mhurhangee/ep-ind-claims huggingface dataset:
A method for selectively separating cardiovascular progenitor cells from a primate cells population containing non-differentiated ES cells and cardiovascular progenitor cells comprising the following steps of: A) contacting the cells population with anti-CD 15 antibodies; and B) selecting and collecting the cells that bind specifically to the CD 15 antibodies or eliminating the cells which are not bound to the anti-CD 15 antibodies. A) contacting the cells population with anti-CD 15 antibodies; and B) selecting and collecting the cells that bind specifically to the CD 15 antibodies or eliminating the cells which are not bound to the anti-CD 15 antibodies.
A lighting assembly (100, 200, 230, 260, 300, 330, 360, 600) for illumination, the lighting assembly (100, 200, 230, 260, 300, 330, 360, 600) comprising: - a light exit window for emitting light into an ambient of the lighting assembly (100, 200, 230, 260, 300, 330, 360, 600), - a first light emitting element (110, 262) for emitting visible light, the first light emitting element (110, 262) being capable of emitting visible light having a color point in a CIE XYZ color space, the color point having a distance smaller than 25 SDCM to the black body line in said color space, - a second light source for emitting UV light, the UV light comprising light in a spectral range from 280 nm to 350 nm, in use the UV light is at least partly emitted through the light exit window, the second light source being arranged not to emit the UV light directly towards the light exit window, - a reflection element configured to reflect the UV light, the reflection element being arranged at a position for receiving at least a portion of the UV light and is arranged for reflecting the received UV light towards the light exit window, wherein the lighting assembly (100, 200, 230, 260, 300, 330, 360, 600) is configured to emit, in operation, an amount of the UV light in the spectral range through the light exit window, the amount of the UV light having a first radiant flux and the lighting assembly (100, 200, 230, 260, 300, 330, 360, 600) is configured to emit a second radiant flux of the visible light through the light exit window, a ratio between the first radiant flux and the second radiant flux is in a range from 0.01 to 0.0001. - a light exit window for emitting light into an ambient of the lighting assembly (100, 200, 230, 260, 300, 330, 360, 600), - a first light emitting element (110, 262) for emitting visible light, the first light emitting element (110, 262) being capable of emitting visible light having a color point in a CIE XYZ color space, the color point having a distance smaller than 25 SDCM to the black body line in said color space, - a second light source for emitting UV light, the UV light comprising light in a spectral range from 280 nm to 350 nm, in use the UV light is at least partly emitted through the light exit window, the second light source being arranged not to emit the UV light directly towards the light exit window, - a reflection element configured to reflect the UV light, the reflection element being arranged at a position for receiving at least a portion of the UV light and is arranged for reflecting the received UV light towards the light exit window,
A cathode active material for lithium secondary batteries, comprising: a lithium metal oxide secondary particle core formed by aggregation of a plurality of lithium metal oxide primary particles, wherein the lithium metal oxide of the core is any one selected from the group consisting of LiCoO 2, Li(Ni a Co b Al c)O 2 (0<a<1, 0<b<1, 0<c<1, a+b+c=1), Li(Ni a Co b Mn c)O 2 (0<a<1, 0<b<1, 0<c<1, a+b+c=1), Li(Li x Ni a CO b Mn c)O 2 (0<x<0.5, 0<a<1, 0<b<1, 0<c<1, a+b+c=1) and LiMn 2 O 4, or mixtures thereof; a first shell; characterised by a second shell formed by coating the surface of the first shell with a plurality of olivine-type lithium iron phosphate particles and a plurality of conductive material particles, wherein the first shell is formed by coating the surface of the secondary particle core with a plurality of barium titanate particles and a plurality of metal oxide particles. a lithium metal oxide secondary particle core formed by aggregation of a plurality of lithium metal oxide primary particles, wherein the lithium metal oxide of the core is any one selected from the group consisting of LiCoO 2, Li(Ni a Co b Al c)O 2 (0<a<1, 0<b<1, 0<c<1, a+b+c=1), Li(Ni a Co b Mn c)O 2 (0<a<1, 0<b<1, 0<c<1, a+b+c=1), Li(Li x Ni a CO b Mn c)O 2 (0<x<0.5, 0<a<1, 0<b<1, 0<c<1, a+b+c=1) and LiMn 2 O 4, or mixtures thereof; a first shell; characterised by a second shell formed by coating the surface of the first shell with a plurality of olivine-type lithium iron phosphate particles and a plurality of conductive material particles, wherein the first shell is formed by coating the surface of the secondary particle core with a plurality of barium titanate particles and a plurality of metal oxide particles.
A nebulizer comprising: a removable component comprising a data carrier; and a data reader for communicating with the data carrier of the removable component; wherein the removable component comprises a mesh assembly; and wherein the nebulizer further comprises control means for controlling the operation of the nebulizer based on information provided by the data carrier. a removable component comprising a data carrier; and a data reader for communicating with the data carrier of the removable component; wherein the removable component comprises a mesh assembly; and wherein the nebulizer further comprises control means for controlling the operation of the nebulizer based on information provided by the data carrier.
A guide rail (61, 62) having a sliding leaf suspension, wherein the sliding leaf suspension comprises at least two guide rail profiles (10, 20) connected by insulating bars (11, 12), wherein the guide rail (61, 62) has at least one running surface for supporting at least one wheel tread surface of at least one running roller (51, 52) of a sliding leaf, in particular a window casement or door leaf, wherein the running surface width at a given running roller width is a function of the profile spacing (p) of the guide rail profiles (10, 20) from one another.
A method for producing a casting by pouring a metal melt by gravity into a gas-permeable casting mold having a cavity comprising at least a sprue, a runner and a product-forming cavity, comprising pouring a metal melt into a desired cavity portion including said product-forming cavity through said sprue, said melt being in a volume smaller than the volume of an entire cavity of said gas-permeable casting mold and substantially equal to the volume of said desired cavity portion; supplying a gas to said desired cavity portion through said sprue before said desired cavity portion is filled with the poured melt, so that said melt fills said desired cavity portion; and cooling a portion of said melt in contact with the gas directly or indirectly by water supplied from outside said gas-permeable casting mold, simultaneously with, during or after supplying said gas, thereby solidifying said melt.
A motorized brewing unit for preparing beverages from a powdered product containing at least one ingredient, comprising a dispensing assembly which includes - a first assembly part having a receptacle adapted to receive said powdered product, and - a second assembly part, relative to which the first assembly part is movable between an open position, wherein the first assembly part and the second assembly part are spaced apart from each other to allow said powdered product to be inserted into the receptacle, and a closed position, wherein the first assembly part and the second assembly part are coupled to each other to define a brewing chamber therebetween, an electric motor adapted to control the movement of the first assembly part relative to the second assembly part between the open position and the closed position, characterized by further comprising readout means (40, 41) adapted to provide a digital image of said powdered product, said readout means comprising an optical sensor which faces the receptacle in a detection position, intermediate between the open position and the closed position. a dispensing assembly which includes - a first assembly part having a receptacle adapted to receive said powdered product, and - a second assembly part, relative to which the first assembly part is movable between an open position, wherein the first assembly part and the second assembly part are spaced apart from each other to allow said powdered product to be inserted into the receptacle, and a closed position, wherein the first assembly part and the second assembly part are coupled to each other to define a brewing chamber therebetween, - a first assembly part having a receptacle adapted to receive said powdered product, and - a second assembly part, relative to which the first assembly part is movable between an open position, wherein the first assembly part and the second assembly part are spaced apart from each other to allow said powdered product to be inserted into the receptacle, and a closed position, wherein the first assembly part and the second assembly part are coupled to each other to define a brewing chamber therebetween, an electric motor adapted to control the movement of the first assembly part relative to the second assembly part between the open position and the closed position, characterized by further comprising readout means (40, 41) adapted to provide a digital image of said powdered product, said readout means comprising an optical sensor which faces the receptacle in a detection position, intermediate between the open position and the closed position.
A method for wireless communication at a user equipment, UE, comprising: receiving (210; 1605; 1705) a downlink, DL, synchronization signal from a base station on one or more DL beams, wherein each of the one or more DL beams are received in a respective symbol of a synchronisation subframe; identifying (215; 1610; 1710) a selected DL beam of the one or more DL beams for communications from the base station to the UE based on at least a signal quality of the DL synchronisation signal received on the one or more DL beams; receiving an indication, from the base station, indicating whether beam correspondence between one or more DL beams from the base station and one or more uplink, UL, beams at the base station is absent or present; and transmitting (225; 1615; 1715), in response to the indication from the base station indicating that beam correspondence is absent, on a plurality of UL beams at the UE a random access channel, RACH, message to the base station, using one of a resource or a RACH waveform, wherein the one of a resource or the RACH waveform is selected based at least in part on the selected DL beam, and wherein the RACH message is transmitted in each symbol of the corresponding random access subframe. receiving (210; 1605; 1705) a downlink, DL, synchronization signal from a base station on one or more DL beams, wherein each of the one or more DL beams are received in a respective symbol of a synchronisation subframe; identifying (215; 1610; 1710) a selected DL beam of the one or more DL beams for communications from the base station to the UE based on at least a signal quality of the DL synchronisation signal received on the one or more DL beams; receiving an indication, from the base station, indicating whether beam correspondence between one or more DL beams from the base station and one or more uplink, UL, beams at the base station is absent or present; and transmitting (225; 1615; 1715), in response to the indication from the base station indicating that beam correspondence is absent, on a plurality of UL beams at the UE a random access channel, RACH, message to the base station, using one of a resource or a RACH waveform, wherein the one of a resource or the RACH waveform is selected based at least in part on the selected DL beam, and wherein the RACH message is transmitted in each symbol of the corresponding random access subframe.
Method for operating an x-ray device for creation of a three-dimensional angiography of a body vessel segment, with the steps: a) Provision of a three-dimensional reconstruction of the body vessel segment to a computing device of the x-ray device; b) Calculation of a centre line through the body vessel segment and laying of an axis of rotation through the centre line by means of the computing device; c) Registration of the three-dimensional reconstruction with the x-ray device; d) Evaluation of the suitability of at least one recording angle pair with a first and a second recording angle for the creation of the three-dimensional angiography on the basis of an assessment criterion by means of the computing device; e) Selection of one of the at least one assessed recording angle pairs for creation of the three-dimensional angiography as a function of a result of the assessment. a) Provision of a three-dimensional reconstruction of the body vessel segment to a computing device of the x-ray device; b) Calculation of a centre line through the body vessel segment and laying of an axis of rotation through the centre line by means of the computing device; c) Registration of the three-dimensional reconstruction with the x-ray device; d) Evaluation of the suitability of at least one recording angle pair with a first and a second recording angle for the creation of the three-dimensional angiography on the basis of an assessment criterion by means of the computing device; e) Selection of one of the at least one assessed recording angle pairs for creation of the three-dimensional angiography as a function of a result of the assessment.
Wheel bearing unit having at least one wheel bearing element which has at least one attachment element which is provided also to act in the case of an attachment of a wheel to the wheel bearing element, and having a positioning element which is provided to position the wheel relative to the wheel bearing element and which has at least one region, which in a state of the wheel bearing unit in which the wheel which is to be supported by the wheel bearing unit is removed from the wheel bearing unit, rises in an axial direction of the wheel bearing unit relative to at least part of the wheel bearing element, wherein the positioning element is embodied separately from the wheel bearing element, wherein the wheel bearing unit has at least one roller bearing with rolling bodies and at least one inner ring, wherein the wheel bearing element forms an outer ring of the roller bearing, wherein the wheel bearing element has, in the axial direction between a running surface of the rolling bodies and an axial end facing the positioning element, an inner diameter which is always larger or equal to a maximum diameter of the running surface of the rolling bodies on the outer ring, characterized in that the positioning element surrounds an axle around which at least part of the wheel bearing unit rotates during an operating process.
A method for scaling-up a fluid catalytic reactor, the method comprising: one or more of constructing, operating, observing, or obtaining data related to a template fluid catalytic reactor comprising a template riser, a template lower reactor portion, and a template transition portion connecting the template riser and the template lower reactor portion; one or more of constructing or operating a scaled-up fluid catalytic reactor based on the template fluid catalytic reactor, the scaled-up fluid catalytic reactor comprising a scaled-up riser, a scaled-up lower reactor portion, and a scaled-up transition portion connecting the scaled-up riser and the scaled-up lower reactor portion, wherein: the ratio of the cross-sectional area of the scaled-up riser to the cross-sectional area of the template riser is from 80% to 120% of a scale-up factor; the ratio of the cross-sectional area of the scaled-up lower reactor portion to the cross-sectional area of the template lower reactor portion is from 80% to 120% of the scale-up factor; the scale-up factor is at least 1.3; and the height of the scaled-up transition portion is at least 70% of the width of the scaled-up riser and from 70% to 130% of the height of the template transition portion. one or more of constructing, operating, observing, or obtaining data related to a template fluid catalytic reactor comprising a template riser, a template lower reactor portion, and a template transition portion connecting the template riser and the template lower reactor portion; one or more of constructing or operating a scaled-up fluid catalytic reactor based on the template fluid catalytic reactor, the scaled-up fluid catalytic reactor comprising a scaled-up riser, a scaled-up lower reactor portion, and a scaled-up transition portion connecting the scaled-up riser and the scaled-up lower reactor portion, wherein: the ratio of the cross-sectional area of the scaled-up riser to the cross-sectional area of the template riser is from 80% to 120% of a scale-up factor; the ratio of the cross-sectional area of the scaled-up lower reactor portion to the cross-sectional area of the template lower reactor portion is from 80% to 120% of the scale-up factor; the scale-up factor is at least 1.3; and the height of the scaled-up transition portion is at least 70% of the width of the scaled-up riser and from 70% to 130% of the height of the template transition portion. the ratio of the cross-sectional area of the scaled-up riser to the cross-sectional area of the template riser is from 80% to 120% of a scale-up factor; the ratio of the cross-sectional area of the scaled-up lower reactor portion to the cross-sectional area of the template lower reactor portion is from 80% to 120% of the scale-up factor; the scale-up factor is at least 1.3; and the height of the scaled-up transition portion is at least 70% of the width of the scaled-up riser and from 70% to 130% of the height of the template transition portion.
An electronically tunable filter, the filter comprising: a first image rejection mixer; a second image rejection mixer; a first hybrid coupler, the first hybrid coupler being coupled to the first image rejection mixer; a second hybrid coupler, the second hybrid coupler being coupled to the second image rejection mixer; an internal filter, coupled to the first hybrid coupler and the second hybrid coupler; a control port for receiving a control signal; a power splitter, coupled to the control port, the first image rejection mixer, and the second image rejection mixer; a first port coupled to the first image rejection mixer; and a second port coupled to the first image rejection mixer. a first image rejection mixer; a second image rejection mixer; a first hybrid coupler, the first hybrid coupler being coupled to the first image rejection mixer; a second hybrid coupler, the second hybrid coupler being coupled to the second image rejection mixer; an internal filter, coupled to the first hybrid coupler and the second hybrid coupler; a control port for receiving a control signal; a power splitter, coupled to the control port, the first image rejection mixer, and the second image rejection mixer; a first port coupled to the first image rejection mixer; and a second port coupled to the first image rejection mixer.
A process for recovering particles of an acetylenic agent from a solution of the acetylenic agent wherein the acetylenic agent is 2,4-hexadiyn-1,6-bis(ethylurea), the process comprising precipitating the acetylenic agent by mixing a warm solution of the acetylenic agent in glacial acetic acid with a cold precipitation fluid to precipitate particles of the acetylenic agent and collecting the precipitated acetylenic agent particles characterized by controlling the particle size mean chord length of the precipitated acetylenic agent particles, as determined by a focused beam reflection method, to be 15 μm or less, during the precipitation by using an 80/20 weight for weight mixture of water and methanol for the precipitation fluid and maintaining the precipitation mixture at a temperature from 3 to 15°C throughout the precipitation process.
A method for detecting an antigen in an analysis sample, the method comprising: (a) contacting an analysis sample with a detection antibody with which a marker generating a detectable signal is combined and which specifically binds to the antigen; (b) contacting a capture antibody with the resultant product of step (a), the capture antibody specifically binding to an antigen to be detected; (c) contacting the detection antibody, with which the marker generating a detectable signal is combined, with a reference substance which is bound to a surface of a solid substrate and which includes an epitope to which the detection antibody specifically binds; (d) measuring signals generated from the markers of the resultant product of step (b) and the resultant product of step (c); and (e) analyzing the measured signals to determine the presence or absence and amount of the antigen in the analysis sample, wherein steps (a) to (d) are performed on a microchip having the microchannel, wherein the analyzing of the measured signals is performed by measuring signals of a reaction start zone, a test zone, a reference zone, and a reaction end zone, which are provided in the microchannel, and wherein the reaction start zone and the reaction end zone do not include any immobilized capture antibody and reference substance, and wherein the analyzing of the measured signals further includes an analysis step of calculating the error rate of the signals measured in the test zone and the reference zone, the error rate being calculated by measuring signals of the reaction start zone and the reaction end zone which are positioned from the test zone and the reference zone at a predetermined distance. (a) contacting an analysis sample with a detection antibody with which a marker generating a detectable signal is combined and which specifically binds to the antigen; (b) contacting a capture antibody with the resultant product of step (a), the capture antibody specifically binding to an antigen to be detected; (c) contacting the detection antibody, with which the marker generating a detectable signal is combined, with a reference substance which is bound to a surface of a solid substrate and which includes an epitope to which the detection antibody specifically binds; (d) measuring signals generated from the markers of the resultant product of step (b) and the resultant product of step (c); and (e) analyzing the measured signals to determine the presence or absence and amount of the antigen in the analysis sample,