mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a multi-layer cured print construct, the method comprising: a) providing a substrate; b) providing one or more energy-curable compositions (A), comprising: i) one or more energy curable monomers, oligomers and/or polymers comprising reactive functional groups capable of polymerizing or crosslinking under actinic radiation; and ii) wherein at least one of the one or more energy-curable compositions comprise an amine; c) providing one or more non-energy-curable compositions (B), comprising: i) resins that do not comprise reactive functional groups capable of polymerizing or crosslinking under actinic radiation, and ii) one or more organic peroxides d) applying the one or more compositions (A) onto the substrate as energy-curable ink layers; e) applying the non-energy-curable composition (B) as a coating layer on top of the one or more ink layers of compositions (A); f) curing all of the ink layers of composition (A) simultaneously by a single exposure to an external energy source to create a cured print construct; wherein the non-energy-curable composition (B) is dried or cured before, during or after exposure to actinic radiation. a) providing a substrate; b) providing one or more energy-curable compositions (A), comprising: i) one or more energy curable monomers, oligomers and/or polymers comprising reactive functional groups capable of polymerizing or crosslinking under actinic radiation; and ii) wherein at least one of the one or more energy-curable compositions comprise an amine; i) one or more energy curable monomers, oligomers and/or polymers comprising reactive functional groups capable of polymerizing or crosslinking under actinic radiation; and ii) wherein at least one of the one or more energy-curable compositions comprise an amine; c) providing one or more non-energy-curable compositions (B), comprising: i) resins that do not comprise reactive functional groups capable of polymerizing or crosslinking under actinic radiation, and ii) one or more organic peroxides i) resins that do not comprise reactive functional groups capable of polymerizing or crosslinking under actinic radiation, and ii) one or more organic peroxides d) applying the one or more compositions (A) onto the substrate as energy-curable ink layers; e) applying the non-energy-curable composition (B) as a coating layer on top of the one or more ink layers of compositions (A); f) curing all of the ink layers of composition (A) simultaneously by a single exposure to an external energy source to create a cured print construct;
A method to manufacture a component comprising a single crystal microstructure, the method comprising: additively manufacturing a component , wherein the additively manufactured component comprises a polycrystalline microstructure : encasing the additively manufactured component in a shell mold ; wherein encasing the additively manufactured component in the shell mold comprises a process of: (a) dipping the entirety of the component in a ceramic slurry to form a layer of the shell mold on the entirety of the component , such that the layer is a ceramic layer; and (b) drying the layer of the shell mold ; and (c) repeating steps (a) and (b) to increase a thickness of the shell mold ; curing the shell mold ; placing the encased additively manufactured component in a furnace and melting the additively manufactured component to form a melted component; solidifying the melted component in the shell mold to form a solidified component; and removing the shell mold from the solidified component , wherein the solidified component comprises the single crystal microstructure. additively manufacturing a component , wherein the additively manufactured component comprises a polycrystalline microstructure : encasing the additively manufactured component in a shell mold ; wherein encasing the additively manufactured component in the shell mold comprises a process of: (a) dipping the entirety of the component in a ceramic slurry to form a layer of the shell mold on the entirety of the component , such that the layer is a ceramic layer; and (b) drying the layer of the shell mold ; and (c) repeating steps (a) and (b) to increase a thickness of the shell mold ; (a) dipping the entirety of the component in a ceramic slurry to form a layer of the shell mold on the entirety of the component , such that the layer is a ceramic layer; and (b) drying the layer of the shell mold ; and (c) repeating steps (a) and (b) to increase a thickness of the shell mold ; curing the shell mold ; placing the encased additively manufactured component in a furnace and melting the additively manufactured component to form a melted component; solidifying the melted component in the shell mold to form a solidified component; and removing the shell mold from the solidified component , wherein the solidified component comprises the single crystal microstructure.
A lateral single-photon avalanche diode, comprising: - a semiconductor body made of a semiconductor material of a first type of electric conductivity having a surface , - a trench having a sidewall arranged in the semiconductor body at the surface , - the semiconductor material comprising a junction region of the first type of electric conductivity near the sidewall of the trench formed by a sidewall implant up to the surface , a dopant concentration generating the electric conductivity being higher in the junction region than in an adjacent region located at a farther distance from the sidewall , - a semiconductor layer of an opposite second type of electric conductivity arranged at the sidewall of the trench adjacent to the junction region , and - anode and cathode terminals which are arranged at the surface of the semiconductor body , wherein one of the anode and cathode terminals being electrically connected with the semiconductor layer and the other one of the anode and cathode terminals being electrically connected with the junction region , - wherein a counterdoped region is arranged at the surface between the junction region and the surface , the counterdoped region is counterdoped such that it comprises a reduced electric conductivity to avoid a breakdown in this area. - a semiconductor body made of a semiconductor material of a first type of electric conductivity having a surface , - a trench having a sidewall arranged in the semiconductor body at the surface , - the semiconductor material comprising a junction region of the first type of electric conductivity near the sidewall of the trench formed by a sidewall implant up to the surface , a dopant concentration generating the electric conductivity being higher in the junction region than in an adjacent region located at a farther distance from the sidewall , - a semiconductor layer of an opposite second type of electric conductivity arranged at the sidewall of the trench adjacent to the junction region , and - anode and cathode terminals which are arranged at the surface of the semiconductor body , wherein one of the anode and cathode terminals being electrically connected with the semiconductor layer and the other one of the anode and cathode terminals being electrically connected with the junction region , - wherein a counterdoped region is arranged at the surface between the junction region and the surface , the counterdoped region is counterdoped such that it comprises a reduced electric conductivity to avoid a breakdown in this area.
A method for detecting a tumor cell surface marker molecule PD-L1, characterized in that , the method comprises the following steps: providing a capture screen that has antibodies capable of specifically binding to tumor cells, wherein the capture screen comprises a mesh substrate and EpCAM antibodies arranged on the mesh substrate by incubation; making a sample to be tested flow through the capture screen, such that tumor cells in the sample to be tested bind to the capture screen; fixing captured tumor cells on the capture screen; and successively using a PD-L1 primary antibody solution, a PD-L1 secondary antibody solution labeled with a fluorophore AlexaFluor 647, a pan-CK-AlexaFluor 488 primary antibody solution, a CD45 primary antibody solution and a CD45 secondary antibody solution labeled with a fluorophore AlexaFluor 568, to incubate the cells fixed on the capture screen, and then labeling all cells on the capture screen with a nuclear fluorescent dye. providing a capture screen that has antibodies capable of specifically binding to tumor cells, wherein the capture screen comprises a mesh substrate and EpCAM antibodies arranged on the mesh substrate by incubation; making a sample to be tested flow through the capture screen, such that tumor cells in the sample to be tested bind to the capture screen; fixing captured tumor cells on the capture screen; and successively using a PD-L1 primary antibody solution, a PD-L1 secondary antibody solution labeled with a fluorophore AlexaFluor 647, a pan-CK-AlexaFluor 488 primary antibody solution, a CD45 primary antibody solution and a CD45 secondary antibody solution labeled with a fluorophore AlexaFluor 568, to incubate the cells fixed on the capture screen, and then labeling all cells on the capture screen with a nuclear fluorescent dye.
A spun yarn winding system comprising a spun yarn take-up winder configured to perform yarn winding by which yarns (Y) spun out from a spinning apparatus are wound onto respective bobbins (B) while being traversed, the spun yarn take-up winder including: a bobbin holder supporting the bobbins (B) to be rotatable; a yarn detection unit which is provided between the spinning apparatus and the bobbins (B) in a yarn running direction and which detects the yarns (Y); and a control unit , when yarn threading in which the yarns (Y) are threaded to the spun yarn take-up winder before the yarn winding starts is being performed, the control unit determining whether a failure in the yarn threading occurs in each yarn (Y) based on a detection result provided by the yarn detection unit before the yarns (Y) are threaded onto the respective bobbins (B) supported by the bobbin holder , wherein the spun yarn take-up winder further includes traverse guides each of which is provided for traversing each of the yarns (Y), characterized in that the yarn detection unit is a traversing detection unit for detecting whether the yarns (Y) are being traversed by the traverse guides , and when the yarn threading is being performed, the control unit determines the occurrence of a failure in the yarn threading by determining whether each yarn (Y) is successfully being traversed by each traverse guide , based on the detection result provided by the traversing detection unit . a bobbin holder supporting the bobbins (B) to be rotatable; a yarn detection unit which is provided between the spinning apparatus and the bobbins (B) in a yarn running direction and which detects the yarns (Y); and a control unit , when yarn threading in which the yarns (Y) are threaded to the spun yarn take-up winder before the yarn winding starts is being performed, the control unit determining whether a failure in the yarn threading occurs in each yarn (Y) based on a detection result provided by the yarn detection unit before the yarns (Y) are threaded onto the respective bobbins (B) supported by the bobbin holder , wherein the spun yarn take-up winder further includes traverse guides each of which is provided for traversing each of the yarns (Y), characterized in that the yarn detection unit is a traversing detection unit for detecting whether the yarns (Y) are being traversed by the traverse guides , and when the yarn threading is being performed, the control unit determines the occurrence of a failure in the yarn threading by determining whether each yarn (Y) is successfully being traversed by each traverse guide , based on the detection result provided by the traversing detection unit .
A method of preparing a core fucosylated or nonfucosylated IgG antibody or Fc fragment thereof having a predetermined oligosaccharide moiety, the method comprising: providing an IgG antibody or IgG-Fc fragment comprising a core fucosylated or nonfucosylated GlcNAc-acceptor; and enzymatically reacting the core fucosylated or nonfucosylated GlcNAc-acceptor with an activated oligosaccharide donor using a Streptococcus pyogenes Endoglycosidase-S Asp233 mutant, wherein the activated oligosaccharide donor is a synthetic oligosaccharide oxazoline or sialylated oxazoline, wherein the Endoglycosidase-S mutant is selected from a mutant comprising a D233Q site-directed mutation represented by SEQ ID NO: 2 or a D233A site-directed mutation represented by SEQ ID NO: 3, wherein the activated oligosaccharide donor carries an activated oligosaccharide moiety comprising a predetermined number and type of sugar residues, wherein via an enzymatic reaction, the activated oligosaccharide moiety is covalently linked to the core fucosylated or nonfucosylated GlcNAc-acceptor, thereby preparing the fucosylated or nonfucosylated antibody or Fc fragment having the predetermined oligosaccharide moiety. providing an IgG antibody or IgG-Fc fragment comprising a core fucosylated or nonfucosylated GlcNAc-acceptor; and enzymatically reacting the core fucosylated or nonfucosylated GlcNAc-acceptor with an activated oligosaccharide donor using a Streptococcus pyogenes Endoglycosidase-S Asp233 mutant, wherein the activated oligosaccharide donor is a synthetic oligosaccharide oxazoline or sialylated oxazoline, wherein the Endoglycosidase-S mutant is selected from a mutant comprising a D233Q site-directed mutation represented by SEQ ID NO: 2 or a D233A site-directed mutation represented by SEQ ID NO: 3, wherein the activated oligosaccharide donor carries an activated oligosaccharide moiety comprising a predetermined number and type of sugar residues, wherein via an enzymatic reaction, the activated oligosaccharide moiety is covalently linked to the core fucosylated or nonfucosylated GlcNAc-acceptor, thereby preparing the fucosylated or nonfucosylated antibody or Fc fragment having the predetermined oligosaccharide moiety.
A cell which has been genetically engineered to release a polypeptide from said cell when a population of said cells reaches a desired density, and wherein said cell lyses when said population of cells reaches said desired density and wherein said cell comprises a Synchronized Lysis Circuit (SLC), said SLC comprising a coupled positive and a negative feedback loop, and the negative feedback promotes lysis of the cell, wherein the cell is a bacterial cell.
A filter control device, comprising a filter controller that performs control to cause low-pass characteristics of an optical low-pass filter mounted in an imaging device to be changed, characterized in that the filter controller performs the control to cause the low-pass characteristics of the optical low-pass filter to be changed during an image shooting process in accordance with a change in an image shooting range, wherein the change in the image shooting range is a change in the image shooting range during exposure or a change in the image shooting range before start of the exposure, and the change in the image shooting range is a change per unit time in image magnification by zooming. the filter controller performs the control to cause the low-pass characteristics of the optical low-pass filter to be changed during an image shooting process in accordance with a change in an image shooting range, wherein the change in the image shooting range is a change in the image shooting range during exposure or a change in the image shooting range before start of the exposure, and the change in the image shooting range is a change per unit time in image magnification by zooming.
Connecting system for commercial vehicles, comprising a first connector unit and a second connector unit , wherein the first plug unit is designed to be fixed to a rotor of a trailer unit , which rotor is rotatably mounted on the trailer unit about an axis of rotation (D), and has a first coupling region , the rotor being a rotary plate of the trailer unit , wherein the second connector unit has at least one fastening region for fixing to a coupling plate of a commercial vehicle and a second coupling region , wherein said first and second coupling portions are adapted to be coupled to each other along a coupling axis (K), characterized in that the coupling axis (K) is substantially parallel to the axis of rotation (D) and spaced from the axis of rotation (D), and in that the first coupling portion is/are displaceable relative to the rotor and/or the second coupling portion is/are displaceable relative to the mounting portion along the coupling axis (K) to engage or disengage the respective opposite coupling portion . comprising a first connector unit and a second connector unit , wherein the first plug unit is designed to be fixed to a rotor of a trailer unit , which rotor is rotatably mounted on the trailer unit about an axis of rotation (D), and has a first coupling region , the rotor being a rotary plate of the trailer unit , wherein the second connector unit has at least one fastening region for fixing to a coupling plate of a commercial vehicle and a second coupling region , wherein said first and second coupling portions are adapted to be coupled to each other along a coupling axis (K), characterized in that the coupling axis (K) is substantially parallel to the axis of rotation (D) and spaced from the axis of rotation (D), and in that the first coupling portion is/are displaceable relative to the rotor and/or the second coupling portion is/are displaceable relative to the mounting portion along the coupling axis (K) to engage or disengage the respective opposite coupling portion .
A hollow spherical glass particle, comprising: aluminum oxide Al 2 O 3 , silicon dioxide SiO 2 and at least one metal oxide, wherein the metal oxide is selected from the group consisting of alkali metal oxides; wherein the hollow spherical glass particle comprises between 32 wt. % and 40 wt. % of Al 2 O 3 , between 38 wt. % and 46 wt. % of SiO 2 , and between 18 wt. % and 26 wt. % of at least one alkali metal oxide selected from sodium oxide and/or potassium oxide; wherein the hollow spherical glass particle has a particle diameter of between 100 and 400 microns; with the proviso that the hollow spherical glass particle is free of boron. aluminum oxide Al 2 O 3 , silicon dioxide SiO 2 and at least one metal oxide, wherein the metal oxide is selected from the group consisting of alkali metal oxides; wherein the hollow spherical glass particle comprises between 32 wt. % and 40 wt. % of Al 2 O 3 , between 38 wt. % and 46 wt. % of SiO 2 , and between 18 wt. % and 26 wt. % of at least one alkali metal oxide selected from sodium oxide and/or potassium oxide; wherein the hollow spherical glass particle has a particle diameter of between 100 and 400 microns; with the proviso that the hollow spherical glass particle is free of boron.
A method comprising: receiving, by a network device, a packet for a flow; obtaining, by the network device from a flow cache entry for the flow, a memory address referenced by one or more actions of the flow cache entry and a first learn index for the memory address, the first learn index indicating a first allocation of the memory address; determining, by the network device, that the first learn index matches a second learn index stored to a memory address map entry for the memory address in a memory address map, the second learn index indicating a second allocation of the memory address; forwarding, by the network device, in response to the determining, the packet using the one or more actions of the flow cache entry; incrementing, by the network device in response to reallocating the memory address referenced by the one or more actions, the second learn index; initiating, by the network device, a timer in response to the reallocating; and refraining from initiating a subsequent reallocation of the memory address referenced by the one or more actions until the timer exceeds a delay threshold; wherein a learn index represents a number of times the memory address has been reallocated or freed by the network device. receiving, by a network device, a packet for a flow; obtaining, by the network device from a flow cache entry for the flow, a memory address referenced by one or more actions of the flow cache entry and a first learn index for the memory address, the first learn index indicating a first allocation of the memory address; determining, by the network device, that the first learn index matches a second learn index stored to a memory address map entry for the memory address in a memory address map, the second learn index indicating a second allocation of the memory address; forwarding, by the network device, in response to the determining, the packet using the one or more actions of the flow cache entry; incrementing, by the network device in response to reallocating the memory address referenced by the one or more actions, the second learn index; initiating, by the network device, a timer in response to the reallocating; and refraining from initiating a subsequent reallocation of the memory address referenced by the one or more actions until the timer exceeds a delay threshold; wherein a learn index represents a number of times the memory address has been reallocated or freed by the network device.