mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a semiconductor light-emitting device, the method comprising: (a) preparing a first wafer in which a semiconductor multi-layered light-emitting structure (810, 820, 830, 840) is laminated on an upper part of an initial substrate; (b) preparing a second wafer which is a supporting substrate for preparing a semiconductor light-emitting device, wherein the supporting substrate comprises a selected supporting substrate, a sacrificial layer on the selected supporting substrate, a heat-sink layer on the sacrificial layer and a bonding layer on the heat-sink layer; (c) bonding the second wafer on an upper part of the first wafer; (d) separating the initial substrate of the first wafer from the semiconductor multi-layered light-emitting structure in a result of the bonding of step (c); (e) separating the selected supporting substrate of the second wafer; characterized in that the method further comprises: (f) bonding a third supporting substrate on a portion of the heat sink layer exposed by separating the selected supporting substrate and the sacrificial layer from the heat sink layer using a third bonding layer made of electrically conductive metal or alloy; and (g) fabricating a single chip by severing a result of the bonding steep (f). (a) preparing a first wafer in which a semiconductor multi-layered light-emitting structure (810, 820, 830, 840) is laminated on an upper part of an initial substrate; (b) preparing a second wafer which is a supporting substrate for preparing a semiconductor light-emitting device, wherein the supporting substrate comprises a selected supporting substrate, a sacrificial layer on the selected supporting substrate, a heat-sink layer on the sacrificial layer and a bonding layer on the heat-sink layer; (c) bonding the second wafer on an upper part of the first wafer; (d) separating the initial substrate of the first wafer from the semiconductor multi-layered light-emitting structure in a result of the bonding of step (c); (e) separating the selected supporting substrate of the second wafer; characterized in that the method further comprises: (f) bonding a third supporting substrate on a portion of the heat sink layer exposed by separating the selected supporting substrate and the sacrificial layer from the heat sink layer using a third bonding layer made of electrically conductive metal or alloy; and (g) fabricating a single chip by severing a result of the bonding steep (f).
A method performed by a computing device for matrix downmixing an audio signal having N channels, comprising: selecting which of the N channels are surviving channels and which are non-surviving channels such that the surviving channels total M channels, where N and M are non-zero positive integers, M is equal to or greater than four and N is greater than M; downmixing each of the non-surviving channels onto multiplets of the surviving channels using the computing device and multiplet pan laws to obtain panning weights, downmixing further comprising: downmixing some non-surviving channels onto surviving channel doublets using a doublet pan law; downmixing some non-surviving channels onto surviving channel triplets using a triplet pan law; downmixing some non-surviving channels onto surviving channel quadruplets using a quadruplet pan law; and encoding and multiplexing the surviving channel doublets, triplets, and quadruplets into a bitstream having M channels and transmitting the bitstream for rendering in a playback environment. selecting which of the N channels are surviving channels and which are non-surviving channels such that the surviving channels total M channels, where N and M are non-zero positive integers, M is equal to or greater than four and N is greater than M; downmixing each of the non-surviving channels onto multiplets of the surviving channels using the computing device and multiplet pan laws to obtain panning weights, downmixing further comprising: downmixing some non-surviving channels onto surviving channel doublets using a doublet pan law; downmixing some non-surviving channels onto surviving channel triplets using a triplet pan law; downmixing some non-surviving channels onto surviving channel quadruplets using a quadruplet pan law; and downmixing some non-surviving channels onto surviving channel doublets using a doublet pan law; downmixing some non-surviving channels onto surviving channel triplets using a triplet pan law; downmixing some non-surviving channels onto surviving channel quadruplets using a quadruplet pan law; and encoding and multiplexing the surviving channel doublets, triplets, and quadruplets into a bitstream having M channels and transmitting the bitstream for rendering in a playback environment.
A method for making a gas turbine engine ceramic matrix composite structure, the method comprising: providing at least one metal core element, fabricating a ceramic matrix composite component, the fabricating comprising: - wrapping a plurality of plies of ceramic fabric about the metal core element; - externally tooling the metal core element and ceramic fabric combination, or part; - removing the external tooling; the metal core element becoming molten and flowing out of the part, with the exception of some residual core material; and removing the residual core material from the part by introduction of a halogen gas, wherein the ceramic matrix composite component comprises a blade, vane, blade track or combustor liner. providing at least one metal core element, fabricating a ceramic matrix composite component, the fabricating comprising: - wrapping a plurality of plies of ceramic fabric about the metal core element; - externally tooling the metal core element and ceramic fabric combination, or part; - removing the external tooling; - wrapping a plurality of plies of ceramic fabric about the metal core element; - externally tooling the metal core element and ceramic fabric combination, or part; - removing the external tooling; the metal core element becoming molten and flowing out of the part, with the exception of some residual core material; and removing the residual core material from the part by introduction of a halogen gas, wherein the ceramic matrix composite component comprises a blade, vane, blade track or combustor liner.
A medical instrument housing container comprising: a container body including a substantially rectangular base, a peripheral wall having a lower end that is contiguous to a perimeter of the base and extending upward, and a plurality of peripheral edges being contiguous to an upper end of the peripheral wall and extending outwardly, wherein the substantially rectangular base, the peripheral wall, and the plurality of peripheral edges are molded from resin, and the container body has an opening surrounded by the plurality of peripheral edges; a medical instrument held in the container body; and a protection film that is adhered or heat-sealed to the plurality of peripheral edges for covering and sealing the opening, wherein the medical instrument housing container is sterilized, and wherein the protection film covers the opening with a flection characterized in that at least a portion of the plurality of peripheral edges are curved inwardly. a container body including a substantially rectangular base, a peripheral wall having a lower end that is contiguous to a perimeter of the base and extending upward, and a plurality of peripheral edges being contiguous to an upper end of the peripheral wall and extending outwardly, wherein the substantially rectangular base, the peripheral wall, and the plurality of peripheral edges are molded from resin, and the container body has an opening surrounded by the plurality of peripheral edges; a medical instrument held in the container body; and a protection film that is adhered or heat-sealed to the plurality of peripheral edges for covering and sealing the opening, wherein the medical instrument housing container is sterilized, and wherein the protection film covers the opening with a flection characterized in that at least a portion of the plurality of peripheral edges are curved inwardly.
An information processing apparatus comprising: storage means for storing a first network address that is not for a virtual private network connection, a second network address that is for the VPN connection and addresses of printers including a first printer and a second printer; determining means for determining whether to be able to access each printer using the second network address; control means for adding (S1325, S1337, S1357) the first printer as a candidate of a destination of print data to a list and not adding (S1326, S1338, S1358) the second printer as the candidate of the destination of the print data to the list, in a case where it is determined that the first printer is accessible without using the second network address and the second printer is accessible using the second network address; and displaying means for displaying (S1328, S1340, S1360) the list for selecting a printer. storage means for storing a first network address that is not for a virtual private network connection, a second network address that is for the VPN connection and addresses of printers including a first printer and a second printer; determining means for determining whether to be able to access each printer using the second network address; control means for adding (S1325, S1337, S1357) the first printer as a candidate of a destination of print data to a list and not adding (S1326, S1338, S1358) the second printer as the candidate of the destination of the print data to the list, in a case where it is determined that the first printer is accessible without using the second network address and the second printer is accessible using the second network address; and displaying means for displaying (S1328, S1340, S1360) the list for selecting a printer.
Method for determining an area milled by at least one construction machine or at least one mining machine by means of a milling drum by means of - working the predetermined area in several milling trajectories by at least one machine, - determining the length of the milling trajectories along which a milling operation has taken place by evaluating the continuous machine positions, - adding up the previously milled partial areas as a product of the length of the milling trajectory and the installed milling width of the milling drum, wherein the partial area currently milled along the milling trajectory is checked, either continuously or subsequently, for overlapping or multiple overlapping with any previously milled partial areas, and partial areas which overlap are deducted, as overlapping areas, from the added-up previously milled partial areas, wherein - the total added-up partial areas milled minus the total overlapping areas established give the milled area. - working the predetermined area in several milling trajectories by at least one machine, - determining the length of the milling trajectories along which a milling operation has taken place by evaluating the continuous machine positions, - adding up the previously milled partial areas as a product of the length of the milling trajectory and the installed milling width of the milling drum, wherein the partial area currently milled along the milling trajectory is checked, either continuously or subsequently, for overlapping or multiple overlapping with any previously milled partial areas, and partial areas which overlap are deducted, as overlapping areas, from the added-up previously milled partial areas, wherein - the total added-up partial areas milled minus the total overlapping areas established give the milled area.
An automatic anti-flooding barrier, comprising: - a support frame, comprising a primary beam, extended along a first longitudinal direction, and a pair of secondary beams, protruding from the primary beam along a second transverse direction, perpendicular to the first longitudinal direction, and mutually spaced along said first longitudinal direction; and - a platform, hinged to the primary beam and movable from an inactive position, wherein said platform lies on a plane parallel to the plane defined by the longitudinal and transverse directions, to an active position, wherein said platform lies on a plane perpendicular to the plane defined by the longitudinal and transverse directions, said platform being suitable, when in the active position, to prevent the passage of a fluid therethrough; the automatic anti-flooding barrier comprising a pair of linear actuators, each having a first end hinged to a respective secondary beam, and the opposite end hinged to the platform, said actuators being adapted to thrust the platform towards said active position when the platform is in a position other than the inactive position, characterized in that the linear actuators are configured in such a way that, in the inactive position of the platform, they lie substantially parallel to the platform; and in that the automatic anti-flooding barrier further comprises a float, integral with a face of the platform facing the secondary beams, said float being configured to impart a thrust to the platform in the direction of the active position thereof, when said float is at least partially immersed in a fluid. - a support frame, comprising a primary beam, extended along a first longitudinal direction, and a pair of secondary beams, protruding from the primary beam along a second transverse direction, perpendicular to the first longitudinal direction, and mutually spaced along said first longitudinal direction; and - a platform, hinged to the primary beam and movable from an inactive position, wherein said platform lies on a plane parallel to the plane defined by the longitudinal and transverse directions, to an active position, wherein said platform lies on a plane perpendicular to the plane defined by the longitudinal and transverse directions, said platform being suitable, when in the active position, to prevent the passage of a fluid therethrough; the automatic anti-flooding barrier comprising a pair of linear actuators, each having a first end hinged to a respective secondary beam, and the opposite end hinged to the platform, said actuators being adapted to thrust the platform towards said active position when the platform is in a position other than the inactive position, characterized in that the linear actuators are configured in such a way that, in the inactive position of the platform, they lie substantially parallel to the platform; and in that the automatic anti-flooding barrier further comprises a float, integral with a face of the platform facing the secondary beams, said float being configured to impart a thrust to the platform in the direction of the active position thereof, when said float is at least partially immersed in a fluid.
Pressure compensation device for a housing, accommodating an electrical circuit, of a vehicle, in particular for the housing of a control unit of a motor vehicle, having a semipermeable diaphragm which is able to be brought into communicating connection with the interior of the housing, having a protective device which covers the diaphragm and which, by way of a spacing to the diaphragm, forms an intermediate space with respect thereto, said intermediate space being connected in a communicating manner to the ambient air via at least one venting path, wherein the venting path is formed as a groove-like channel on the inner side, facing the diaphragm, of the protective device, which is formed as a protective cap having a cover part and at least one side part, characterized in that the groove-like channel extends in an angled manner from the intermediate space to the outer edge of the side part.
A lifting device, comprising a power component and a driving shaft connected with the power component, wherein, the driving shaft is connected with a first swing arm and a second swing arm that are arranged to be spaced apart from each other; the first swing arm is hinged with a first linkage mechanism, the second swing arm is hinged with a second linkage mechanism, and a lifting platform is provided on a top of the first linkage mechanism and a top of the second linkage mechanism, wherein each of the first linkage mechanism and the second linkage mechanism comprises a first linkage, a second linkage, a third linkage and a fourth linkage, characterised in that each of the first and second linkage mechanisms comprise a fifth linkage wherein one end of the first linkage and one end of the second linkage are each hinged at a fixed hinge point (46, 47); the third linkage is hinged with the other end of the first linkage and the other end of the second linkage, respectively; and the first linkage, the second linkage and the third linkage form a parallelogram mechanism; one end of the fourth linkage is hinged with the other end of the first linkage; one end of the fifth linkage is hinged with the other end of the second linkage; the other end of the fifth linkage of the first linkage mechanism is hinged with the first swing arm; and the other end of the fifth linkage of the second linkage mechanism is hinged with the second swing arm; the other end of the fourth linkage and the other end of the fifth linkage are respectively connected with the lifting platform. a power component and a driving shaft connected with the power component, wherein, the driving shaft is connected with a first swing arm and a second swing arm that are arranged to be spaced apart from each other; the first swing arm is hinged with a first linkage mechanism, the second swing arm is hinged with a second linkage mechanism, and a lifting platform is provided on a top of the first linkage mechanism and a top of the second linkage mechanism, wherein each of the first linkage mechanism and the second linkage mechanism comprises a first linkage, a second linkage, a third linkage and a fourth linkage, characterised in that each of the first and second linkage mechanisms comprise a fifth linkage wherein one end of the first linkage and one end of the second linkage are each hinged at a fixed hinge point (46, 47); the third linkage is hinged with the other end of the first linkage and the other end of the second linkage, respectively; and the first linkage, the second linkage and the third linkage form a parallelogram mechanism; one end of the fourth linkage is hinged with the other end of the first linkage; one end of the fifth linkage is hinged with the other end of the second linkage; the other end of the fifth linkage of the first linkage mechanism is hinged with the first swing arm; and the other end of the fifth linkage of the second linkage mechanism is hinged with the second swing arm; the other end of the fourth linkage and the other end of the fifth linkage are respectively connected with the lifting platform.
A carrier for developing electrostatic latent image, comprising: a particulate magnetic core material; and a coated layer covering the surface of the particulate magnetic core material, wherein the coated layer comprises a resin comprising a crosslinked material obtained by condensing a copolymer including a structure having the following formula and a silicone resin having a silanol group and/or a functional group capable of producing a silanol group by hydrolyzing: wherein R 1 represents a hydrogen atom or a methyl group, m represents an integer of 1 to 8, R 2 represents an alkyl group having 1 to 4 carbon atoms, R 3 represents an alkyl group having 1 to 8 carbon atoms or an alkoxy group having 1 to 4 carbon atoms, each of X and Y represents a molar ratio (%) between 10 to 40, Z represents a molar ratio (%) between 20 to 80, and X+ Y+Z =100 is satisfied, and a filler comprising: a substrate; and an electroconductive layer comprising tin dioxide (SnO 2), overlying the substrate, and wherein the carrier comprises tin (Sn) in an amount not less than 0.5% by atom and has a ratio (Sn/Si) of tin (Sn) to silicon (Si) of from 0.03 to 0.2 when subjected to an XPS analysis as measured according to the description. a particulate magnetic core material; and a coated layer covering the surface of the particulate magnetic core material, wherein the coated layer comprises a resin comprising a crosslinked material obtained by condensing a copolymer including a structure having the following formula and a silicone resin having a silanol group and/or a functional group capable of producing a silanol group by hydrolyzing: wherein R 1 represents a hydrogen atom or a methyl group, m represents an integer of 1 to 8, R 2 represents an alkyl group having 1 to 4 carbon atoms, R 3 represents an alkyl group having 1 to 8 carbon atoms or an alkoxy group having 1 to 4 carbon atoms, each of X and Y represents a molar ratio (%) between 10 to 40, Z represents a molar ratio (%) between 20 to 80, and X+ Y+Z =100 is satisfied, and a filler comprising: a substrate; and an electroconductive layer comprising tin dioxide (SnO 2), overlying the substrate, and a substrate; and an electroconductive layer comprising tin dioxide (SnO 2), overlying the substrate, and wherein the carrier comprises tin (Sn) in an amount not less than 0.5% by atom and has a ratio (Sn/Si) of tin (Sn) to silicon (Si) of from 0.03 to 0.2 when subjected to an XPS analysis as measured according to the description.
A method of selecting a patient for treatment for disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease, comprising: a. selecting a patient having disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease; b. determining in the patient the presence of at least one of the specific genotypes selected from the group consisting of: i. homozygosity for cytosine of Low-density Lipoprotein Receptor (LDLR) rs2738447 at relevant portion shown by SEQ ID NO:24, ii. homozygosity for guanine of LDLR rs7259278 at relevant portion shown by SEQ ID NO:25, and iii. homozygosity for cytosine of LDLR rs1799898 at relevant portion shown by SEQ ID NO:15; and c. selecting a patient having at least one of the specific genotypes in (b) for treatment, wherein the treatment comprises administering to the patient at least one medium chain triglyceride in an amount effective for the treatment of or prevention of disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease. a. selecting a patient having disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease; b. determining in the patient the presence of at least one of the specific genotypes selected from the group consisting of: i. homozygosity for cytosine of Low-density Lipoprotein Receptor (LDLR) rs2738447 at relevant portion shown by SEQ ID NO:24, ii. homozygosity for guanine of LDLR rs7259278 at relevant portion shown by SEQ ID NO:25, and iii. homozygosity for cytosine of LDLR rs1799898 at relevant portion shown by SEQ ID NO:15; and i. homozygosity for cytosine of Low-density Lipoprotein Receptor (LDLR) rs2738447 at relevant portion shown by SEQ ID NO:24, ii. homozygosity for guanine of LDLR rs7259278 at relevant portion shown by SEQ ID NO:25, and iii. homozygosity for cytosine of LDLR rs1799898 at relevant portion shown by SEQ ID NO:15; and c. selecting a patient having at least one of the specific genotypes in (b) for treatment, wherein the treatment comprises administering to the patient at least one medium chain triglyceride in an amount effective for the treatment of or prevention of disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease.