mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining transmit power limitation, TPL, information by a user equipment, UE, in a wireless communication system, wherein the UE is configured with a plurality of component carriers, CCs, served by one or more power amplifiers, PAs, wherein the TPL information comprises a set of TPL values comprising a UE-level TPL value for the UE, one or more PA-level TPL values for each PA, and one or more CC-level TPL values for each CC; determining power headroom, PH, information that comprises a set of PH values based on the TPL information, each PH value equals to a TPL value subtracted by a UE-calculated transmit power; and reporting the PH information to a base station, wherein said set of TPL values forming a layered structure with the UE-level, the PA-level and the CC-level forming a highest layer, a middle layer and a lowest layer, respectively, characterized in that the TPL information is reduced to contain a reduced set of non-redundant TPL values, based on said layered structure, and in that the PH information is also reduced to contain a reduced set of non-redundant PH values, based on the reduced TPL information. determining transmit power limitation, TPL, information by a user equipment, UE, in a wireless communication system, wherein the UE is configured with a plurality of component carriers, CCs, served by one or more power amplifiers, PAs, wherein the TPL information comprises a set of TPL values comprising a UE-level TPL value for the UE, one or more PA-level TPL values for each PA, and one or more CC-level TPL values for each CC; determining power headroom, PH, information that comprises a set of PH values based on the TPL information, each PH value equals to a TPL value subtracted by a UE-calculated transmit power; and reporting the PH information to a base station, wherein said set of TPL values forming a layered structure with the UE-level, the PA-level and the CC-level forming a highest layer, a middle layer and a lowest layer, respectively, characterized in that the TPL information is reduced to contain a reduced set of non-redundant TPL values, based on said layered structure, and in that the PH information is also reduced to contain a reduced set of non-redundant PH values, based on the reduced TPL information.
A device for transferring a container (100, 101, 102) from a first location to a second location, comprising: a first container guide, or first guide, defining a linear path between the first location and the second location a second container guide, or second guide, defining a second linear path between the first location and the second location, the second linear path having at least a change in path direction, and a motor unit creating a relative movement between the first guide and the second guide; the first container guide and the second container guide being located at different levels of the container to be transferred, the first linear path being a straight linear path, the second linear path being a zig zag path crossing the first linear path at least once, the motor unit having a reciprocating device creating a reciprocating movement between the first and second guides, the reciprocating movement being perpendicular to the straight linear path, characterized in that the second linear path has a first path section perpendicular to first linear path, followed by a second path section oblique to the first linear path, the second path section followed by a third path section perpendicular to the first linear path, followed in turn by a fourth path section forming an angle different to zero to both the first linear path and the second path section. a first container guide, or first guide, defining a linear path between the first location and the second location a second container guide, or second guide, defining a second linear path between the first location and the second location, the second linear path having at least a change in path direction, and a motor unit creating a relative movement between the first guide and the second guide;
A composition comprising HYTd, wherein said HYTd comprises the liquid fraction obtained from the fermentation of HYTb and HYTc with activated HQE (ATCC Patent Deposit designation PTA-10861) for 3-7 days, wherein said HYTb comprises the liquid fraction obtained from the fermentation of chitin containing Arthropods with at least 10% (v/w) activated HQE with non-continuous agitation at 36°C and pH less than 5 for 96 hours, and said HYTc comprises the solid fraction obtained from the fermentation of chitin containing Arthropods with at least 10% activated HQE with non-continuous agitation at 36°C and pH less than 5 for 96 hours, and wherein activated HQE is obtained by dilution of an HQE inoculum with 2.5-3.0% (w/v) microbes to 5% (v/w) in sugar cane solution and incubating at 37°C for 5 days.
A method of authenticating an object in situ, comprising: creating an authentication pattern signature for the object to be authenticated; associating a random distribution of at least three, three-dimensional elements (P1-P7) with the object by affixing the three-dimensional elements (P1-P7) on a substrate of a label, and by adhering an underside of the label substrate on the object; aiming a portable, handheld, image capture device at the label on the object to capture return light from the three-dimensional elements (P1-P7) on the label as a single image; verifying from the single image that the three-dimensional elements (P1-P7) indeed are three-dimensional; processing the single image to generate an image pattern of the three-dimensional elements (P1-P7) on the label; comparing the image pattern with the authentication pattern signature; and indicating that the object is authentic when the image pattern matches the authentication pattern signature. creating an authentication pattern signature for the object to be authenticated; associating a random distribution of at least three, three-dimensional elements (P1-P7) with the object by affixing the three-dimensional elements (P1-P7) on a substrate of a label, and by adhering an underside of the label substrate on the object; aiming a portable, handheld, image capture device at the label on the object to capture return light from the three-dimensional elements (P1-P7) on the label as a single image; verifying from the single image that the three-dimensional elements (P1-P7) indeed are three-dimensional; processing the single image to generate an image pattern of the three-dimensional elements (P1-P7) on the label; comparing the image pattern with the authentication pattern signature; and indicating that the object is authentic when the image pattern matches the authentication pattern signature.
Method for interference suppression of a sampling process, wherein the method comprises the following method steps: sampling an analogue useful signal with a sampling frequency f; determining whether an interference amplitude is present; if an interference amplitude is present, performing a stochastic shift of the temporally equidistant sampling instants determined by the sampling frequency f, within a range [-Δt; +Δt] around the equidistant sampling instants, wherein Δt is the maximum shift; once again sampling the analogue useful signal; once again determining whether an interference amplitude is present; if an interference amplitude continues to be present, changing the absolute value of the maximum shift |Δt|; and once again beginning with the method step of performing the stochastic shift of the sampling instants. sampling an analogue useful signal with a sampling frequency f; determining whether an interference amplitude is present; if an interference amplitude is present, performing a stochastic shift of the temporally equidistant sampling instants determined by the sampling frequency f, within a range [-Δt; +Δt] around the equidistant sampling instants, wherein Δt is the maximum shift; once again sampling the analogue useful signal; once again determining whether an interference amplitude is present; if an interference amplitude continues to be present, changing the absolute value of the maximum shift |Δt|; and once again beginning with the method step of performing the stochastic shift of the sampling instants.
A medical device for thermally treating cardiac tissue, comprising: a catheter, the catheter including: a proximal end, a distal end, and a thermally conductive region; a first electrode on the catheter proximal to the thermally conductive region; a second electrode on the catheter proximal to the first electrode; and an impedance measurement system in communication with the catheter, the impedance measurement system being programmed to: initiate thermal treatment of tissue proximate a phrenic nerve; measure an impedance value; correlate the impedance value to a respiratory status, the respiratory status being a response of the phrenic nerve to the thermal treatment; define a respiratory status threshold value; and terminate the thermal treatment of the tissue when the correlated respiratory status is below the predefined threshold value. a catheter, the catheter including: a proximal end, a distal end, and a thermally conductive region; a first electrode on the catheter proximal to the thermally conductive region; a second electrode on the catheter proximal to the first electrode; and an impedance measurement system in communication with the catheter, the impedance measurement system being programmed to: initiate thermal treatment of tissue proximate a phrenic nerve; measure an impedance value; correlate the impedance value to a respiratory status, the respiratory status being a response of the phrenic nerve to the thermal treatment; define a respiratory status threshold value; and a proximal end, a distal end, and a thermally conductive region; a first electrode on the catheter proximal to the thermally conductive region; a second electrode on the catheter proximal to the first electrode; and an impedance measurement system in communication with the catheter, the impedance measurement system being programmed to: initiate thermal treatment of tissue proximate a phrenic nerve; measure an impedance value; correlate the impedance value to a respiratory status, the respiratory status being a response of the phrenic nerve to the thermal treatment; define a respiratory status threshold value; and initiate thermal treatment of tissue proximate a phrenic nerve; measure an impedance value; correlate the impedance value to a respiratory status, the respiratory status being a response of the phrenic nerve to the thermal treatment; define a respiratory status threshold value; and terminate the thermal treatment of the tissue when the correlated respiratory status is below the predefined threshold value.
Device for implementing a method for controlling the introduction of a plurality of metals into a cavity (2, 3) designed to melt said metals in the form of ingots (10, 11) in order to dip-coat a steel strip with said metals in the form of molten metal, wherein the cavity is a conventional or magnetically levitated coating pot, or an auxiliary pot for melting said ingots, and comprising: - a measuring device for measuring the level of molten metal resulting from the melting of the ingots in the cavity, - at least one measuring device (22, 23) for measuring the contents of the metals resulting from melting of the ingots, - a computer receiving level and content measurement values from measuring devices (21, 22, 23) supplying actual overall and partial rates of melting according to each metal, and adapting said actual values to corrected values according to a predefined equality of equilibrium, - a controller which is supplied with corrected flow values and issues correction instructions, characterised by - a device for varying the introduction height of at least one of the ingots into the cavity, said variation device being controlled by correction instructions from the controller for the introduction or withdrawal of the ingots. - a measuring device for measuring the level of molten metal resulting from the melting of the ingots in the cavity, - at least one measuring device (22, 23) for measuring the contents of the metals resulting from melting of the ingots, - a computer receiving level and content measurement values from measuring devices (21, 22, 23) supplying actual overall and partial rates of melting according to each metal, and adapting said actual values to corrected values according to a predefined equality of equilibrium, - a controller which is supplied with corrected flow values and issues correction instructions, - a device for varying the introduction height of at least one of the ingots into the cavity, said variation device being controlled by correction instructions from the controller for the introduction or withdrawal of the ingots.
A heat source unit comprising: a plurality of pairs of air heat exchangers (3, 3), each heat exchanger including a plurality of fins arranged at prescribed intervals and heat exchanging pipes penetrating the fins, characterized in that the air heat exchangers (3, 3) of each pair include a flat plate part shaped as a rectangle and bent strips (3b, 3b), the bent strips (3b, 3b) are composed of opposite edge portions of the flat plate part bent in a same direction, and each air heat exchanger is substantially in a shape of a letter U as viewed from above; the air heat exchangers (3, 3) of each pair are arranged in directions facing each other, with opposed bent strips (3b, 3b) of the air heat exchangers (3, 3) of each pair extending toward each other, and having a gap between upper ends of the air heat exchangers (3, 3) of each pair that is wider than a gap between lower ends of the air heat exchangers (3, 3) of each pair such that they are inclined that a V-shaped space is defined between the bent strips of the heat exchangers (3, 3) of each pair; and shield plates positioned at the left and right sides of each pair of air heat exchangers (3, 3), and configured to close a space between the bent strips (3b, 3b) of each pair of air heat exchangers (3, 3) and the bent strips (3b, 3b) of an adjacent pair of air heat exchangers (3, 3). a plurality of pairs of air heat exchangers (3, 3), each heat exchanger including a plurality of fins arranged at prescribed intervals and heat exchanging pipes penetrating the fins, characterized in that the air heat exchangers (3, 3) of each pair include a flat plate part shaped as a rectangle and bent strips (3b, 3b), the bent strips (3b, 3b) are composed of opposite edge portions of the flat plate part bent in a same direction, and each air heat exchanger is substantially in a shape of a letter U as viewed from above; the air heat exchangers (3, 3) of each pair are arranged in directions facing each other, with opposed bent strips (3b, 3b) of the air heat exchangers (3, 3) of each pair extending toward each other, and having a gap between upper ends of the air heat exchangers (3, 3) of each pair that is wider than a gap between lower ends of the air heat exchangers (3, 3) of each pair such that they are inclined that a V-shaped space is defined between the bent strips of the heat exchangers (3, 3) of each pair; and shield plates positioned at the left and right sides of each pair of air heat exchangers (3, 3), and configured to close a space between the bent strips (3b, 3b) of each pair of air heat exchangers (3, 3) and the bent strips (3b, 3b) of an adjacent pair of air heat exchangers (3, 3).
Method of operating a variable iris having a first transparent substrate and a second transparent substrate, which are separated by one or more ribs to form a cell confining positively charged opaque particles in a liquid, the first transparent substrate being provided with at least a first electrode and a second electrode both being connected via respective switches (11a, 11b) either to a DC voltage source or to ground so that the first and second electrodes (7, 8) can be independently set to ground or a positive voltage for acting on the positively charged opaque particles, and at least a third electrode arranged on the second substrate or on the ribs or formed by the ribs connected via a respective further switch either to the DC voltage source or to ground so that the third electrode (7, 8) can be independently set to ground or said positive voltage for acting on the positively charged opaque particles, said method including the sequential steps of: - applying, via said switches (11a, 11b, 11c), said positive voltage to the first electrode and to the third electrode, and ground to the second electrode during a first period of time to initially locate the positively charged particles on the second electrode; - applying, via said switches (11a, 11b, 11c), said positive voltage to the second electrode and to the first electrode, and applying ground to the third electrode during a relatively short second period of time to move the positively charged particles within the cell towards the third electrode and away from the second electrode, - before the positively charged particles reach the third electrode applying, via said switches (11a, 11b, 11c), ground to the first electrode and said positive voltage to the second electrode and to the third electrode during a third period of time to locate the positively charged particles on the first electrode, so that during the three sequential periods of time the voltage applied to the third electrode has, as a function of time, the form of a voltage pulse. - applying, via said switches (11a, 11b, 11c), said positive voltage to the first electrode and to the third electrode, and ground to the second electrode during a first period of time to initially locate the positively charged particles on the second electrode; - applying, via said switches (11a, 11b, 11c), said positive voltage to the second electrode and to the first electrode, and applying ground to the third electrode during a relatively short second period of time to move the positively charged particles within the cell towards the third electrode and away from the second electrode, - before the positively charged particles reach the third electrode applying, via said switches (11a, 11b, 11c), ground to the first electrode and said positive voltage to the second electrode and to the third electrode during a third period of time to locate the positively charged particles on the first electrode,
A lithium air battery comprising: a lithium negative electrode; a positive electrode; and an ion conductive oxygen-blocking film which is disposed on the lithium negative electrode, wherein the ion conductive oxygen-blocking film comprises a first polymer comprising a polyvinyl alcohol or a polyvinyl alcohol blend having a degree of saponification of 85 mole percent or greater, and a lithium salt, and wherein the ion conductive oxygen-blocking film has an oxygen transmission rate of 10 milliliters per square meter per day to 10,000 milliliters per square meter per day, and wherein the ion conductive oxygen-blocking film has a thickness of 60 μm to 250 μm. a lithium negative electrode; a positive electrode; and an ion conductive oxygen-blocking film which is disposed on the lithium negative electrode, wherein the ion conductive oxygen-blocking film comprises
A catalytic article for treating an exhaust gas stream containing particulate matter, hydrocarbons, CO, and ammonia, the article comprising: a. a substrate having an inlet end and an outlet end defining an axial length; b. a first catalyst coating including: 1) a platinum group metal distributed on a molecular sieve, and 2) a base metal distributed on a molecular sieve; c. a second catalyst coating including: 1) a platinum group metal distributed on a molecular sieve, and 2) a base metal distributed on a molecular sieve, wherein the first catalyst coating is a bottom layer and the second catalyst coating is a top layer, wherein the first coating includes a higher platinum group metal loading than the second coating. a. a substrate having an inlet end and an outlet end defining an axial length; b. a first catalyst coating including: 1) a platinum group metal distributed on a molecular sieve, and 2) a base metal distributed on a molecular sieve; c. a second catalyst coating including: 1) a platinum group metal distributed on a molecular sieve, and 2) a base metal distributed on a molecular sieve, wherein the first catalyst coating is a bottom layer and the second catalyst coating is a top layer, wherein the first coating includes a higher platinum group metal loading than the second coating.
Connecting element for connecting a first profile part, preferably a frame profile for a window or a door, to a second profile part, preferably an add-on profile, which first profile part has on a connecting side (1 a) at least two locking projections (1 b, 1 c) having undercuts, wherein the connecting element is of substantially U-shaped configuration in cross-section with at least one first free limb and with at least one second free limb and with a central limb which connects the first limb and the second limb, wherein the first free limb extends substantially perpendicularly to the central limb and has in at least one first depth portion (Tb1, Tb2) a holding structure which protrudes to the side remote from the second free limb, which holding structure preferably extends at a right-angle to the first limb, characterised in that the second limb is bent at a slightly obtuse angle with respect to the central limb to the side remote from the first free limb, preferably with a finite curvature in the bent region, the second limb being constructed and provided to bring about a resilient action on the locking projections (1 b, 1 c) when the connecting element is pressed into a free region between the locking projections (1 b, 1 c) of the first profile part in order to secure the connecting element by means of the holding structure and the second free limb by snapping into the undercuts on the locking projections (1 b, 1 c) of the first profile part, wherein in the region of the central limb there is arranged at least one locking projection (3g, 3h) which extends substantially parallel to the first free limb and the second free limb and which is provided for interengagement with a complementary locking projection (2b, 2c) of the second profile part in order to connect the first profile part and the second profile part.
A fuel filler neck for providing fuel to a fuel tank, comprising a base tube with an access opening and at least one outlet opening and a flow path from the access opening through an interior of the base tube to the least one outlet opening, characterized in that the fuel filler neck comprises a transition tube with an access port and an extension tube with at least one outlet port, wherein the transition tube is releasably connected to the extension tube, and a flow passage is provided from the access port through an interior of the transition tube and through an interior of the extension tube to the at least one outlet port, and wherein at least a portion of the transition tube is arranged removably and in coverage of the at least one outlet opening within the interior of the base tube. a base tube with an access opening and at least one outlet opening and a flow path from the access opening through an interior of the base tube to the least one outlet opening, characterized in that the fuel filler neck comprises a transition tube with an access port and an extension tube with at least one outlet port, wherein the transition tube is releasably connected to the extension tube, and a flow passage is provided from the access port through an interior of the transition tube and through an interior of the extension tube to the at least one outlet port, and wherein at least a portion of the transition tube is arranged removably and in coverage of the at least one outlet opening within the interior of the base tube.