mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor-superconductor hybrid device comprising: a semiconductor layer; and a superconductor layer; wherein the superconductor layer is arranged over an edge of the semiconductor layer so as to enable energy level hybridisation between the semiconductor layer and the superconductor layer; wherein the semiconductor layer is arranged in a sandwich structure between first and second insulating layers (16a, 16b), each insulating layer (16a, 16b) being in contact with a respective opposed face of the semiconductor layer, characterised in that the semiconductor-superconductor hybrid device further comprises a layer of a ferromagnetic insulator arranged between the superconductor layer and the semiconductor layer. a semiconductor layer; and a superconductor layer; wherein the superconductor layer is arranged over an edge of the semiconductor layer so as to enable energy level hybridisation between the semiconductor layer and the superconductor layer; wherein the semiconductor layer is arranged in a sandwich structure between first and second insulating layers (16a, 16b), each insulating layer (16a, 16b) being in contact with a respective opposed face of the semiconductor layer, wherein the superconductor layer is arranged over an edge of the semiconductor layer so as to enable energy level hybridisation between the semiconductor layer and the superconductor layer; wherein the semiconductor layer is arranged in a sandwich structure between first and second insulating layers (16a, 16b), each insulating layer (16a, 16b) being in contact with a respective opposed face of the semiconductor layer, characterised in that the semiconductor-superconductor hybrid device further comprises a layer of a ferromagnetic insulator arranged between the superconductor layer and the semiconductor layer.
A method for repairing an image forming cartridge chip provided with a storage device, the image forming cartridge chip comprising a circuit board, read-write interfaces and a storage device, the read-write interfaces and the storage device being disposed on the circuit board, the storage device comprising functional interfaces, the method comprising the following steps of: at least unsealing at the functional interfaces on the storage device with laser beams, or at least scraping away or drilling through encapsulating materials at the functional interfaces on the storage device; and writing, by a repair data writing device, repair data into the storage device through the read-write interfaces and the functional interfaces of the image forming cartridge chip, characterized in that: only a part of the encapsulating materials at the functional interfaces is removed through said unsealing, scraping or drilling, and one end of a conductive electrode penetrates through the remaining encapsulating materials at the functional interfaces to contact the functional interfaces with another end of the conductive electrode being connected with the repair data writing device, when writing repair data into the storage device. at least unsealing at the functional interfaces on the storage device with laser beams, or at least scraping away or drilling through encapsulating materials at the functional interfaces on the storage device; and writing, by a repair data writing device, repair data into the storage device through the read-write interfaces and the functional interfaces of the image forming cartridge chip, characterized in that: only a part of the encapsulating materials at the functional interfaces is removed through said unsealing, scraping or drilling, and one end of a conductive electrode penetrates through the remaining encapsulating materials at the functional interfaces to contact the functional interfaces with another end of the conductive electrode being connected with the repair data writing device, when writing repair data into the storage device. only a part of the encapsulating materials at the functional interfaces is removed through said unsealing, scraping or drilling, and one end of a conductive electrode penetrates through the remaining encapsulating materials at the functional interfaces to contact the functional interfaces with another end of the conductive electrode being connected with the repair data writing device, when writing repair data into the storage device.
A waterborne composition comprising an aqueous dispersion of first and second multistage polymer particles, wherein each of the first and second polymer particles comprises: a) a water-occluded core comprising from 20 to 60 weight percent structural units of a salt of a carboxylic acid monomer and from 40 to 80 weight percent structural units of a nonionic monoethylenically unsaturated monomer; and b) a polymeric shell having a T g in the range of from 60 °C and 120 °C; wherein the second multistage polymer particles further comprise: c) a polymeric binder layer superposing the shell, which polymeric binder layer has a T g of not greater than 35 °C and comprises structural units of at least one monoethylenically unsaturated monomer; wherein the weight-to-weight ratio of structural units of monomers in the water-occluded core to the shell in the first and second multistage polymer particles is in the range of 1:10 to 1:20; the weight-to-weight ratio of the polymer binder to the sum of the shell and the structural units of monomers in the core in the second multistage polymer particles is in the range of 1:1 to 3.5:1; the weight-to-weight ratio of the first multistage polymer particles to the second multistage polymer particles is in the range of from 0.15:1 to 1.0:1; the z-average particle size of the first polymer particles is in the range of from 200 nm to 2000 nm; and the z-average particle size of the second polymer particles is in the range of from 300 nm to 750 nm. a) a water-occluded core comprising from 20 to 60 weight percent structural units of a salt of a carboxylic acid monomer and from 40 to 80 weight percent structural units of a nonionic monoethylenically unsaturated monomer; and b) a polymeric shell having a T g in the range of from 60 °C and 120 °C; wherein the weight-to-weight ratio of structural units of monomers in the water-occluded core to the shell in the first and second multistage polymer particles is in the range of 1:10 to 1:20; the weight-to-weight ratio of the polymer binder to the sum of the shell and the structural units of monomers in the core in the second multistage polymer particles is in the range of 1:1 to 3.5:1; the weight-to-weight ratio of the first multistage polymer particles to the second multistage polymer particles is in the range of from 0.15:1 to 1.0:1; the z-average particle size of the first polymer particles is in the range of from 200 nm to 2000 nm; and the z-average particle size of the second polymer particles is in the range of from 300 nm to 750 nm.
A cell capture system comprising: (a) a fluid permeable, planar membrane comprising an exposed first surface, at least a portion of which is adapted to retain cells thereon, the portion: (i) defining a plurality of pores having an average diameter less than about 1 μm so as to permit fluid to traverse the portion of the membrane while retaining cells thereon; (ii) being substantially non-autofluorescent when exposed to light having a wavelength in a range from about 350 nm to about 1000 nm; and (iii) having a flatness tolerance of up to about 100 μm; (b) a fluid permeable support member adjacent at least a portion of a second opposing surface of the membrane; and (c) an optional register associated with the membrane. (a) a fluid permeable, planar membrane comprising an exposed first surface, at least a portion of which is adapted to retain cells thereon, the portion: (i) defining a plurality of pores having an average diameter less than about 1 μm so as to permit fluid to traverse the portion of the membrane while retaining cells thereon; (ii) being substantially non-autofluorescent when exposed to light having a wavelength in a range from about 350 nm to about 1000 nm; and (iii) having a flatness tolerance of up to about 100 μm; (i) defining a plurality of pores having an average diameter less than about 1 μm so as to permit fluid to traverse the portion of the membrane while retaining cells thereon; (ii) being substantially non-autofluorescent when exposed to light having a wavelength in a range from about 350 nm to about 1000 nm; and (iii) having a flatness tolerance of up to about 100 μm; (b) a fluid permeable support member adjacent at least a portion of a second opposing surface of the membrane; and (c) an optional register associated with the membrane.
A measurement instrument (400, 500), comprising: an alidade, a base, and a center unit, wherein the center unit is mounted on the alidade for rotation about a first axis and the alidade is mounted on the base for rotation about a second axis intersecting the first axis, a first controllable drive for rotating the center unit about the first axis, a second controllable drive for rotating the alidade about the second axis, and a distance measurement module (475, 505) comprising an optical transmission point and an optical reception point, the distance measurement module being operative to transmit optical radiation from the optical transmission point along a transmit path and receive optical radiation at the optical reception point along a receive path, the center unit comprising a front lens assembly having an optical path along an instrument optical axis (410, 510) of the center unit, and a deflection module (455, 515) located optically between the distance measurement module and the front lens assembly and operative to deflect at least one of the transmit path and the receive path across the instrument optical axis so as to provide a scanning function, wherein the optical transmission point, the optical reception point and the deflection module are located in the center unit, characterized in that the measurement instrument further comprises a synchronizer to synchronize operation of the first controllable drive, the second controllable drive, the deflection module and the distance measurement module so as to obtain a grid of distance measurements having a selected angular spacing. an alidade, a base, and a center unit, wherein the center unit is mounted on the alidade for rotation about a first axis and the alidade is mounted on the base for rotation about a second axis intersecting the first axis, a first controllable drive for rotating the center unit about the first axis, a second controllable drive for rotating the alidade about the second axis, and a distance measurement module (475, 505) comprising an optical transmission point and an optical reception point, the distance measurement module being operative to transmit optical radiation from the optical transmission point along a transmit path and receive optical radiation at the optical reception point along a receive path, the center unit comprising a front lens assembly having an optical path along an instrument optical axis (410, 510) of the center unit, and a deflection module (455, 515) located optically between the distance measurement module and the front lens assembly and operative to deflect at least one of the transmit path and the receive path across the instrument optical axis so as to provide a scanning function, wherein the optical transmission point, the optical reception point and the deflection module are located in the center unit, characterized in that the measurement instrument further comprises a synchronizer to synchronize operation of the first controllable drive, the second controllable drive, the deflection module and the distance measurement module so as to obtain a grid of distance measurements having a selected angular spacing.
A motorcycle comprising: a supercharger disposed rearwardly of a cylinder block of a combustion engine and above a crankcase of the combustion engine; an air intake duct (70, 70A) forming an air intake passage for supplying an intake air to the supercharger, wherein a suction port of the supercharger is disposed inward of a side surface of the cylinder block in a vehicle widthwise direction, and is opened outwardly in the vehicle widthwise direction; the air intake duct (70, 70A) includes a curve portion and is connected to the supercharger, and the air intake duct (70, 70A) extends rearwardly from a front of the cylinder block to pass outside of the cylinder block in the vehicle widthwise direction, and is curved in the vehicle widthwise direction to be connected to the suction port of the supercharger; characterized in that: the air intake passage has a transverse cross-section in at least the curve portion, which cross-section is shaped such that a dimension in a vertical direction is gradually reduced from a center of the curve portion toward an outer side in the vehicle widthwise direction. a supercharger disposed rearwardly of a cylinder block of a combustion engine and above a crankcase of the combustion engine; an air intake duct (70, 70A) forming an air intake passage for supplying an intake air to the supercharger, wherein a suction port of the supercharger is disposed inward of a side surface of the cylinder block in a vehicle widthwise direction, and is opened outwardly in the vehicle widthwise direction; the air intake duct (70, 70A) includes a curve portion and is connected to the supercharger, and the air intake duct (70, 70A) extends rearwardly from a front of the cylinder block to pass outside of the cylinder block in the vehicle widthwise direction, and is curved in the vehicle widthwise direction to be connected to the suction port of the supercharger;
Method (METH) of detecting and calculating height of a jump performed by an individual, comprising the following steps: - A detection (METH_Dr) of a reception subsequent to the jump, this step comprising a sub-step (METH_Dr_PC PR) of detecting a pressure spike (PC PR) of amplitude greater than a first threshold amplitude, within pressure measurements provided by a pressure sensor (CP_PR) embedded aboard a watch worn on the wrist of the individual, - A calculation (METH_Ht) of a height (Ht) of the jump by differencing a starting altitude (AT d) corresponding to a last stable pressure (PR d) measured before the pressure spike (PC PR) and a finishing altitude (At a) corresponding to a first stable pressure (PR a) measured after the pressure spike (PC PR) via the pressure sensor (CP_PR), a stable pressure being defined as a pressure whose variations do not exceed 0.1 hectopascals for at least 2 seconds. - A detection (METH_Dr) of a reception subsequent to the jump, this step comprising a sub-step (METH_Dr_PC PR) of detecting a pressure spike (PC PR) of amplitude greater than a first threshold amplitude, within pressure measurements provided by a pressure sensor (CP_PR) embedded aboard a watch worn on the wrist of the individual, - A calculation (METH_Ht) of a height (Ht) of the jump by differencing a starting altitude (AT d) corresponding to a last stable pressure (PR d) measured before the pressure spike (PC PR) and a finishing altitude (At a) corresponding to a first stable pressure (PR a) measured after the pressure spike (PC PR) via the pressure sensor (CP_PR), a stable pressure being defined as a pressure whose variations do not exceed 0.1 hectopascals for at least 2 seconds.
An apparatus, said apparatus comprising means for, at a first network entity, determining that first resources scheduled for use by a first cell for communication with a user equipment are available at a second cell before configuring the user equipment with the first resources used for communication at the first cell; receiving an indication from the user equipment to trigger handover from the first cell to the second cell; and causing handover of the user equipment from the first cell to the second cell such that the second cell uses the first resources for communication with the user equipment, wherein the first cell comprises a first base station, the second cell comprises a second base station and the first base station comprises the first network entity, wherein means for determining that first resources scheduled for use by the first cell for communication with the user equipment are available at the second cell comprises means for providing a request from the first base station to the second base station whether the first resources are available and receiving a response at the first base station indicating that the first resources are available, the apparatus comprising means for, if the first resources are scheduled for use by the second cell for lower priority traffic, receiving, from the second base station in response to the request, an indication that the first resources are available. receiving an indication from the user equipment to trigger handover from the first cell to the second cell; and causing handover of the user equipment from the first cell to the second cell such that the second cell uses the first resources for communication with the user equipment, wherein the first cell comprises a first base station, the second cell comprises a second base station and the first base station comprises the first network entity, wherein means for determining that first resources scheduled for use by the first cell for communication with the user equipment are available at the second cell comprises means for providing a request from the first base station to the second base station whether the first resources are available and receiving a response at the first base station indicating that the first resources are available, the apparatus comprising means for, if the first resources are scheduled for use by the second cell for lower priority traffic, receiving, from the second base station in response to the request, an indication that the first resources are available.
A ring for an electrode (32, 58, 62), comprising: three or more silicon members (38, 52, 54) having an arc shape; and a joining part (40, 56) that is joining the silicon members, characterised in that the joining part (40, 56) is a boron oxide layer. three or more silicon members (38, 52, 54) having an arc shape; and a joining part (40, 56) that is joining the silicon members, characterised in that the joining part (40, 56) is a boron oxide layer.
Apparatus for glassware manufacturing, comprising: a mold body including an exterior surface, a mold cavity having an interior mold surface, and a blind hole having a closed end including a closed end surface adjacent to and spaced outwardly from the interior mold surface, wherein the blind hole extends outwardly from the closed end surface toward the exterior surface; a mold hanger on which the mold body is removably carried; and a light collector carried by the mold hanger to collect infrared light emitted within the blind hole. a mold body including an exterior surface, a mold cavity having an interior mold surface, and a blind hole having a closed end including a closed end surface adjacent to and spaced outwardly from the interior mold surface, wherein the blind hole extends outwardly from the closed end surface toward the exterior surface; a mold hanger on which the mold body is removably carried; and a light collector carried by the mold hanger to collect infrared light emitted within the blind hole.
A gas exhaust filter device for a bioreactor, comprising a housing (2;12;22) with a 0.1-0.2 micrometer hydrophobic microfiltration membrane filter medium, a gas inlet (3;13;23) and a gas outlet (4;14;24) and further comprising a plurality of ribs (5;15;25), characterised in that said ribs extend between two opposite inner walls of said housing (2;12;22) in a region between the gas inlet (3;13;23) and the filter medium, delimiting a plurality of tortuous channels (6;16;26) between the gas inlet and the filter medium,
A method for changing the control data of a chip card, wherein the chip card has a chip card operating system with a hierarchical chip card file system, a protected non-volatile electronic storage unit to which external access is only possible via a processor of the chip card, and a volatile working storage unit, wherein the chip card file system contains index files (DFs) and data files (EFs), wherein a file tree consisting of at least one index file and multiple data files (132, 140,...) is stored in the protected electronic storage unit, wherein control data for useful data are stored in at least one of the files, the useful data are stored in a storage area of the protected electronic storage unit, and a pointer to this storage area is stored in the at least one data file, wherein the chip card is activated for active operation, wherein, in order to change the control data by the chip card operating system, a copy of at least one sub-tree, which contains the file, of the file tree in the chip card is temporarily stored in the working storage unit, changed control data are stored in the at least one file of the copied sub-tree, and the changed copy of the sub-tree is permanently stored in the protected electronic storage unit and activated, and the original sub-tree is deleted or deactivated.
Lightweight structure with at least one structural unit which is built up of several shell elements, wherein each of the shell elements has at least two shell sections (14a, 14b), merging into one another, each defined by a boundary curve (15a, 15b) running in an X-Y plane of an X, Y, Z-coordinate system, and a contour curve (16a, 16b) sliding along the boundary curve (15a, 15b) and extending in a plane coinciding with the Z-axis of the coordinate system, wherein the curve progressions of the two boundary curves (15a, 15b) and the two contour curves (16a, 16b) differ from one another, wherein the boundary and contour curves are so designed that the two shell sections (14a, 14b) merge into one another with a constant course, wherein the shell elements are connected in the X-Y plane, in a planar-additive manner, into a planar structural unit, wherein the shell elements have within the structural unit mathematical similarities generated by mathematical mapping methods.
A method for performing a leak test on a test object, said test being of the type wherein a cloud of a tracer gas is generated on an outer wall of the test object and a vacuum is generated in the interior of the test object, the removed gas volume being tested for the presence of the tracer gas, wherein the tracer gas is moved toward the test object while being enclosed within soap bubbles, said soap bubbles bursting upon contact with the test object for advancing the tracer gas in concentrated form to the outer wall of the test object.
A gas barrier laminate comprising a base unit that comprises a base and a modification-promoting layer, and a gas barrier layer that is formed on a side of the modification-promoting layer with respect to the base unit, the modification-promoting layer having a modulus of elasticity at 23°C, as determined by a nanoindentation method using a surface hardness measurement device, of less than 30 GPa, the base unit having a water vapor transmission rate at a temperature of 40°C and a relative humidity of 90% of 1.0 g/(m 2 ·day) or less, and the gas barrier layer being a layer formed by applying a modification treatment to a surface of a layer that comprises a polysilazane-based compound and is formed on the side of the modification-promoting layer with respect to the base unit.