mhurhangee/patent-ind-claim-en huggingface dataset:
A solid electrolyte battery , comprising: (i) a positive electrode which can accept and release a first metal ion; (ii) a negative electrode which can accept and release the first metal ion; (iii) a first solid electrolyte layer which is provided in contact with the positive electrode between the positive electrode and the negative electrode and contains an oxide of the first metal, the oxide of the first metal includes at least a first metal, which generates the first metal ion, boron, and oxygen as constituent elements; wherein the first solid electrolyte layer does not contain nitrogen as a constituent element; and (iv) a second solid electrolyte layer which is provided in contact with the negative electrode between the positive electrode and the negative electrode and contains an oxynitride of the first metal, the oxynitride of the first metal includes at least the first metal, nitrogen, boron, and oxygen as constituent elements; wherein the first metal is constituted by at least one or more metal elements selected from the group consisting of alkali metal elements and alkaline earth metal elements. (i) a positive electrode which can accept and release a first metal ion; (ii) a negative electrode which can accept and release the first metal ion; (iii) a first solid electrolyte layer which is provided in contact with the positive electrode between the positive electrode and the negative electrode and contains an oxide of the first metal, the oxide of the first metal includes at least a first metal, which generates the first metal ion, boron, and oxygen as constituent elements; wherein the first solid electrolyte layer does not contain nitrogen as a constituent element; and (iv) a second solid electrolyte layer which is provided in contact with the negative electrode between the positive electrode and the negative electrode and contains an oxynitride of the first metal, the oxynitride of the first metal includes at least the first metal, nitrogen, boron, and oxygen as constituent elements;
A method for producing a functionally graded component layer-by-layer, comprising the steps of: depositing resin on a build surface defined by a resin support , wherein the resin is radiant-energy-curable and contains filler including at least two groups of particles with different physical properties; allowing the filler to settle such that the at least two groups of particles separate from each other, so as to define at least two regions within the resin; positioning a stage relative to the build surface so as to define a layer increment in the resin deposited on the build surface ; selectively curing the resin using an application of radiant energy in a specific pattern so as to define the geometry of a cross-sectional layer of the component ; moving the build surface and the stage relatively apart so as to separate the component from the build surface ; and repeating at least the steps of positioning and selectively curing for a plurality of layers, until the component is complete. depositing resin on a build surface defined by a resin support , wherein the resin is radiant-energy-curable and contains filler including at least two groups of particles with different physical properties; allowing the filler to settle such that the at least two groups of particles separate from each other, so as to define at least two regions within the resin; positioning a stage relative to the build surface so as to define a layer increment in the resin deposited on the build surface ; selectively curing the resin using an application of radiant energy in a specific pattern so as to define the geometry of a cross-sectional layer of the component ; moving the build surface and the stage relatively apart so as to separate the component from the build surface ; and repeating at least the steps of positioning and selectively curing for a plurality of layers, until the component is complete.
A method for detecting circulating cancer stem cells (CSCs) in a biological sample of a subject, the method comprising: causing a physical interaction between the biological sample and an antibody by exposing the biological sample to the antibody; and analyzing a cell population of the biological sample by: determining a presence of CSCs within the cell population by detecting binding between the antibody and a glycan biomarker, the glycan biomarker including at least one chain selected from the group consisting of: polylactosamine chains, oligosaccharide chains, and combinations thereof, the at least one chain having branches selected from the group consisting of: IIβ (Galβ1,4GlcNAcβ1,6), Iβ(Galβ1,3GlcNAcβ1,6), IIβ/Iβ (Gal β1, 4/3GlcNAc β1,6) -moieties, and combinations thereof; and detecting a level of the CSCs within the cell population of the biological sample responsive to the detection of binding between the antibody and the glycan biomarker. causing a physical interaction between the biological sample and an antibody by exposing the biological sample to the antibody; and analyzing a cell population of the biological sample by: determining a presence of CSCs within the cell population by detecting binding between the antibody and a glycan biomarker, the glycan biomarker including at least one chain selected from the group consisting of: polylactosamine chains, oligosaccharide chains, and combinations thereof, the at least one chain having branches selected from the group consisting of: IIβ (Galβ1,4GlcNAcβ1,6), Iβ(Galβ1,3GlcNAcβ1,6), IIβ/Iβ (Gal β1, 4/3GlcNAc β1,6) -moieties, and combinations thereof; and detecting a level of the CSCs within the cell population of the biological sample responsive to the detection of binding between the antibody and the glycan biomarker. polylactosamine chains, oligosaccharide chains, and combinations thereof, the at least one chain having branches selected from the group consisting of: IIβ (Galβ1,4GlcNAcβ1,6), Iβ(Galβ1,3GlcNAcβ1,6), IIβ/Iβ (Gal β1, 4/3GlcNAc β1,6) -moieties, and combinations thereof; and detecting a level of the CSCs within the cell population of the biological sample responsive to the detection of binding between the antibody and the glycan biomarker.
Stretch-blow molding machine with at least one blow molding station in which at least one split blow mold , an adjustable blow nozzle with a clock-controlled valve section , an adjustable stretching rod with one of several different clock-controlled stretching rod drive systems (A), and with an electronic control unit at least for controlling the stretching rod drive system (A) are provided, wherein the stretching rod drive system (A) comprises at least one combination of an electric servo drive and a pneumatic drive, or only an electric servo drive, characterized in that the electronic control unit arranged in the blow molding station is equipped with hardware and software technology for selectively operating the blow molding station with the respective stretching rod drive system, and that a servomotor of the stretching rod drive system designed as linear motor (L) with a runner has a tubular design with respect to its runner and forms with the runner a coaxial or essentially coaxial direct drive of the stretching rod .
Identification adapter for an identification device having a reading unit and a control unit communicating with the reading unit via a data communication link , the identification adapter having a receiving unit for wirelessly receiving identification data (ID) and a data transmitting unit which is designed to transmit the received identification data (ID) on the same data communication link from the reading unit to the control unit , the data transmission unit being set up to convert the first data format of the identification data (ID) received by the receiving unit of the identification adapter into the second data format provided for the data communication unit between the reading unit and the control unit in such a way that a decryption of the wirelessly received identification data (ID) and a conversion of the identification number or identification codes contained therein into an identification number corresponding to the number range of the control unit with an identification pattern predetermined by the control unit takes place, wherein the data transmission unit is adapted to change the identification data (ID) received by the receiving unit of the identification adapter by deleting, adding, selecting, regrouping and/or converting it into a character code range predetermined by the control unit .
Lighting device for a motor vehicle headlamp , comprising a lighting unit with at least one light source , with at least one primary optics and a projection optical system arranged downstream of the primary optics in the light exit direction , the at least one primary optics having several light guide elements and a light exit surface , each light guiding element comprising a light coupling surface for feeding in light from at least one light source and a light extraction surface , and the light extraction surfaces of the several light guiding elements opening into the common light extraction surface of the primary optics , characterized in that the light exit surface has, at least in sections thereof and in at least two rows , light extraction optics having a convex curvature and arranged directly adjacent to each other, wherein between the individual rows of the adjacent light extraction optics extraction grooves are provided for delimiting the edges of the light extraction optics in a row direction thereof, wherein respectively several light guide elements , arranged in a matrix arrangement next to each other line by line in a matrix line , are with their light extraction surfaces associated to a common light extraction optics .
A humidification chamber suitable for use with a humidifier for medical use, comprising: an exterior wall defining an interior space; a water inlet that permits water to enter the interior space; a primary valve that controls the entry of water into the humidification chamber through the water inlet , wherein the primary valve is controlled by a float; a secondary valve that controls entry of water into the humidification chamber through the water inlet , characterized in that the secondary valve is not controlled by a float. an exterior wall defining an interior space; a water inlet that permits water to enter the interior space; a primary valve that controls the entry of water into the humidification chamber through the water inlet , wherein the primary valve is controlled by a float; a secondary valve that controls entry of water into the humidification chamber through the water inlet , characterized in that the secondary valve is not controlled by a float.
A method for creating a new denture by duplicating an existing denture , said method comprising the steps of: taking a scan of the existing denture ; creating a digital three dimensional model of the existing denture from the scan of the existing denture ; manipulating the digital three dimensional model of the existing denture to obtain a three dimensional denture base model , wherein the manipulating includes: - fitting digital denture teeth from a library to the digital three dimensional model ; - offsetting the fitted digital teeth by adding a predetermined amount of overall thickness to the digital teeth ; - subtracting the fitted digital teeth and the offset from the digital three dimensional model and cleaning margins to create the three dimensional denture base model ; manufacturing a denture base from the digital three dimensional denture base model ; and - providing denture teeth which are selected from a library or fabricated from the digital model in a number of process steps; - installing the denture teeth to the denture base . taking a scan of the existing denture ; creating a digital three dimensional model of the existing denture from the scan of the existing denture ; manipulating the digital three dimensional model of the existing denture to obtain a three dimensional denture base model , wherein the manipulating includes: - fitting digital denture teeth from a library to the digital three dimensional model ; - offsetting the fitted digital teeth by adding a predetermined amount of overall thickness to the digital teeth ; - subtracting the fitted digital teeth and the offset from the digital three dimensional model and cleaning margins to create the three dimensional denture base model ; manufacturing a denture base from the digital three dimensional denture base model ; and - providing denture teeth which are selected from a library or fabricated from the digital model in a number of process steps; - installing the denture teeth to the denture base . - fitting digital denture teeth from a library to the digital three dimensional model ; - offsetting the fitted digital teeth by adding a predetermined amount of overall thickness to the digital teeth ; - subtracting the fitted digital teeth and the offset from the digital three dimensional model and cleaning margins to create the three dimensional denture base model ; manufacturing a denture base from the digital three dimensional denture base model ; and - providing denture teeth which are selected from a library or fabricated from the digital model in a number of process steps; - installing the denture teeth to the denture base .
A method of initiating code comprising: (i) storing an application in a memory, the application having first, second and third functions , the first function being a main function that calls the second and third functions to run the application; (ii) compiling the application to first and second heterogeneous processors to create first and second central processing unit, CPU, instruction set architecture, ISA, objects respectively, wherein each of the first and second CPU ISA objects have first and second naming structures; (iii) pruning the first and second CPU ISA objects by removing the third function from the first CPU ISA objects and removing first and second functions from the second CPU ISA objects , wherein, after pruning, the first and second CPU ISA objects have first and second naming structures respectively; characterised by (iv) proxy inserting first and second remote procedure calls, RPCs, in the first and second CPU ISA objects respectively, and pointing respectively to the third function in the second CPU ISA objects and the second function in the first CPU ISA objects ; and (v) section renaming the second CPU ISA objects , including renaming the second RPC , from the second naming structure to the first naming structure so that the first and second CPU ISA objects , including the first and second RPCs of the first and second CPU ISA objects , both have the first naming structure, to create a common application library of the first and second CPU ISA objects . (i) storing an application in a memory, the application having first, second and third functions , the first function being a main function that calls the second and third functions to run the application; (ii) compiling the application to first and second heterogeneous processors to create first and second central processing unit, CPU, instruction set architecture, ISA, objects respectively, wherein each of the first and second CPU ISA objects have first and second naming structures; (iii) pruning the first and second CPU ISA objects by removing the third function from the first CPU ISA objects and removing first and second functions from the second CPU ISA objects , wherein, after pruning, the first and second CPU ISA objects have first and second naming structures respectively; characterised by (iv) proxy inserting first and second remote procedure calls, RPCs, in the first and second CPU ISA objects respectively, and pointing respectively to the third function in the second CPU ISA objects and the second function in the first CPU ISA objects ; and (v) section renaming the second CPU ISA objects , including renaming the second RPC , from the second naming structure to the first naming structure so that the first and second CPU ISA objects , including the first and second RPCs of the first and second CPU ISA objects , both have the first naming structure, to create a common application library of the first and second CPU ISA objects .
A device for pelleting a past-like mass, in particular a past-like matrix containing seeds, the pellets to be made with the device having an elongate shape, with an exterior drum including a first axis and an inner surface , with an interior drum including a second axis and an outer surface , the interior drum being inserted into the exterior drum , with a drive unit , which drives the interior drum in rotation about the second axis and/or the exterior drum about the first axis with the proviso that the outer surface of the interior drum and the inner surface of the exterior drum rotatingly move in relation to each other, wherein the outer surface and the inner surface form, viewed in a cross-section surface extending in a vertical plane, a wedge-shaped pelleting space , which is tapering downwardly in the vertical direction and is open at its lower end.
Display mechanism for a timepiece, which can be disconnected using a friction coupling, and comprising a display mobile comprising a shaft on which are fixedly mounted a plate and a display member, a pinion mounted to rotate freely about said shaft and having a bearing surface , as well as friction spring arranged to frictionally couple the plate and said bearing surface of the pinion , the plate comprising a housing in which said friction spring and the bearing surface of the pinion are at least partially housed.
A fuel cell power controller suitable for use in a data center, the fuel cell power controller comprising: at least one of the following sensors: a digital server load current sensor which upon connection in a power system provides load current sensor values that track a load current of at least one digital server , or a fuel cell output voltage sensor which upon connection in a power system provides output voltage sensor values that track an output voltage of a fuel cell , wherein the at least one digital server is powered by the fuel cell; a power controller processor with executable instructions that upon execution by the power controller processor monitor at least a portion of the sensor values and measure a ramp rate of the fuel cell based at least in part on at least one of the sensor values, the ramp rate indicating a rate at which the fuel cell increases its power output; and a signal line connecting the fuel cell power controller with the at least one digital server, wherein the signal line provides a ramp rate alert signal to the at least one digital server when the executable instructions make a determination that the measured ramp rate of the fuel cell exceeds a previously specified ramp rate threshold. at least one of the following sensors: a digital server load current sensor which upon connection in a power system provides load current sensor values that track a load current of at least one digital server , or a fuel cell output voltage sensor which upon connection in a power system provides output voltage sensor values that track an output voltage of a fuel cell , wherein the at least one digital server is powered by the fuel cell; a power controller processor with executable instructions that upon execution by the power controller processor monitor at least a portion of the sensor values and measure a ramp rate of the fuel cell based at least in part on at least one of the sensor values, the ramp rate indicating a rate at which the fuel cell increases its power output; and a signal line connecting the fuel cell power controller with the at least one digital server, wherein the signal line provides a ramp rate alert signal to the at least one digital server when the executable instructions make a determination that the measured ramp rate of the fuel cell exceeds a previously specified ramp rate threshold.
A kit for a shoulder prosthesis comprising: a humeral anchor (30; 30'; 30"; 200) comprising a proximal portion and a distal portion , the proximal portion including a proximal face , the proximal face comprising a hole (42; 234) and a cavity (40; 270) that is distinct from the hole (42; 234); a reverse insert having a proximal portion and a distal portion , the proximal portion including a concave surface configured to receive a glenosphere and the distal portion comprising a protrusion , wherein the reverse insert is configured to directly couple to the cavity (40; 270) of the proximal face; and an anatomical insert having a proximal portion including a convex surface and a distal portion including a protrusion , wherein the anatomical insert is configured to directly couple to the hole (42; 234) of the proximal face; the kit being characterized in that the humeral anchor (30, 30', 30") comprises a stem having a metaphyseal portion comprising a medial arm and first and second lateral arms extending between and connecting the distal portion and the proximal portion of the humeral anchor, and in that the hole (42; 234) extends and is open to a window defined between a lateral edge of the medial arm and medial edges of the first and second lateral arms . a humeral anchor (30; 30'; 30"; 200) comprising a proximal portion and a distal portion , the proximal portion including a proximal face , the proximal face comprising a hole (42; 234) and a cavity (40; 270) that is distinct from the hole (42; 234); a reverse insert having a proximal portion and a distal portion , the proximal portion including a concave surface configured to receive a glenosphere and the distal portion comprising a protrusion , wherein the reverse insert is configured to directly couple to the cavity (40; 270) of the proximal face; and an anatomical insert having a proximal portion including a convex surface and a distal portion including a protrusion , wherein the anatomical insert is configured to directly couple to the hole (42; 234) of the proximal face; the kit being characterized in that the humeral anchor (30, 30', 30") comprises a stem having a metaphyseal portion comprising a medial arm and first and second lateral arms extending between and connecting the distal portion and the proximal portion of the humeral anchor, and in that the hole (42; 234) extends and is open to a window defined between a lateral edge of the medial arm and medial edges of the first and second lateral arms .