mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for manufacturing radiopharmaceutical products from reagents, the apparatus comprising a synthesis device and a loading device on which chemical systems in the form of a plurality of cassettes comprising the reagents may be mounted, said cassettes comprising means for transferring the chemical reagents, the synthesis device comprising an interface and mechanical means able to act on the transfer means of the cassettes when the cassettes are connected to the interface , the apparatus comprising a shifting means able to successively shift the plurality of cassettes from a storage position to a connected position onto the interface , and the synthesis device furthermore comprising ejecting means able to eject a cassette connected to the interface , said shifting means comprising: - a transfer means able to successively transfer, in a first movement, the cassettes from the storage position to a loading position located on or near the interface , and - a connecting means able to securely connect, in a second movement, the cassettes to the interface , both the transfer means and the connecting means being a piston or a hydraulic cylinder actuated by an automaton co-operating with a computer, the apparatus being characterized in that the shifting means is able to place a positioning wedge on the connecting means when the shifting means is shifting a cassette from the storage position to the loading position. - a transfer means able to successively transfer, in a first movement, the cassettes from the storage position to a loading position located on or near the interface , and - a connecting means able to securely connect, in a second movement, the cassettes to the interface ,
A method for co-precipitating a therapeutic agent into a hydroxyapatite coated surface comprising the steps of: providing a surface ; applying a base coating selected from the group of TiO 2 , TiO, TiCrO 2 , Ti 2 O 3 , Ti 3 O 5 , SiO 2 , MgO 2 , AlO 2 , and CrO 2 to the surface by cathodic arc evaporation; applying a hydroxyapatite seed layer on the base coating ; contacting the hydroxyapatite seed layered surface with a PBS solution including calcium and phosphate ions and the therapeutic agent, wherein the therapeutic agent is tobramycin and wherein the tobramycin has a concentration of 1.0 to 40 mg/ml in the PBS solution; and forming a co-precipitated therapeutic agent, hydroxyapatite layer on the coated surface. providing a surface ; applying a base coating selected from the group of TiO 2 , TiO, TiCrO 2 , Ti 2 O 3 , Ti 3 O 5 , SiO 2 , MgO 2 , AlO 2 , and CrO 2 to the surface by cathodic arc evaporation; applying a hydroxyapatite seed layer on the base coating ; contacting the hydroxyapatite seed layered surface with a PBS solution including calcium and phosphate ions and the therapeutic agent, wherein the therapeutic agent is tobramycin and wherein the tobramycin has a concentration of 1.0 to 40 mg/ml in the PBS solution; and forming a co-precipitated therapeutic agent, hydroxyapatite layer on the coated surface.
Probe applicator for laparoscopic use of flexible probes , with a housing which has a handle for manual positioning and movement of the probe applicator with respect to a patient, with a shaft which is an elongate stiff tube that is connected at a proximal end to a shaft receiver provided on the housing and is open at its distal end , with at least one control element arranged on the housing so as to be accessible for manual actuation, with a cable which extends from the housing to a connector with at least one plug connector , and contains at least one signal line that connects the control element to the plug contact , with a probe insertion opening which is provided on the housing and arranged opposite the shaft receiver , and with an attachment device which is configured for attachment of a probe in order to supply this with operating medium, characterised in that the attachment device is arranged on the connector . with a housing which has a handle for manual positioning and movement of the probe applicator with respect to a patient, with a shaft which is an elongate stiff tube that is connected at a proximal end to a shaft receiver provided on the housing and is open at its distal end , with at least one control element arranged on the housing so as to be accessible for manual actuation, with a cable which extends from the housing to a connector with at least one plug connector , and contains at least one signal line that connects the control element to the plug contact , with a probe insertion opening which is provided on the housing and arranged opposite the shaft receiver , and with an attachment device which is configured for attachment of a probe in order to supply this with operating medium, characterised in that the attachment device is arranged on the connector .
A method performed by a terminal in a communication system, the method comprising: receiving (S3110), from a base station, downlink control information, DCI; identifying (S3120) an identifier of the terminal for decoding the DCI, the identifier of the terminal being identified from a first-type identifier that is a cell-radio network temporary identifier, C-RNTI, and a second-type identifier; based on the type of the identifier, allocating (S3130) resources included in the DCI to a logical channel corresponding to the identifier of the terminal; and transmitting, to the base station, data based on the resources, wherein an error rate for a modulation coding scheme, MCS, level of resources allocated with the second-type identifier is lower than an error rate for an MCS level of resources allocated with the C-RNTI. receiving (S3110), from a base station, downlink control information, DCI; identifying (S3120) an identifier of the terminal for decoding the DCI, the identifier of the terminal being identified from a first-type identifier that is a cell-radio network temporary identifier, C-RNTI, and a second-type identifier; based on the type of the identifier, allocating (S3130) resources included in the DCI to a logical channel corresponding to the identifier of the terminal; and transmitting, to the base station, data based on the resources, wherein an error rate for a modulation coding scheme, MCS, level of resources allocated with the second-type identifier is lower than an error rate for an MCS level of resources allocated with the C-RNTI.
A brush for delivering a glutinous substance to a workpiece from an end-effector , the brush comprising: a body , having a rotational axis and comprising a first channel that comprises an inlet and a first outlet , wherein the inlet is coaxial with the rotational axis and the first outlet is offset from the rotational axis ; tufts , extending from the body and each comprising a tip and at least one bristle ; and a first tube , communicatively coupled with the first outlet of the first channel of the body , wherein the tufts comprise a first plurality of tufts and a second plurality of tufts ; the second plurality of tufts comprises a first group of tufts and a second group of tufts ; and the second plurality of tufts extends from the body at locations on the body that lie along a curvilinear path , which curvilinear path is a spiral path . a body , having a rotational axis and comprising a first channel that comprises an inlet and a first outlet , wherein the inlet is coaxial with the rotational axis and the first outlet is offset from the rotational axis ; tufts , extending from the body and each comprising a tip and at least one bristle ; and a first tube , communicatively coupled with the first outlet of the first channel of the body , wherein the tufts comprise a first plurality of tufts and a second plurality of tufts ; the second plurality of tufts comprises a first group of tufts and a second group of tufts ; and the second plurality of tufts extends from the body at locations on the body that lie along a curvilinear path , which curvilinear path is a spiral path .
A system for projecting light, the system comprising: a light generator that generates image light that corresponds to a series of images; a display device that receives the image light generated by the light generator; an acousto-optical scanner , wherein the display device directs the image light onto the acousto-optical scanner and the acousto-optical scanner deflects portions of the image light onto a plurality of diffractive optical elements , wherein each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images, wherein the plurality of diffractive optical elements is stacked, wherein each of the plurality of diffractive optical elements includes an in-coupling grating offset from respective in-coupling gratings of the other diffractive optical elements of the plurality such that each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images, wherein the acousto-optical scanner comprises a vertical acousto-optical modulator configured to generate first surface acoustic waves to deflect portions of the image light in a vertical direction, wherein the acousto-optical scanner comprises a horizontal acousto-optical modulator configured to generate second surface acoustic waves to deflect portions of the image light in a horizontal direction, and wherein the acousto-optical scanner is configured to more finely generate image points that the display device cannot target or reach. a light generator that generates image light that corresponds to a series of images; a display device that receives the image light generated by the light generator; an acousto-optical scanner , wherein the display device directs the image light onto the acousto-optical scanner and the acousto-optical scanner deflects portions of the image light onto a plurality of diffractive optical elements , wherein each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images, wherein the plurality of diffractive optical elements is stacked, wherein each of the plurality of diffractive optical elements includes an in-coupling grating offset from respective in-coupling gratings of the other diffractive optical elements of the plurality such that each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images, wherein the acousto-optical scanner comprises a vertical acousto-optical modulator configured to generate first surface acoustic waves to deflect portions of the image light in a vertical direction, wherein the acousto-optical scanner comprises a horizontal acousto-optical modulator configured to generate second surface acoustic waves to deflect portions of the image light in a horizontal direction, and wherein the acousto-optical scanner is configured to more finely generate image points that the display device cannot target or reach.
A battery terminal bushing configured to provide a connection for a battery, the battery terminal bushing comprising: a base portion configured to be at least partially embedded in battery container material; a lug portion extending from the base portion ; a through-hole aligned with a longitudinal axis (L) and extending through the base portion and the lug portion ; and a flange extending outwardly from the base portion , wherein the flange includes: a plurality of first recesses (117a-c, 117f-j, 117m-n) having a first shape, wherein individual first recesses have first and second sidewalls oriented at corresponding first and second angles that are slanted relative to the longitudinal axis (L), wherein the plurality of first recesses have an upside-down U-shaped configuration, and wherein the first and second sidewalls converge in a direction that extends away from the lug portion and is parallel to the longitudinal axis (L); and a plurality of second recesses (117d-e, 117k-l) having a second shape different than the first shape, wherein the first and second recesses (117a-n) are arranged circumferentially around the flange . a base portion configured to be at least partially embedded in battery container material; a lug portion extending from the base portion ; a through-hole aligned with a longitudinal axis (L) and extending through the base portion and the lug portion ; and a flange extending outwardly from the base portion , wherein the flange includes: a plurality of first recesses (117a-c, 117f-j, 117m-n) having a first shape, wherein individual first recesses have first and second sidewalls oriented at corresponding first and second angles that are slanted relative to the longitudinal axis (L), wherein the plurality of first recesses have an upside-down U-shaped configuration, and wherein the first and second sidewalls converge in a direction that extends away from the lug portion and is parallel to the longitudinal axis (L); and a plurality of second recesses (117d-e, 117k-l) having a second shape different than the first shape, wherein the first and second recesses (117a-n) are arranged circumferentially around the flange . a plurality of first recesses (117a-c, 117f-j, 117m-n) having a first shape, wherein individual first recesses have first and second sidewalls oriented at corresponding first and second angles that are slanted relative to the longitudinal axis (L), wherein the plurality of first recesses have an upside-down U-shaped configuration, and wherein the first and second sidewalls converge in a direction that extends away from the lug portion and is parallel to the longitudinal axis (L); and a plurality of second recesses (117d-e, 117k-l) having a second shape different than the first shape, wherein the first and second recesses (117a-n) are arranged circumferentially around the flange .
An anti-CCR8 antibody which comprises (i) a VH chain comprising three CDRs; and (ii) a VL chain comprising three CDRs, wherein: VH CDR#1 is GFIFSNAVMY (SEQ ID NO: 1); VH CDR#2 is RIKTKFNNYATYYADAVKG (SEQ ID NO:2); VH CDR#3 is GDRNKPFAY (SEQ ID NO:3); VL CDR#1 is RASTSVITLLH (SEQ ID NO:4); VL CDR#2 is GASNLES (SEQ ID NO:5); and VL CDR#3 is QQSWNDPYT (SEQ ID NO:6); wherein the antibody comprises an IgGl Fc constant region that is afucosylated. VH CDR#1 is GFIFSNAVMY (SEQ ID NO: 1); VH CDR#2 is RIKTKFNNYATYYADAVKG (SEQ ID NO:2); VH CDR#3 is GDRNKPFAY (SEQ ID NO:3); VL CDR#1 is RASTSVITLLH (SEQ ID NO:4); VL CDR#2 is GASNLES (SEQ ID NO:5); and VL CDR#3 is QQSWNDPYT (SEQ ID NO:6);
A method for cultivating cells, comprising the steps of: a) providing at least one cell present in a cell culture medium, and a cell culture substrate, b) contacting the at least one cell present in the cell culture medium with the cell culture substrate, c) incubating the at least one cell present in the cell culture medium on the cell culture substrate, characterised in that the cell culture substrate comprises a cell culture substrate of glass, and at least a part of the cell culture substrate of glass has a surface with a nanopore structure having an average pore diameter of 2 to 150 nm. a) providing at least one cell present in a cell culture medium, and a cell culture substrate, b) contacting the at least one cell present in the cell culture medium with the cell culture substrate, c) incubating the at least one cell present in the cell culture medium on the cell culture substrate,
A cleaning robot comprising: a housing that comprises a fluid inlet, a fluid outlet, a rear edge and a front edge; a drive system that includes a drive motor, a filtering unit ; an impeller ; a pump motor that is configured to rotate the impeller ; and a control unit; wherein the cleaning robot has the impeller configured to induce a flow of fluid from the fluid inlet through the filtering unit , through a rear fluid conduit and towards the fluid outlet; wherein each one of the fluid inlet and the fluid outlet is substantially closer to the rear edge of the housing than the front edge of the housing , characterised in that the pump motor , the drive motor and the impeller are substantially closer to the front edge of the housing than to the rear edge of the housing.
A method of manufacturing a microneedle by the use of a viscous material supply device including a stage and an injection plate , wherein the stage has a plurality of filling grooves on its upper surface which are concave toward a lower part and are formed to respectively correspond to through holes of the injection plate , the method comprising the steps of: spotting a viscous material on a plurality of points on a film (f) by disposing the film (f) on the stage ; supplying the viscous material on the upper surface of the film (f) through the plurality of through holes disposed on the injection plate , while the injection plate is completely adhered to the film (f) and the film (f) is disposed on the stage ; stopping the supply of the viscous material and lifting up the injection plate ; elongating the viscous material spotted on the film (f); and coagulating the elongated viscous material . spotting a viscous material on a plurality of points on a film (f) by disposing the film (f) on the stage ; supplying the viscous material on the upper surface of the film (f) through the plurality of through holes disposed on the injection plate , while the injection plate is completely adhered to the film (f) and the film (f) is disposed on the stage ; stopping the supply of the viscous material and lifting up the injection plate ; disposing the film (f) on the stage ; supplying the viscous material on the upper surface of the film (f) through the plurality of through holes disposed on the injection plate , while the injection plate is completely adhered to the film (f) and the film (f) is disposed on the stage ; stopping the supply of the viscous material and lifting up the injection plate ; elongating the viscous material spotted on the film (f); and coagulating the elongated viscous material .
A system comprising: a printhead optical density controller configured, for each of a plurality of printheads (371-380), to correlate a series of printhead waveforms input to a printhead with a series of optical density values output by the printhead in response to the printhead waveforms, wherein a parameter of the printhead waveforms input to the printhead varies over a range of values for the series of the printhead waveforms; the printhead optical density controller further configured, for each of the printheads (371-380), to determine a single target optical density for the printheads based on an average optical density of the printheads (371-380), to determine a functional relationship between the parameter of the printhead waveforms input to the printhead and the optical density values output by the printhead, and to determine a target printhead waveform parameter for the printhead based on the single target optical density input to an inverse of the functional relationship, and the printhead optical density controller further configured to update printhead settings to include information of the target printhead waveform parameter determined for each of the printheads (371-380) for applying to the printheads (371-380) to output ink at consistent optical density. a printhead optical density controller configured, for each of a plurality of printheads (371-380), to correlate a series of printhead waveforms input to a printhead with a series of optical density values output by the printhead in response to the printhead waveforms, wherein a parameter of the printhead waveforms input to the printhead varies over a range of values for the series of the printhead waveforms; the printhead optical density controller further configured, for each of the printheads (371-380), to determine a single target optical density for the printheads based on an average optical density of the printheads (371-380), to determine a functional relationship between the parameter of the printhead waveforms input to the printhead and the optical density values output by the printhead, and to determine a target printhead waveform parameter for the printhead based on the single target optical density input to an inverse of the functional relationship, and the printhead optical density controller further configured to update printhead settings to include information of the target printhead waveform parameter determined for each of the printheads (371-380) for applying to the printheads (371-380) to output ink at consistent optical density.
An agricultural nutrient applicator comprising: a container ; a nutrient distribution assembly operably coupled to the container to deliver a nutrient from the container ; a spectroscopic reflectance crop sense system , the spectroscopic reflectance crop sense system having an optical window ; and a controller coupled to the spectroscopic reflectance crop sense system and the nutrient distribution assembly , the controller being configured to obtain, from the spectroscopic reflectance crop sense system , information indicative of a measured nutrient level in the live plants and determine a remedial nutrient amount based on the measured nutrient level and a target nutrient level, the controller being further configured to control the nutrient distribution assembly based on the remedial amount; characterized in that a presentation assembly is mounted to the agricultural nutrient applicator , the presentation assembly being configured to position live plants in a field proximate the optical window of the spectroscopic reflectance crop sense system as the agricultural nutrient applicator moves. a container ; a nutrient distribution assembly operably coupled to the container to deliver a nutrient from the container ; a spectroscopic reflectance crop sense system , the spectroscopic reflectance crop sense system having an optical window ; and a controller coupled to the spectroscopic reflectance crop sense system and the nutrient distribution assembly , the controller being configured to obtain, from the spectroscopic reflectance crop sense system , information indicative of a measured nutrient level in the live plants and determine a remedial nutrient amount based on the measured nutrient level and a target nutrient level, the controller being further configured to control the nutrient distribution assembly based on the remedial amount; characterized in that a presentation assembly is mounted to the agricultural nutrient applicator , the presentation assembly being configured to position live plants in a field proximate the optical window of the spectroscopic reflectance crop sense system as the agricultural nutrient applicator moves.