a Malvern particle analyzer model Mastersizer S with dry powder feeder. a) separating fibers and starch from a potato pulp, wherein a potato fruit juice containing potato protein is obtained, b) coagulating the potato protein in the potato fruit juice by adjusting the pH to an acidic value and by heating, wherein a coagulated potato protein slurry containing particles of coagulated potato protein is obtained, c) reducing the total glycoalkaloid content in the coagulated potato protein slurry to less than 150 mg/kg protein concentrate, wherein the total glycoalkaloid content is reduced in a washing step comprising dewatering of the coagulated potato protein slurry and subsequent addition of water, wherein said washing step is performed one or more times, each time followed by a pH adjustment of the protein slurry to 2-7, and heating of the protein slurry to 20-150°C, and d) actively reducing the particle size of the potato protein particles by physical means in such a way that a coagulated potato protein concentrate is obtained in which 90 % of said particles have a particle size of less than 55 μm, measurable with a Malvern particle analyzer model Mastersizer S with dry powder feeder.
A system for circumferentially orienting a downhole latch subsystem in a wellbore, the system comprising: an outer tool assembly including a latch coupling having a latch profile and an orienting subassembly having an orienting profile positioned proximate to the latch profile ; and an inner tool assembly positionable within the outer tool assembly including a latch assembly having a plurality of latch keys including a primary latch key , wherein the inner tool assembly further comprises a retention subassembly having at least one retention key , wherein the primary latch key is circumferentially aligned with the retention key , wherein, after operable engagement of the primary latch key with the orienting profile, axial alignment of the latch assembly with the latch coupling causes operable engagement of the latch keys with the latch profile , and wherein, after operable engagement of the primary latch key with the orienting profile, axial shifting of the latch assembly toward the latch coupling causes operable engagement of the retention key with the orienting profile before disengagement of the primary latch key from the orienting profile. an outer tool assembly including a latch coupling having a latch profile and an orienting subassembly having an orienting profile positioned proximate to the latch profile ; and an inner tool assembly positionable within the outer tool assembly including a latch assembly having a plurality of latch keys including a primary latch key , wherein the inner tool assembly further comprises a retention subassembly having at least one retention key , wherein the primary latch key is circumferentially aligned with the retention key , wherein, after operable engagement of the primary latch key with the orienting profile, axial alignment of the latch assembly with the latch coupling causes operable engagement of the latch keys with the latch profile , and wherein, after operable engagement of the primary latch key with the orienting profile, axial shifting of the latch assembly toward the latch coupling causes operable engagement of the retention key with the orienting profile before disengagement of the primary latch key from the orienting profile.
A method for cell-free protein synthesis which comprises an in vitro translation reaction using a nucleic acid template and a eukaryotic cell lysate, characterised in that the translation reaction is carried out in the presence of a caspase inhibitor and the method is carried out in a device which comprises at least two compartments separated by a dialysis membrane, wherein the translation reaction takes place in at least one first compartment, the reaction compartment, and, during the translation reaction, i) reactants diffuse through the dialysis membrane out of at least one further compartment, the supply and discharge compartment, into the reaction compartment and ii) reaction by-products diffuse through the dialysis membrane out of the reaction compartment into the supply and discharge compartment.