mhurhangee/ep-ind-claims huggingface dataset:
In a computer system, having a processor and memory, and an operating system having a program loader, wherein the memory includes a shared memory, a method of extracting information from a first software application (102a, 102b, 401a, 401b, 501a, 501b) having a plurality of libraries (104a, 104b, 403a, 403c) as the application executes, comprising: a) loading through said program loader one or more of the plurality of libraries (104a, 104b, 403a, 403c) and a software application characterizing library including intercept logic software (105a, 105b, 505a, 505b), into the shared memory, wherein the software application characterizing library (105a, 105b, 505a, 505b) includes software instructions for extracting the information from the first software application [802a-e], and wherein I/O operations are only performed before or after instructions related to extracting the information are executing; b) executing instructions within the first software application (102a, 102b, 401a, 401b, 501a, 501b); c) executing the intercept logic software, causing instructions to be inserted into an execution path of the first software application for extracting the information from the first software application; d) extracting the information from the first software application (802a-e) and placing the information into the shared memory by executing instructions within the software application characterizing library (105a, 105b, 505a, 505b); and, e) exporting the information (102a-b, 401a-b, 501a-b) by using a second software application (503, 602a, 602b, 602c) to distribute the information from the shared memory to another location. a) loading through said program loader one or more of the plurality of libraries (104a, 104b, 403a, 403c) and a software application characterizing library including intercept logic software (105a, 105b, 505a, 505b), into the shared memory, wherein the software application characterizing library (105a, 105b, 505a, 505b) includes software instructions for extracting the information from the first software application [802a-e], and wherein I/O operations are only performed before or after instructions related to extracting the information are executing; b) executing instructions within the first software application (102a, 102b, 401a, 401b, 501a, 501b); c) executing the intercept logic software, causing instructions to be inserted into an execution path of the first software application for extracting the information from the first software application; d) extracting the information from the first software application (802a-e) and placing the information into the shared memory by executing instructions within the software application characterizing library (105a, 105b, 505a, 505b); and, e) exporting the information (102a-b, 401a-b, 501a-b) by using a second software application (503, 602a, 602b, 602c) to distribute the information from the shared memory to another location.
A method of manufacturing a nitride light emitting device comprising: preparing a growth substrate; forming a semiconductor structure including a nitride-based semiconductor on the growth substrate; providing a support structure including a support layer on the semiconductor structure; and separating the growth substrate from the semiconductor structure, characterized in that the growth substrate includes a metal substrate, wherein preparing the growth substrate comprises forming a growth base layer for growing the nitride-based semiconductor on the metal substrate; and wherein forming the growth base layer comprises: forming a hexagonal boron nitride on the metal substrate; and forming a graphene on the hexagonal boron nitride, wherein the growth base layer including the hexagonal boron nitride and the graphene serves as a diffusion barrier which prevents mutual diffusion between the metal substrate and the substance formed on the growth substrate or a protective layer. preparing a growth substrate; forming a semiconductor structure including a nitride-based semiconductor on the growth substrate; providing a support structure including a support layer on the semiconductor structure; and separating the growth substrate from the semiconductor structure, characterized in that the growth substrate includes a metal substrate, wherein preparing the growth substrate comprises forming a growth base layer for growing the nitride-based semiconductor on the metal substrate; and wherein forming the growth base layer comprises: forming a hexagonal boron nitride on the metal substrate; and forming a graphene on the hexagonal boron nitride, wherein the growth base layer including the hexagonal boron nitride and the graphene serves as a diffusion barrier which prevents mutual diffusion between the metal substrate and the substance formed on the growth substrate or a protective layer. forming a hexagonal boron nitride on the metal substrate; and forming a graphene on the hexagonal boron nitride, wherein the growth base layer including the hexagonal boron nitride and the graphene serves as a diffusion barrier which prevents mutual diffusion between the metal substrate and the substance formed on the growth substrate or a protective layer.
A delivery system for a detachable medical device, the system comprising a first release portion on the medical device, a second release portion on a deployment member and a releasing element (30, 350) which is arranged to interconnect the first and second release portions, the first and second release portions each having an element defining a respective path of wound configuration and the releasing element comprising a wire coil which engages both of the wound paths by means of respective screw connections to hold the release portions together, the wire coil having a pull release wire attached to one end thereof, the releasing element being detachable from at least one of the release portions by a pull on said release wire, whereby to detach the release portions from each other.
A redundant current-sum feedback actuator controller comprising: an inner feedback control loop (430, 432, 506) configured to: receive a desired total coil current (436, 438, 512) and a measured total coil current (462, 524) comprising a sum of coil currents of each of a plurality of actuation coils (422, 424; 530) of an actuator; and control the actuation coils based on a current-sum difference between the desired total coil current and the measured total coil current; and wherein the redundant current-sum feedback actuator controller further comprises an actuation coil current sensor configured to sense the measured total coil current, and comprising: a plurality of sensor coils (804, 814) configured to receive an actuator current that actuates one of the actuation coils respectively; a magnetic core (808, 816) configured to receive a magnetic flux from the sensor coils; and at least one sensor (802, 812) coupled to the magnetic core and configured to measure the measured total coil current. an inner feedback control loop (430, 432, 506) configured to: receive a desired total coil current (436, 438, 512) and a measured total coil current (462, 524) comprising a sum of coil currents of each of a plurality of actuation coils (422, 424; 530) of an actuator; and control the actuation coils based on a current-sum difference between the desired total coil current and the measured total coil current; and receive a desired total coil current (436, 438, 512) and a measured total coil current (462, 524) comprising a sum of coil currents of each of a plurality of actuation coils (422, 424; 530) of an actuator; and control the actuation coils based on a current-sum difference between the desired total coil current and the measured total coil current; and wherein the redundant current-sum feedback actuator controller further comprises an actuation coil current sensor configured to sense the measured total coil current, and comprising: a plurality of sensor coils (804, 814) configured to receive an actuator current that actuates one of the actuation coils respectively; a magnetic core (808, 816) configured to receive a magnetic flux from the sensor coils; and at least one sensor (802, 812) coupled to the magnetic core and configured to measure the measured total coil current. a plurality of sensor coils (804, 814) configured to receive an actuator current that actuates one of the actuation coils respectively; a magnetic core (808, 816) configured to receive a magnetic flux from the sensor coils; and at least one sensor (802, 812) coupled to the magnetic core and configured to measure the measured total coil current.
A method of starting up an encoderless three-phase permanent magnet synchronous machine, which is in particular provided for a vacuum pump, from a standstill up to a predetermined rotational speed by means of a three-phase inverter, wherein voltages which are used to control the three-phase permanent magnet synchronous machine are defined based on a voltage vector having a magnitude and a phase angle, wherein the voltage vector in an orthogonal coordinate system comprises a real part u α and an imaginary part up which result from a Clark transformation, wherein the method comprises that: i) during a first stage of the starting up, the magnitude (u sync) of the voltage vector first increases and subsequently decreases such that a maximum of the magnitude (u sync) of the voltage vector does not occur either at the start of the first stage or at the end of the first stage, ii) during a second stage of the starting up, both the magnitude (u up) and a rotational frequency (f up) of the voltage vector increase, and iii) during a third stage of the starting up, both the magnitude (u stab) and the rotational frequency (f stab) of the voltage vector remain constant and a validation measure of the starting up is performed at the end of the third stage. wherein voltages which are used to control the three-phase permanent magnet synchronous machine are defined based on a voltage vector having a magnitude and a phase angle, wherein the voltage vector in an orthogonal coordinate system comprises a real part u α and an imaginary part up which result from a Clark transformation, wherein the method comprises that: i) during a first stage of the starting up, the magnitude (u sync) of the voltage vector first increases and subsequently decreases such that a maximum of the magnitude (u sync) of the voltage vector does not occur either at the start of the first stage or at the end of the first stage, ii) during a second stage of the starting up, both the magnitude (u up) and a rotational frequency (f up) of the voltage vector increase, and iii) during a third stage of the starting up, both the magnitude (u stab) and the rotational frequency (f stab) of the voltage vector remain constant and a validation measure of the starting up is performed at the end of the third stage. i) during a first stage of the starting up, the magnitude (u sync) of the voltage vector first increases and subsequently decreases such that a maximum of the magnitude (u sync) of the voltage vector does not occur either at the start of the first stage or at the end of the first stage, ii) during a second stage of the starting up, both the magnitude (u up) and a rotational frequency (f up) of the voltage vector increase, and iii) during a third stage of the starting up, both the magnitude (u stab) and the rotational frequency (f stab) of the voltage vector remain constant and a validation measure of the starting up is performed at the end of the third stage.
Metal electrode or current collector for an energy storage device, wherein the surface of the electrode or the current collector comprises a plurality of blind-hole-like recesses spaced apart from each other, wherein the recesses do not completely penetrate the metal electrode, wherein the surface structured in this way is coated with a solid polymer electrolyte, and wherein the recesses are filled with the solid polymer electrolyte, characterized in that the recesses have a length, width and/or depth in a range from ≥ 200 μm to ≤ 500 μm.
An array substrate comprising: a base substrate, gate lines and data lines intersecting the gate lines on the base substrate, the gate lines and the data lines defining a plurality of pixel regions, wherein each of at least some of the plurality of the pixel regions is provided with an image sensor, the image sensor is configured to sense light having image information, and comprises a sensitive element, a first electrode at one end of the sensitive element and a second electrode at the other end of the sensitive element, characterized in that the first electrode of the image sensor is coupled to one of the gate lines through a connection electrode in a through hole of a gate insulating layer, and the second electrode of the image sensor is coupled to a current detection line, and wherein the first electrode and the second electrode of the image sensor are spaced apart, the sensitive element thereof is on the first electrode and the second electrode, and the sensitive element is suspended with respect to the gate insulating layer. a base substrate, gate lines and data lines intersecting the gate lines on the base substrate, the gate lines and the data lines defining a plurality of pixel regions, wherein each of at least some of the plurality of the pixel regions is provided with an image sensor, the image sensor is configured to sense light having image information, and comprises a sensitive element, a first electrode at one end of the sensitive element and a second electrode at the other end of the sensitive element, characterized in that the first electrode of the image sensor is coupled to one of the gate lines through a connection electrode in a through hole of a gate insulating layer, and the second electrode of the image sensor is coupled to a current detection line, and wherein the first electrode and the second electrode of the image sensor are spaced apart, the sensitive element thereof is on the first electrode and the second electrode, and the sensitive element is suspended with respect to the gate insulating layer.
An amphiphilic A-B type diblock copolymer or B-A-B type triblock copolymer comprising a hydrophilic A block and a hydrophobic B block with a terminal hydroxyl group, wherein said terminal hydroxyl group of the hydrophobic block is substituted with a tocopherol or cholesterol group, and wherein the hydrophilic A block is a member selected from the group consisting of polyalkylene glycol, polyvinyl alcohol, polyvinyl pyrrolidone, polyacryl amide and derivatives thereof and the hydrophobic B block is a member selected from the group consisting of polylactide, polyglycolide, polycaprolactone, polydioxan-2-one, polylactic-co-glycolide, polylactic-co-dioxan-2-one, polylactic-co-caprolactone and polyglycolic-co-caprolactone.
A process for producing contact lenses, comprising the steps of: (a) obtaining a contact lens precursor which is a coated contact lens and has a first polyquaternium-1 uptake ("PU o "), wherein the coated contact lens comprises a lens bulk material completely covered with an anchor layer of a polyanionic polymer and an outer surface hydrogel layer covalently attached to the anchor layer, wherein the polyanionic polymer comprises at least 60% by mole of repeating units of at least one carboxyl-containing vinylic monomer; and (b) heating the contact lens precursor in an aqueous solution in the presence of at least one polyaziridine to and at a temperature from about 30°C to about 140°C for a period of time sufficient to obtain the contact lens having a second polyquaternium-1 uptake ("PU pz "), wherein the polyaziridine having a number average molecular weight of about 2000 Dalton or less and at least two aziridine groups, wherein (PU o -PU pz)/PU o is at least 60% and wherein the polyquaternium-1 uptake is measured as detailed in the description. (a) obtaining a contact lens precursor which is a coated contact lens and has a first polyquaternium-1 uptake ("PU o "), wherein the coated contact lens comprises a lens bulk material completely covered with an anchor layer of a polyanionic polymer and an outer surface hydrogel layer covalently attached to the anchor layer, wherein the polyanionic polymer comprises at least 60% by mole of repeating units of at least one carboxyl-containing vinylic monomer; and (b) heating the contact lens precursor in an aqueous solution in the presence of at least one polyaziridine to and at a temperature from about 30°C to about 140°C for a period of time sufficient to obtain the contact lens having a second polyquaternium-1 uptake ("PU pz "), wherein the polyaziridine having a number average molecular weight of about 2000 Dalton or less and at least two aziridine
A method of regulating differentiation of cells or organs of a plant comprising: administering a combination of reduced glutathione and buthionine sulfoximine to the plant, wherein said differentiation is floral formation. administering a combination of reduced glutathione and buthionine sulfoximine to the plant,
A turbofan thrust reverser comprising: a jet pipe terminating aft in a pair of side arms having peripheral edges (38, 40) defining first and second cutouts extending circumferentially between said arms; first and second thrust reverser doors (24, 26) pivotally connected to said side arms to cover said cutouts when stowed closed pivotally forward, and to uncover said cutouts when deployed open pivotally aft, each door having an outer skin and an inner skin mounted to and spaced apart from the outer skin, the inner skin extending only along a rear portion of the axial length of the outer skin; each of said doors extending continuously aft between axially opposite leading (24b, 26b) and trailing (24a, 26a) edges and terminating aft with said side arms in a planar exhaust exit when said doors are stowed closed; and the inner skin of each of said doors being configured to provide an inner flow deflector having a leading edge and lateral edges matingly adjoining said peripheral edges of said cutouts when stowed closed, each flow deflector being shaped and configured to create a substantially continuous exhaust nozzle having a substantially uniform internal flow surface terminating aft at said planar exit. a jet pipe terminating aft in a pair of side arms having peripheral edges (38, 40) defining first and second cutouts extending circumferentially between said arms; first and second thrust reverser doors (24, 26) pivotally connected to said side arms to cover said cutouts when stowed closed pivotally forward, and to uncover said cutouts when deployed open pivotally aft, each door having an outer skin and an inner skin mounted to and spaced apart from the outer skin, the inner skin extending only along a rear portion of the axial length of the outer skin; each of said doors extending continuously aft between axially opposite leading (24b, 26b) and trailing (24a, 26a) edges and terminating aft with said side arms in a planar exhaust exit when said doors are stowed closed; and the inner skin of each of said doors being configured to provide an inner flow deflector having a leading edge and lateral edges matingly adjoining said peripheral edges of said cutouts when stowed closed, each flow deflector being shaped and configured to create a substantially continuous exhaust nozzle having a substantially uniform internal flow surface terminating aft at said planar exit.
A reclaim cylinder, comprising: a single housing coupled to a fiber draw furnace system, the housing defining a reclaim chamber; a plurality of gas reclaim ports spaced equidistant from each other and tangentially coupled to the housing; a gas sampling port tangentially or perpendicularly coupled to the housing, and a particle sampling port tangentially or perpendicularly coupled to the housing. a plurality of gas reclaim ports spaced equidistant from each other and tangentially coupled to the housing; a gas sampling port tangentially or perpendicularly coupled to the housing, and a particle sampling port tangentially or perpendicularly coupled to the housing.
A glazing panel removal device comprising a winder unit having: first and second winder spools (10, 11) for winding a cutting filament; drive means for driving the winder spools (10, 11); characterised in that the drive means comprises a single or common drive input for driving both the first and second winder spools (10, 11). first and second winder spools (10, 11) for winding a cutting filament; drive means for driving the winder spools (10, 11); characterised in that the drive means comprises a single or common drive input for driving both the first and second winder spools (10, 11).
A furnish for papermaking comprising: fibrillated long fibres, cellulose fibrils, mineral filler particles, and an anionic binder, in an aqueous vehicle, said mineral filler particles being in an amount of up to 90%, by weight, based on total solids, the proportion of said cellulose fibrils to said fibrillated long fibres varying from 0% to 50%, said anionic binder ranging from 0.5 to 100 kg/ton, of the amount of solid material of furnish.
A heat exchanger, for two-phase refrigerant, the heat exchanger comprising: a plurality of parallel stacked plates (42a,42b) defining at least one flow passage (44,46) there between; a manifold (48,50,52,54) arranged adjacent the plurality of parallel plates, the manifold having a generally hollow interior; an opening (48a,48b,50a,50b,52a,52b,54a,54b) disposed between adjacent stacked plates, the opening being configured to fluidly couple the hollow interior of the manifold and the at least one flow passage; and a distributor assembly including an insert disposed at least partially within the hollow interior of the manifold; characterised in that the insert including distribution flow paths comprising a plurality of circumferentially spaced axial flow channels and a plurality of radial connecting channels arranged in fluid communication with the axial flow channels, the radial flow channels being fluidly coupled to the at least one flow passage via the opening; wherein the distribution flow paths are sized to maintain the velocity of the two-phase refrigerant so as to limit separation a plurality of parallel stacked plates (42a,42b) defining at least one flow passage (44,46) there between; a manifold (48,50,52,54) arranged adjacent the plurality of parallel plates, the manifold having a generally hollow interior; an opening (48a,48b,50a,50b,52a,52b,54a,54b) disposed between adjacent stacked plates, the opening being configured to fluidly couple the hollow interior of the manifold and the at least one flow passage; and a distributor assembly including an insert disposed at least partially within the hollow interior of the manifold; characterised in that the insert including distribution flow paths comprising a plurality of circumferentially spaced axial flow channels and a plurality of radial connecting channels arranged in fluid communication with the axial flow channels, the radial flow channels being fluidly coupled to the at least one flow passage via the opening; wherein the distribution flow paths are sized to maintain the velocity of the two-phase refrigerant so as to limit separation