mhurhangee/ep-ind-claims huggingface dataset:
A method for optimised thermal energy current guidance comprising at least one thermal energy source, a plurality of energy sinks and an energy circuit, comprising the steps - determining the amount of primary energy to be removed from the energy source by: ∘ measuring a first temperature and a second temperature of the energy circuit; ∘ determining a temperature difference between the first and second temperature; ∘ measuring the volume flow in the energy circuit; ∘ determining the amount of primary energy from the temperature difference and the volume flow; - coupling a first energy sink (5, 6) to the energy circuit; - regulating the amount of energy flow into the first energy sink until the intake capacity of the first energy sink is reached, wherein the intake capacity is determined by the maximum amount of thermal energy which can be directed into the first energy sink per unit time; - on the intake capacity of the energy sink connected to the energy circuit being exceeded, repeating the steps for the additional energy sinks; - on the holding capacity of the energy sink coupled to the energy circuit being exceeded, repeating the steps for the additional energy sinks, wherein the holding capacity is determined by the total amount of thermal energy which can be directed into the first energy sink. - determining the amount of primary energy to be removed from the energy source by: ∘ measuring a first temperature and a second temperature of the energy circuit; ∘ determining a temperature difference between the first and second temperature; ∘ measuring the volume flow in the energy circuit; ∘ determining the amount of primary energy from the temperature difference and the volume flow; ∘ measuring a first temperature and a second temperature of the energy circuit; ∘ determining a temperature difference between the first and second temperature; ∘ measuring the volume flow in the energy circuit; ∘ determining the amount of primary energy from the temperature difference and the volume flow; - coupling a first energy sink (5, 6) to the energy circuit; - regulating the amount of energy flow into the first energy sink until the intake capacity of the first energy sink is reached, wherein the intake capacity is determined by the maximum amount of thermal energy which can be directed into the first energy sink per unit time; - on the intake capacity of the energy sink connected to the energy circuit being exceeded, repeating the steps for the additional energy sinks; - on the holding capacity of the energy sink coupled to the energy circuit being exceeded, repeating the steps for the additional energy sinks, wherein the holding capacity is determined by the total amount of thermal energy which can be directed into the first energy sink.
A device comprising a microstructured surface having at least two hierarchical levels, including a first level disposed about a second level, the first level having first microstructures with a first pitch between adjacent first microstructures and the second level having second microstructures with a second pitch between adjacent second microstructures that is different to the first pitch, wherein at least one of said first and second pitches has a periodicity capable of accommodating a wrinkle eigenmode of a deformable target surface such that the microstructured surface is capable, when in use placed in contact with a said deformable target surface having a fluid thereon, of generating a first state with the deformable target surface including the formation of wrinkle eigenmodes and wherein the at least two hierarchical levels are configured to produce Wenzel-Cassie fluid pinning states when placed in contact with said deformable target surface having a fluid thereon, wherein the at least two hierarchical levels produce split contact Wenzel-Cassie wetting states. the first level having first microstructures with a first pitch between adjacent first microstructures and the second level having second microstructures with a second pitch between adjacent second microstructures that is different to the first pitch, wherein at least one of said first and second pitches has a periodicity capable of accommodating a wrinkle eigenmode of a deformable target surface such that the microstructured surface is capable, when in use placed in contact with a said deformable target surface having a fluid thereon, of generating a first state with the deformable target surface including the formation of wrinkle eigenmodes and wherein the at least two hierarchical levels are configured to produce Wenzel-Cassie fluid pinning states when placed in contact with said deformable target surface having a fluid thereon, wherein the at least two hierarchical levels produce split contact Wenzel-Cassie wetting states.
A method for screening a cancer patient, the method comprising the steps of: isolating circulating tumor cells from a blood sample previously obtained from the cancer patient using a biochip; reacting the isolated circulating tumor cells with a fluorescent marker binding specifically to the circulating tumor cells and a fluorescent marker binding specifically to AXL; receiving optical images of the circulating tumor cells reacted with the fluorescent marker specific to the circulating tumor cells and the AXL reacted with the fluorescent marker specific to the AXL under a plurality of wavelength ranges, respectively; performing a first filtering by measuring fluorescence intensities of the circulating tumor cells and the AXL in the optical images under all or part of the plurality of wavelength ranges; performing a second filtering by measuring morphology of the circulating tumor cells in the optical images under all or part of the plurality of wavelength ranges; and performing a third filtering by measuring morphology of the circulating tumor cells in a combined image obtained by merging all or part of the optical images under the plurality of respective wavelength ranges, wherein the cancer has an acquired resistance to an EGFR inhibitor. isolating circulating tumor cells from a blood sample previously obtained from the cancer patient using a biochip; reacting the isolated circulating tumor cells with a fluorescent marker binding specifically to the circulating tumor cells and a fluorescent marker binding specifically to AXL; receiving optical images of the circulating tumor cells reacted with the fluorescent marker specific to the circulating tumor cells and the AXL reacted with the fluorescent marker specific to the AXL under a plurality of wavelength ranges, respectively; performing a first filtering by measuring fluorescence intensities of the circulating tumor cells and the AXL in the optical images under all or part of the plurality of wavelength ranges; performing a second filtering by measuring morphology of the circulating tumor cells in the optical images under all or part of the plurality of wavelength ranges; and performing a third filtering by measuring morphology of the circulating tumor cells in a combined image obtained by merging all or part of the optical images under the plurality of respective wavelength ranges, wherein the cancer has an acquired resistance to an EGFR inhibitor.
A method for determining the life of components of a wind turbine or similar according to its location, comprising the following phases: Phase 1: obtaining an aeroelastic model of the wind turbine according to its design conditions; Phase 2: obtaining an aeroelastic model of the actual wind turbine arranged at its site; Phase 3: determining the specific wind conditions at the site of the wind turbine; Phase 4: determining the specific operating conditions of the wind turbine at its site; Phase 5: determining the design fatigue loads on the components of the wind turbine modeled in phase 1 according to regulatory operating conditions and wind conditions; Phase 6: determining the actual fatigue loads on the components of the wind turbine modeled in phase 2 according to the wind conditions and operating conditions determined in phases 3 and 4; and Phase 7: determining the life of each component of the wind turbine at the site of the wind turbine, reintegrating the actual fatigue loads calculated in phase 6 until the design fatigue loads calculated in phase 5 are reached; characterized in that in phase 3, the wind speed values at the site of the wind turbine are determined; the main wind directions striking the wind turbine are determined, and the air density at the site is determined. Phase 1: obtaining an aeroelastic model of the wind turbine according to its design conditions; Phase 2: obtaining an aeroelastic model of the actual wind turbine arranged at its site; Phase 3: determining the specific wind conditions at the site of the wind turbine; Phase 4: determining the specific operating conditions of the wind turbine at its site; Phase 5: determining the design fatigue loads on the components of the wind turbine modeled in phase 1 according to regulatory operating conditions and wind conditions; Phase 6: determining the actual fatigue loads on the components of the wind turbine modeled in phase 2 according to the wind conditions and operating conditions determined in phases 3 and 4; and Phase 7: determining the life of each component of the wind turbine at the site of the wind turbine, reintegrating the actual fatigue loads calculated in phase 6 until the design fatigue loads calculated in phase 5 are reached;
A method for preserving and/or dyeing plant material, the method comprising the steps of: - removing the bulk of the natural wax material from the plant material; and - subjecting the plant material to a bleaching and/or a preservation agent. - removing the bulk of the natural wax material from the plant material; and - subjecting the plant material to a bleaching and/or a preservation agent.
Steam turbine plant with an intermediate-pressure steam turbine to which an intermediate-pressure inlet-steam collection line is coupled and with a further inlet-steam collection line, having an inlet-steam line section, for supplying the intermediate-pressure steam turbine or a low-pressure steam-turbine, characterized in that the inlet-steam collection line, at an inlet-steam introduction point of the inlet-steam line section, is introduced into the exhaust-steam flow of the intermediate-pressure steam turbine and a feed steam device with at least one steam feed point formed on a stage of the intermediate-pressure steam turbine which is disposed on the exhaust-steam side is provided with a changeover valve with which the feed steam device is connected upstream of the inlet-steam introduction point to the inlet-steam line section and can be switched over in such a way that if the exhaust-steam pressure is lower than a setpoint pressure in the inlet-steam line section, the inlet-steam line section is connected in a steam-conducting manner to the feed steam device and is interrupted between the changeover valve and the inlet-steam introduction point, and otherwise the feed steam device is disconnected from the inlet-steam line section.
A positive electrode for a lithium secondary battery comprising: a current collector; a first coating layer disposed on one or both surfaces of the current collector and containing a first positive electrode active material; a patterned layer disposed on the first coating layer and having a binder and a conductive material dispersed in the binder; and a second coating layer disposed on the first coating layer on which the patterned layer is disposed, and containing a second positive electrode active material, wherein an area of the first coating layer on which the patterned layer is disposed is 30% to 80% of a total area of the first coating layer. a current collector; a first coating layer disposed on one or both surfaces of the current collector and containing a first positive electrode active material; a patterned layer disposed on the first coating layer and having a binder and a conductive material dispersed in the binder; and a second coating layer disposed on the first coating layer on which the patterned layer is disposed, and containing a second positive electrode active material, wherein an area of the first coating layer on which the patterned layer is disposed is 30% to 80% of a total area of the first coating layer.
A system for ventilating and venting containers containing a fluid volume, such as gearboxes containing an oil filling, with a line system (8, 16) which connects the respective container to the atmosphere and, upon changes in the volumes located in the container due to temperature changes, enables pressure equalisation, the line system (8, 16) containing a separating housing in which a separating medium which has oleo- and hydrophobic properties separates a first space connected to the container from a second space connected to the atmosphere, characterised in that on the separating housing, line connections (10, 14) are laid such that liquid phase substances which have been separated on the separating medium can drain out of the first space to the container and out of the second space to the atmosphere, and that the separating housing forms a hollow cylinder which surrounds the first and second space the axis of which in an operating position runs horizontally so that the underlying region of the inner wall of the hollow cylinder forms the bottom which borders the first space and on which the first line connection discharges.
A monitoring system configured to determine at least one phase conductor line condition in each of a plurality of segments of a phase conductor line of a distribution system, the phase conductor line including three phases of power, the monitoring system comprising: at least one computer device having at least one processor and memory and stored in the memory instructions for execution of the monitoring system, the at least one processor configured to execute the instructions to: determine state variables for each phase within each respective segment of the phase conductor line, the state variables calculated from a first set of synchrophasor data from a first location along the phase conductor line and a second set of synchrophasor data from a second location along the phase conductor line; the monitoring system characterised in that the at least one processor is further configured to execute the instructions to: determine a primary side voltage of each phase of at least one distribution transformer electrically connected to the phase conductor line based on a secondary side voltage of the at least one distribution transformer; and determine at least one phase conductor line condition for a phase of the phase conductor line in each of the plurality of segments based on respective state variables and on the primary side voltage, for said phase of the phase conductor line, of the at least one distribution transformer. determine a primary side voltage of each phase of at least one distribution transformer electrically connected to the phase conductor line based on a secondary side voltage of the at least one distribution transformer; and determine at least one phase conductor line condition for a phase of the phase conductor line in each of the plurality of segments based on respective state variables and on the primary side voltage, for said phase of the phase conductor line, of the at least one distribution transformer.
A method for the production of human, donor-reactive regulatory T cells (Tregs), comprising: a) isolating CD4+, CD25+, CD127-/lo T cells of a human recipient by fluorescent activated cell sorting (FACS) from cryopreserved peripheral blood mononuclear cells (PBMC); b) co-culturing said CD4+, CD25+, CD127-/lo T cells with stimulated B cells (sBc) of a human donor under conditions effective in selectively expanding human donor-reactive regulatory T cells (Tregs), wherein said sBc were produced by co-culturing CD19+ B cells of said human donor with irradiated CD40L+ human leukemia feeder cells under conditions effective in producing said sBc; and c) re-stimulating said donor-reactive Tregs by cross-linking CD3 and CD28 of said donor-reactive Tregs under conditions effective in producing donor-reactive Tregs that are CD4+, Helios+ and Foxp3+; wherein the donor is HLA-mismatched in relation to the human recipient. a) isolating CD4+, CD25+, CD127-/lo T cells of a human recipient by fluorescent activated cell sorting (FACS) from cryopreserved peripheral blood mononuclear cells (PBMC); b) co-culturing said CD4+, CD25+, CD127-/lo T cells with stimulated B cells (sBc) of a human donor under conditions effective in selectively expanding human donor-reactive regulatory T cells (Tregs), wherein said sBc were produced by co-culturing CD19+ B cells of said human donor with irradiated CD40L+ human leukemia feeder cells under conditions effective in producing said sBc; and c) re-stimulating said donor-reactive Tregs by cross-linking CD3 and CD28 of said donor-reactive Tregs under conditions effective in producing donor-reactive Tregs that are CD4+, Helios+ and Foxp3+;
A partially dried inkjet media conditioner (408-1, 408-2, 508-1, 508-2), comprising: a heated pressure roller (409-1, 409-2, 508-1, 508-2) to apply pressure to a first side of partially dried inkjet media (404-1, 404-2, 504-1, 504-2) and apply heat to a second side of the partially dried inkjet media; and characterized by a heated pressure roller (411-1, 411-2, 511-1, 511-2) to apply pressure to the second side of the partially dried inkjet media and apply heat to the first side of the partially dried inkjet media. a heated pressure roller (409-1, 409-2, 508-1, 508-2) to apply pressure to a first side of partially dried inkjet media (404-1, 404-2, 504-1, 504-2) and apply heat to a second side of the partially dried inkjet media; and characterized by a heated pressure roller (411-1, 411-2, 511-1, 511-2) to apply pressure to the second side of the partially dried inkjet media and apply heat to the first side of the partially dried inkjet media.
A method for identifying a real-time polymerase chain reaction site associated with an amplification curve from a plurality of amplification curves, the method comprising: receiving amplification data from a plurality of reaction sites, wherein each reaction site contains a sample; generating a plurality of amplification curves from the amplification data; displaying a first portion of the plurality of amplification curves on a display screen; displaying a list of indications of reaction sites associated with the first portion of amplification curves alongside the first portion of amplification curves on the display screen; shifting from a view of the first portion of the plurality of amplification curves to display a view comprising a second portion of the plurality of amplification curves, wherein different portions of the plurality of amplification curves can be viewed in an amplification curve plot by zooming or unzooming the amplification curve plot by activating a zoom button (208, 210); and dynamically adjusting the list to display indications of reaction sites associated with the second portion of the plurality of amplification curves alongside the second portion of the plurality of amplification curves on the display screen, wherein the list is configured to be scrollable. receiving amplification data from a plurality of reaction sites, wherein each reaction site contains a sample; generating a plurality of amplification curves from the amplification data; displaying a first portion of the plurality of amplification curves on a display screen; displaying a list of indications of reaction sites associated with the first portion of amplification curves alongside the first portion of amplification curves on the display screen; shifting from a view of the first portion of the plurality of amplification curves to display a view comprising a second portion of the plurality of amplification curves, wherein different portions of the plurality of amplification curves can be viewed in an amplification curve plot by zooming or unzooming the amplification curve plot by activating a zoom button (208, 210); and dynamically adjusting the list to display indications of reaction sites associated with the second portion of the plurality of amplification curves alongside the second portion of the plurality of amplification curves on the display screen, wherein the list is configured to be scrollable.
Electrical installation device, having a housing and at least one hook (8, 9) on a rear face of the installation device, wherein the installation device can be fastened to a busbar by means of the hook (8, 9), wherein the hook (8, 9), in order to change an output side of the installation device, can be moved from a first position to a second position which is arranged opposite the said first position, and the hook (8, 9) is held in a receptacle (10, 22) and can be connected to a conductor rail of the installation device, characterized in that the housing has a channel for the receptacle (10, 22), wherein the receptacle (10, 22) is guided by means of the channel in the longitudinal direction of said channel when it is inserted into the housing into the first position and when it is removed from the housing from the first position and when it is inserted into the housing into the second position and when it is removed from the housing from the second position, and the receptacle (10, 22) is laterally positioned by means of the channel in the first and the second position, and the receptacle (10, 22) has latching means (20, 28) for latching with the housing in the first and the second position in the longitudinal direction of the channel, and the receptacle (10, 22) has an elastic element (21, 32) in the region which interacts with the channel, the said elastic element moving the hook (8, 9) towards the conductor rail in the first position and in the second position.
Vehicle, in particular a motor cycle, comprising: a drive force generating means; a first switch for controlling said drive force generating means by a driver; a continuously variable transmission for transmitting a drive force generated by the drive force generating means to a drive wheel, said continuously variable transmission is provided with a sheave position moving apparatus for moving a position of a movable sheave of a primary sheave of the continuously variable transmission for changing a gear ratio of the continuously variable transmission; and a speed change controlling means for controlling the gear ratio of the continuously variable transmission, characterized in that said sheave position moving apparatus is electrically moving the position of the movable sheave and said speed change controlling means is provided for continuously controlling the gear ratio of the continuously variable transmission after the drive force generating means is instructed to stop by switching the first switch to an "OFF"-state. a drive force generating means; a first switch for controlling said drive force generating means by a driver; a continuously variable transmission for transmitting a drive force generated by the drive force generating means to a drive wheel, said continuously variable transmission is provided with a sheave position moving apparatus for moving a position of a movable sheave of a primary sheave of the continuously variable transmission for changing a gear ratio of the continuously variable transmission; and a speed change controlling means for controlling the gear ratio of the continuously variable transmission, characterized in that said sheave position moving apparatus is electrically moving the position of the movable sheave and said speed change controlling means is provided for continuously controlling the gear ratio of the continuously variable transmission after the drive force generating means is instructed to stop by switching the first switch to an "OFF"-state.