mhurhangee/ep-ind-claims huggingface dataset:
A transport system comprising: a plurality of transport vehicles (10, 10a-10d) each configured to travel along a track and convey a load; and a controller configured to control traveling of the transport vehicles (10, 10a-10d), wherein the track includes a first main track, a plurality of junction points (35a-35d) arranged on the first main track so as to be apart from each other, and a plurality of branch tracks (33a-33d, 34a-34d) each connected to the first main track via a different one of the junction points (35a-35d), the respective junction points (35a-35d) are apart from each other on the first main track, and on each of the branch tracks (33a-33d, 34a-34d), a stop position is provided, the stop position corresponding to a delivery port for each transport vehicle (10, 10a-10d) to deliver and receive a load, characterized in that the controller is configured to control the respective transport vehicles (10, 10a-10d) stopping at the stop positions corresponding to the respective delivery ports of the branch tracks (33a-33d, 34a-34d) so as to cause a transport vehicle (10, 10a-10d) on a downstream branch track (33a-33d, 34a-34d) to start moving simultaneously with or before a transport vehicle (10, 10a-10d) on an upstream branch track (33a-33d, 34a-34d). a plurality of transport vehicles (10, 10a-10d) each configured to travel along a track and convey a load; and a controller configured to control traveling of the transport vehicles (10, 10a-10d), wherein the track includes a first main track, a plurality of junction points (35a-35d) arranged on the first main track so as to be apart from each other, and a plurality of branch tracks (33a-33d, 34a-34d) each connected to the first main track via a different one of the junction points (35a-35d), the respective junction points (35a-35d) are apart from each other on the first main track, and on each of the branch tracks (33a-33d, 34a-34d), a stop position is provided, the stop position corresponding to a delivery port for each transport vehicle (10, 10a-10d) to deliver and receive a load, characterized in that the controller is configured to control the respective transport vehicles (10, 10a-10d) stopping at the stop positions corresponding to the respective delivery ports of the branch tracks (33a-33d, 34a-34d) so as to cause a transport vehicle (10, 10a-10d) on a downstream branch track (33a-33d, 34a-34d) to start moving simultaneously with or before a transport vehicle (10, 10a-10d) on an upstream branch track (33a-33d, 34a-34d).
A method comprising, in an apparatus according to claim 6, initializing a memristor by applying, in a first cycle, a voltage across a first terminal and a second terminal of the memristor, wherein initializing the memristor causes the memristor to be in a particular resistance state; applying, in a second cycle, a first logical input to the first terminal of the memristor and a first control input to the second terminal, the first logical input being below a threshold voltage of the memristor; applying, in a third cycle, a second logical input to the first terminal and a second control input to the second terminal, the second logical input being below the threshold voltage of the memristor; determining a logical output of a memristor logic device comprising the memristor based on a resistance state of the memristor once the second logical input is applied, characterized in that the method further comprises determining a probability that the logical output is a correct logical output for a logic operation being performed by the memristor logic device.
A computer connected to or comprising a main storage device, comprising: a flash memory including a storage area that is dividable into a boot area arranged to store booting data and a cache area arranged to store execution data, the flash memory configured to supplement a reading speed of the main storage device; a flash controller configured to designate a location in the flash memory to which data is to be written; and a main controller configured to dynamically calculate a ratio between the boot area and the cache area of the flash memory according to an operating state of the computer and to control the flash controller to dynamically change allocations of storage area between the boot area and the cache area according to the calculated ratio, wherein the main controller is configured to set the ratio so that the cache area is greater than the boot area when the computer is initially fully operational and to set the ratio so that the boot area is greater than the cache area when the computer is powered off. a flash memory including a storage area that is dividable into a boot area arranged to store booting data and a cache area arranged to store execution data, the flash memory configured to supplement a reading speed of the main storage device; a flash controller configured to designate a location in the flash memory to which data is to be written; and a main controller configured to dynamically calculate a ratio between the boot area and the cache area of the flash memory according to an operating state of the computer and to control the flash controller to dynamically change allocations of storage area between the boot area and the cache area according to the calculated ratio, wherein the main controller is configured to set the ratio so that the cache area is greater than the boot area when the computer is initially fully operational and to set the ratio so that the boot area is greater than the cache area when the computer is powered off.
Assembly for separation of a multiphase flow, comprising a compact cyclone based separation unit comprising an in-line deliquidizer and an in-line phase splitter, where said separation unit is arranged to receive multiphase flow for separation thereof to a gas flow and a mainly liquid containing flow, a gas outlet arranged to receive the gas flow from the compact separation unit and any additional gas flows, one or more conduit separators, arranged to receive the mainly liquid containing flow from the compact separation unit and any additional liquid containing flows, having an outlet for liquid from the at least one conduit separator in a low-lying part thereof, wherein a pump or control valve is arranged in said outlet for liquid, said pump or control valve is controlled by a level provider in the at least one conduit separator, and said in-line phase splitter is arranged up-stream of the in-line deliquidizer to receive the multiphase flow for coarse separation thereof to a mainly gas containing flow that is supplied/delivered to the in-line deliquidizer and a mainly gas containing flow that is supplied/delivered to the at least one conduit separator, characterised in that: the in-line phase splitter is an in-line cyclone separator comprising an outer coating defining a flow path through which said multiphase flow shall flow, a flow body alone which said multiphase flow that is to be separated may flow, at least one whirling element arranged between said flow body and said outer coating to start rotating said multiphase flow to separate said multiphase flow to a heavier fraction and a lighter fraction, and an outlet element with a central, axial precursory inner passage connected to a first outlet to release the lighter fraction, and an outer surface that, together with an inner surface of the coating, defines an outer passage connected to the other outlet in order to release the heavier fraction, where the outlet element is equipped with one or more openings through which a lighter fraction may reach the inner passage, said openings are arranged slanting in respect to the axial direction. the in-line phase splitter is an in-line cyclone separator comprising an outer coating defining a flow path through which said multiphase flow shall flow, a flow body alone which said multiphase flow that is to be separated may flow, at least one whirling element arranged between said flow body and said outer coating to start rotating said multiphase flow to separate said multiphase flow to a heavier fraction and a lighter fraction, and an outlet element with a central, axial precursory inner passage connected to a first outlet to release the lighter fraction, and an outer surface that, together with an inner surface of the coating, defines an outer passage connected to the other outlet in order to release the heavier fraction, where the outlet element is equipped with one or more openings through which a lighter fraction may reach the inner passage, said openings are arranged slanting in respect to the axial direction.
An angiogenic agent selected from angiogenic or pro-angiogenic growth factors, cytokines, adult bone marrow or adult circulating blood, and endothelial progenitor cells for use in preparation of a vessel for crossing of a chronic total occlusion therein by a guidewire, wherein the preparation of the vessel includes the following steps: percutaneously delivering a composition comprising an angiogenic agent to the occlusion site; waiting a period of time sufficient to increase susceptibility of the occlusion to crossing through angiogenesis; and crossing the occlusion.
A coaptation assistance element (500; 600; 700) for treating mal-coaptation of a mitral heart valve, the heart valve having an annulus, the coaptation assistance element (500; 600; 700) comprising: a body comprising an annular section (510; 610; 710) and a coaptation section, the annular section (510; 610; 710) configured to be implanted within a heart superior to a valve annulus, and the coaptation zone configured to be implanted within a heart and traversing a plane of the valve annulus; a first coaptation surface (560; 660; 760), and an opposed second surface (505; 705), each surface bounded by a first lateral edge (570; 670; 770), a second lateral edge (575; 675; 775), an inferior edge (580; 680; 780), and a superior edge (540; 640; 740), the superior edge forming a lip and cupped downward toward the inferior edge or upward from the annular section; a hub (520; 620; 720) and an anchor coupled to the hub and carried by the annular section (510; 610; 710), the anchor selectively deployable at a first target location; and a plurality of struts (530; 630; 730) extending radially outward from the hub (520; 620; 720), the plurality of struts (530; 630; 730) comprising at least a first strut residing within the annular section (510; 610; 710) and having one end terminating at the hub (520; 620; 720) and the other end extending radially outwardly toward the superior edge (540; 640; 740) and a second strut having one end terminating at the hub (520; 620; 720) and the other end extending radially outwardly toward the inferior edge (580; 680; 780), wherein the second strut has a total length that is longer than that of the first strut. a body comprising an annular section (510; 610; 710) and a coaptation section, the annular section (510; 610; 710) configured to be implanted within a heart superior to a valve annulus, and the coaptation zone configured to be implanted within a heart and traversing a plane of the valve annulus; a first coaptation surface (560; 660; 760), and an opposed second surface (505; 705), each surface bounded by a first lateral edge (570; 670; 770), a second lateral edge (575; 675; 775), an inferior edge (580; 680; 780), and a superior edge (540; 640; 740), the superior edge forming a lip and cupped downward toward the inferior edge or upward from the annular section; a hub (520; 620; 720) and an anchor coupled to the hub and carried by the annular section (510; 610; 710), the anchor selectively deployable at a first target location; and a plurality of struts (530; 630; 730) extending radially outward from the hub (520; 620; 720), the plurality of struts (530; 630; 730) comprising at least a first strut residing within the annular section (510; 610; 710) and having one end terminating at the hub (520; 620; 720) and the other end extending radially outwardly toward the superior edge (540; 640; 740) and a second strut having one end terminating at the hub (520; 620; 720) and the other end extending radially outwardly toward the inferior edge (580; 680; 780), wherein the second strut has a total length that is longer than that of the first strut.
Circuit arrangement for operating a load, wherein the circuit arrangement has: - an input (L, N, PE) for inputting a mains input AC voltage, - a power converter circuit, - a clocked converter circuit (71, 711) which converts the mains input AC voltage (U E) rectified by the power converter circuit into an output voltage (U 21), wherein the output voltage (U 21) has a ripple voltage, - a control circuit for regulating the clocked converter circuit (71, 711), - a measurement circuit which is coupled to the control circuit via a voltage divider (R36, R37), characterized in that the circuit arrangement also has: - a linear regulating circuit which sets a predetermined load current at the load, wherein - the circuit arrangement is configured such that the clocked converter circuit (71, 711) and the linear regulating circuit interact in such a manner that the linear regulating circuit can no longer adjust the ripple voltage of the clocked converter circuit (71, 711) when the output voltage (U 21) is at a minimum, thus resulting in current modulation in the load current through the load, - wherein the control circuit is configured to use the potential at a node between the load and the linear regulating circuit to regulate the clocked converter circuit (71, 711) by means of the measurement circuit. - an input (L, N, PE) for inputting a mains input AC voltage, - a power converter circuit, - a clocked converter circuit (71, 711) which converts the mains input AC voltage (U E) rectified by the power converter circuit into an output voltage (U 21), wherein the output voltage (U 21) has a ripple voltage, - a control circuit for regulating the clocked converter circuit (71, 711), - a measurement circuit which is coupled to the control circuit via a voltage divider (R36, R37), - a linear regulating circuit which sets a predetermined load current at the load, wherein - the circuit arrangement is configured such that the clocked converter circuit (71, 711) and the linear regulating circuit interact in such a manner that the linear regulating circuit can no longer adjust the ripple voltage of the clocked converter circuit (71, 711) when the output voltage (U 21) is at a minimum, thus resulting in current modulation in the load current through the load, - wherein the control circuit is configured to use the potential at a node between the load and the linear regulating circuit to regulate the clocked converter circuit (71, 711) by means of the measurement circuit.
A packaging containing at least one unused absorbent article, such as a sanitary towel, a panty liner, a diaper or an incontinence pad, characterized in that the packaging comprises at least one fragrance means for the absorbent article, said fragrance means comprising an activatable fragrance arranged on a carrier, by virtue of which the fragrance means has an active, fragrant state and an inactive, non-fragrant state, wherein the fragrance means in its inactive form is covered by a scrape-off fragrance tight coating, and wherein the fragrance means can be activated by mechanical action such as scraping of the fragrance tight coating so that fragrance is emitted only if and when this is desirable.
An apparatus for a remote unit of a base station transceiver in a mobile communication system, the base station transceiver comprising a central unit and the remote unit, the remote unit apparatus comprising first means for communicating with a mobile transceiver associated with the remote unit; second means for communicating with the central unit, the second means being operable to receive control information from the central unit, the control information comprising information on a retransmission of data between the remote unit and the mobile transceiver; and a transmission selection unit operable to determine whether a data transmission between the remote unit and the mobile transceiver has failed, wherein the transmission selection unit is operable to initiate, based on the control information, a retransmission of data for which a failed data transmission was determined at the first means for communicating.
A method of producing a ceramic core for casting, said core presenting a shape that includes at least a first lateral protuberance, and the method comprising at least: • a step of injecting a paste comprising a ceramic granulate and a polymer binder into a mold cavity in order to form a part presenting a shape corresponding to the shape of the core together with at least one additional lateral protuberance adjacent to said first lateral protuberance; • a step of firing the part; and • a step of eliminating said additional lateral protuberance from the part after said firing step. • a step of injecting a paste comprising a ceramic granulate and a polymer binder into a mold cavity in order to form a part presenting a shape corresponding to the shape of the core together with at least one additional lateral protuberance adjacent to said first lateral protuberance; • a step of firing the part; and • a step of eliminating said additional lateral protuberance from the part after said firing step.
A transmitter, comprising: a first wireless communication module; a second wireless communication module; a multiplexer, arranged for selectively outputting a first digital signal derived from a digital output of the first wireless communication module or a second digital signal derived from a digital output of the second wireless communication module as a selected output; and a DAC, coupled to the multiplexer, the DAC shared between the first and second wireless communication modules (110, 120), and arranged for converting the selected output into an analog signal; characterized by a filter, coupled to the DAC, the filter shared between the first and second wireless communication modules (110, 120), and arranged to process the analog signal, wherein the filter, comprises an adjustable resistive element; wherein when the multiplexer selects the first digital signal as the selected output, the adjustable resistive element is adjusted to have a first resistance value such that the filter has a first bandwidth, and when the multiplexer selects the second digital signal as the selected output, the adjustable resistive element is adjusted to have a second resistance value such that the filter has a second bandwidth. a first wireless communication module; a second wireless communication module; a multiplexer, arranged for selectively outputting a first digital signal derived from a digital output of the first wireless communication module or a second digital signal derived from a digital output of the second wireless communication module as a selected output; and a DAC, coupled to the multiplexer, the DAC shared between the first and second wireless communication modules (110, 120), and arranged for converting the selected output into an analog signal; characterized by a filter, coupled to the DAC, the filter shared between the first and second wireless communication modules (110, 120), and arranged to process the analog signal, wherein the filter, comprises an adjustable resistive element; wherein when the multiplexer selects the first digital signal as the selected output, the adjustable resistive element is adjusted to have a first resistance value such that the filter has a first bandwidth, and when the multiplexer selects the second digital signal as the selected output, the adjustable resistive element is adjusted to have a second resistance value such that the filter has a second bandwidth.
A method for producing a regionalized-firmness midsole utilizing a heat process, the method comprising: providing a plurality of plates (210, 1320, 1330); arranging at least one pre-formed EVA foam biscuit (1010, 1020) within a molding cavity of a first plate; providing a first quantity of pelletized ethylene-vinyl acetate, EVA foam having a first density; providing a second quantity of pelletized EVA foam having a second density; placing the first quantity of pelletized EVA foam into the first molding cavity; placing the second quantity of pelletized EVA foam into a molding cavity of a second plate wherein the at least one pre-formed EVA foam biscuit (1010, 1020) is arranged within the first quantity of the pelletized EVA foam, based on specifications received from a customer; and partially integrating, by heat activation, the first quantity of pelletized EVA foam and the at least one pre-formed EVA foam biscuit in the molding cavity of the first plate to form a first midsole section, and the second quantity of pelletized EVA foam in the second molding cavity of the second to form a second midsole section; removing the first midsole section from the molding cavity of the first plate and removing the second midsole section from the molding cavity of the second plate; stacking the first midsole section and the second midsole section within the plurality of plates; and heat pressing the stacked first midsole section and second midsole section to form a fused midsole. providing a plurality of plates (210, 1320, 1330); arranging at least one pre-formed EVA foam biscuit (1010, 1020) within a molding cavity of a first plate; providing a first quantity of pelletized ethylene-vinyl acetate, EVA foam having a first density; providing a second quantity of pelletized EVA foam having a second density; placing the first quantity of pelletized EVA foam into the first molding cavity; placing the second quantity of pelletized EVA foam into a molding cavity of a second plate wherein the at least one pre-formed EVA foam biscuit (1010, 1020) is arranged within the first quantity of the pelletized EVA foam, based on specifications received from a customer; and partially integrating, by heat activation, the first quantity of pelletized EVA foam and the at least one pre-formed EVA foam biscuit in the molding cavity of the first plate to form a first midsole section, and the second quantity of pelletized EVA foam in the second molding cavity of the second to form a second midsole section; removing the first midsole section from the molding cavity of the first plate and removing the second midsole section from the molding cavity of the second plate; stacking the first midsole section and the second midsole section within the plurality of plates; and heat pressing the stacked first midsole section and second midsole section to form a fused midsole.