mhurhangee/patent-ind-claim-en huggingface dataset:
A battery state estimation apparatus comprising: a sensing data acquirer configured to acquire sensing data on a battery ; and a battery state estimator configured to approximate the sensing data by mapping the sensing data to a predetermined feature space, and compare the approximated sensing data to predetermined reference information to estimate a state of the battery; wherein the battery state estimator comprises: a sensing data segmenter configured to segment the sensing data based on a predetermined time interval; and a feature space mapper ; characterized in that the sensing data segmenter is further configured to extract a segment having a predetermined size from each segmented sensing data, and generate a segment vector comprising the extracted segments; and the feature space mapper is configured to map the segment vector to the predetermined feature space based on a predetermined mapping parameter. a sensing data acquirer configured to acquire sensing data on a battery ; and a battery state estimator configured to approximate the sensing data by mapping the sensing data to a predetermined feature space, and compare the approximated sensing data to predetermined reference information to estimate a state of the battery; wherein the battery state estimator comprises: a sensing data segmenter configured to segment the sensing data based on a predetermined time interval; and a feature space mapper ; characterized in that the sensing data segmenter is further configured to extract a segment having a predetermined size from each segmented sensing data, and generate a segment vector comprising the extracted segments; and the feature space mapper is configured to map the segment vector to the predetermined feature space based on a predetermined mapping parameter. a sensing data segmenter configured to segment the sensing data based on a predetermined time interval; and a feature space mapper ; characterized in that the sensing data segmenter is further configured to extract a segment having a predetermined size from each segmented sensing data, and generate a segment vector comprising the extracted segments; and the feature space mapper is configured to map the segment vector to the predetermined feature space based on a predetermined mapping parameter.
Production method of a dark colored special glass having thickness in range of 2 mm - 6 mm and having low transmittance preferably for use in vehicles, wherein the following main components are added by weight to the glass mixture: 69-75% SiO 2 ; 10-20% Na 2 O; 5-15% CaO; 3.5-5% MgO; 0-5% Al 2 O 3 ; 0-5% K 2 O; and the following components are added by weight as colorant: 1.4% Fe 2 O 3 ; 20-25 ppm selenium; CoO is added in range of 100 - 250 ppm and 0.3-0.5 kg/100kg NaNO 3 is added into the batch during melting of the glass for decreasing transmittance value and for increasing absorption in the infrared region. and the following components are added by weight as colorant: 1.4% Fe 2 O 3 ; 20-25 ppm selenium; CoO is added in range of 100 - 250 ppm and 0.3-0.5 kg/100kg NaNO 3 is added into the batch during melting of the glass for decreasing transmittance value and for increasing absorption in the infrared region.
A microreactor, comprising: a plurality of flow paths for a plurality of raw materials with different flow rates to flow therethrough respectively, wherein the flow paths are branched and merge such that a flow path for a high-flow-rate raw material is branched into a plurality of paths and then merges to a flow path for a low-flow-rate raw material , characterized in that , a first flow path for the high-flow-rate raw material among the plurality of the branched flow paths for the-high-flow rate raw material is merged with the flow path for the low-flow-rate raw material at a first merging point, wherein remaining flow paths for the high-flow-rate raw material among the plurality of the branched flow paths for the high-flow-rate raw material are merged stepwise with a flow path after the first merging point, wherein the flow paths are formed such that the high-flow-rate raw material alternately merges with the low-flow-rate raw material from different directions, wherein the microreactor is configured by two plates, the flow paths are formed on each of the plates, and the flow paths are formed such that the high-flow-rate raw material alternately merges with the low-flow-rate raw material from directions of each of the two plates. a plurality of flow paths for a plurality of raw materials with different flow rates to flow therethrough respectively, wherein the flow paths are branched and merge such that a flow path for a high-flow-rate raw material is branched into a plurality of paths and then merges to a flow path for a low-flow-rate raw material , characterized in that , a first flow path for the high-flow-rate raw material among the plurality of the branched flow paths for the-high-flow rate raw material is merged with the flow path for the low-flow-rate raw material at a first merging point, wherein remaining flow paths for the high-flow-rate raw material among the plurality of the branched flow paths for the high-flow-rate raw material are merged stepwise with a flow path after the first merging point, wherein the flow paths are formed such that the high-flow-rate raw material alternately merges with the low-flow-rate raw material from different directions, wherein the microreactor is configured by two plates, the flow paths are formed on each of the plates, and the flow paths are formed such that the high-flow-rate raw material alternately merges with the low-flow-rate raw material from directions of each of the two plates.
An apparatus for irradiating a load with UHF or microwave radiation, the apparatus comprising: a cavity for accepting a load; an energy feed for feeding energy to the cavity at a plurality of UHF or microwave frequencies to irradiate the load; a controller configured to: repeatedly cause energy to be transmitted to the cavity at the plurality of frequencies according to a duty cycle, wherein the duty cycle defines an allotted transmission time for each of the plurality of frequencies; and for each repetition of the duty cycle, differentially switch transmission of energy at each frequency on or off, thereby to vary the duration for which energy is transmitted at each frequency over the repetitions of the duty cycle. a cavity for accepting a load; an energy feed for feeding energy to the cavity at a plurality of UHF or microwave frequencies to irradiate the load; a controller configured to: repeatedly cause energy to be transmitted to the cavity at the plurality of frequencies according to a duty cycle, wherein the duty cycle defines an allotted transmission time for each of the plurality of frequencies; and for each repetition of the duty cycle, differentially switch transmission of energy at each frequency on or off, thereby to vary the duration for which energy is transmitted at each frequency over the repetitions of the duty cycle. repeatedly cause energy to be transmitted to the cavity at the plurality of frequencies according to a duty cycle, wherein the duty cycle defines an allotted transmission time for each of the plurality of frequencies; and for each repetition of the duty cycle, differentially switch transmission of energy at each frequency on or off, thereby to vary the duration for which energy is transmitted at each frequency over the repetitions of the duty cycle.
A pharmaceutical combination for use in treating a soft tissue sarcoma, comprising: (i) a compound of formula I or a pharmaceutically acceptable salt thereof; and (ii) epirubicin,
A method for control of flows of in a pulp mill, comprising storing pulp from fiberline in a first pulp tower ; directing the pulp from the first pulp tower to pulp drying; storing white water from the pulp drying into a first water tower and directing the water therefrom back to the fiberline; and when the fiberline is not able to receive the white water from the first water tower , directing the white water to second pulp tower comprising pulp with such consistency that the white water and the pulp remain substantially separated in different layers in the second pulp tower . storing pulp from fiberline in a first pulp tower ; directing the pulp from the first pulp tower to pulp drying; storing white water from the pulp drying into a first water tower and directing the water therefrom back to the fiberline; and when the fiberline is not able to receive the white water from the first water tower , directing the white water to second pulp tower comprising pulp with such consistency that the white water and the pulp remain substantially separated in different layers in the second pulp tower .
An apparatus of welding including an electrode comprising: a metal cylinder defining a weld end and a hollow interior , powdered feed materials positioned in the hollow interior and movable with respect to the metal cylinder towards the weld end of the electrode, a delivery means operable to move the powdered feed materials with respect to the metal cylinder, and an adherent flux coating surrounding the metal cylinder , and using an electrode holder defining an interior or opening having at least a portion thereof sized or adapted to facilitate the feeding of the powdered feed materials and/or the delivery means therethrough, wherein the electrode is held by the electrode holder opposite the weld end, wherein portions of the flux coating are removed or stripped in order for the electrode holder to hold the metal cylinder and to thereby establish a welding current connection during the welding operation. a metal cylinder defining a weld end and a hollow interior , powdered feed materials positioned in the hollow interior and movable with respect to the metal cylinder towards the weld end of the electrode, a delivery means operable to move the powdered feed materials with respect to the metal cylinder, and an adherent flux coating surrounding the metal cylinder , and using an electrode holder defining an interior or opening having at least a portion thereof sized or adapted to facilitate the feeding of the powdered feed materials and/or the delivery means therethrough, wherein the electrode is held by the electrode holder opposite the weld end, wherein portions of the flux coating are removed or stripped in order for the electrode holder to hold the metal cylinder and to thereby establish a welding current connection during the welding operation.
A method (1300; 1400) for millimeter wave, mmW, wireless communications at a first wireless device , comprising: identifying (1305; 1405) a template matrix P mapping of a plurality of ports to a first plurality M of frequency subcarriers (450-a) and a first plurality N of time periods (440-a) of a template time-frequency resource grid, wherein each port of the plurality of ports is associated with a corresponding radio frequency, RF, chain ; mapping (1310; 1410) a plurality of resource elements of an orthogonal frequency-division multiplexing, OFDM, time-frequency resource grid , comprising a second plurality F of frequency subcarriers and a second plurality T of time periods, to the plurality of ports based at least in part on the template matrix P mapping, so that a resource element corresponding to a subcarrier frequency with index k and a time period with index l of the time-frequency resource grid is associated with a port( k , l ) = P ( k mod M , l mod N), where o ≤ k ≤ F- 1 and o ≤ l ≤ T- 1 ; receiving (1315; 1415) a reference signal from a second wireless device , on a subset of the plurality of ports , based at least in part on the mapping; and decoding (1320; 1420) the reference signal from a subset of the plurality of resource elements based at least in part on the mapping. identifying (1305; 1405) a template matrix P mapping of a plurality of ports to a first plurality M of frequency subcarriers (450-a) and a first plurality N of time periods (440-a) of a template time-frequency resource grid, wherein each port of the plurality of ports is associated with a corresponding radio frequency, RF, chain ; mapping (1310; 1410) a plurality of resource elements of an orthogonal frequency-division multiplexing, OFDM, time-frequency resource grid , comprising a second plurality F of frequency subcarriers and a second plurality T of time periods, to the plurality of ports based at least in part on the template matrix P mapping, so that a resource element corresponding to a subcarrier frequency with index k and a time period with index l of the time-frequency resource grid is associated with a port( k , l ) = P ( k mod M , l mod N), where o ≤ k ≤ F- 1 and o ≤ l ≤ T- 1 ; receiving (1315; 1415) a reference signal from a second wireless device , on a subset of the plurality of ports , based at least in part on the mapping; and decoding (1320; 1420) the reference signal from a subset of the plurality of resource elements based at least in part on the mapping.
A multi-part long knife for cutting rubberized and non-rubberized steel cord, rubber sheets with or without fiber reinforcement, industrial textiles, steel sheets and non-ferrous metals having an elongate knife carrier on which at least one elongate blade with a cutting edge is held, wherein the knife carrier comprises a clamping strip which is guided in a recess of the knife carrier in a clamping direction (K), wherein a receptacle for the blade is formed between the knife carrier and the clamping strip guided in the recess , wherein a first clamping surface is formed on the knife carrier and a second clamping surface opposite the first clamping surface is formed on the clamping strip , between which the blade can be clamped, wherein the clamping surfaces extend parallel to a longitudinal direction L and inclined to each other, characterized in that the clamping surfaces are each inclined at an angle of 35° to 55° to the clamping direction K.
A warp-inserted warp knitted chain structure for a baling net, wherein the warp-inserted warp knitted chain structure is formed by combining two parts, i.e., a warp-knitted chain (L) and an insertion warp inserted into the warp-knitted chain (L), the warp-knitted chain (L) is formed by serially connecting loop links formed through warp knitting of looping fibers , the insertion warp is alternately threaded up and down in the loop links in the warp-knitted chain (L), characterized in that the tex of the warp-knitted chain (L) is 3 times the tex A of the looping fibers , and the ratio of the tex A of the looping fibers to the tex C of the insertion warp is less than or equal to 2.33, the total tex of fibers of the warp-inserted warp knitted chain structure is B=3A+C. the tex A of the looping fibers is not more than 0.2917B and the tex C of the insertion warp is not less than 0.125B; and the total tex of fibers of the warp-inserted warp knitted chain structure is 133,333 tex, the tex A of the looping fibers is not more than 38,889 tex and the tex C of the insertion warp is not less than 16,667 tex. for a baling net, wherein the warp-inserted warp knitted chain structure is formed by combining two parts, i.e., a warp-knitted chain (L) and an insertion warp inserted into the warp-knitted chain (L), the warp-knitted chain (L) is formed by serially connecting loop links formed through warp knitting of looping fibers , the insertion warp is alternately threaded up and down in the loop links in the warp-knitted chain (L), characterized in that the tex of the warp-knitted chain (L) is 3 times the tex A of the looping fibers , and the ratio of the tex A of the looping fibers to the tex C of the insertion warp is less than or equal to 2.33, the total tex of fibers of the warp-inserted warp knitted chain structure is B=3A+C. the tex A of the looping fibers is not more than 0.2917B and the tex C of the insertion warp is not less than 0.125B; and the total tex of fibers of the warp-inserted warp knitted chain structure is 133,333 tex, the tex A of the looping fibers is not more than 38,889 tex and the tex C of the insertion warp is not less than 16,667 tex.
A method for regulating a device, the method comprising: identifying a geographic position of the device; obtaining operation regulations related to the identified geographic position; determining whether the device is indoors or outdoors; and adjusting settings or operational constraints of the device based on the obtained regulations and the determination of whether the device is indoors or outdoors; the method further comprising receiving one or more of a global positioning system, GPS, signal, an assisted GPS, A-GPS, signal, or a communications signal as a multipath propagation signal; wherein the determining whether the device is indoors or outdoors comprises determining based on a strength of the received one or more of the GPS signal, the A-GPS signal, or the multipath propagation signal; and when determining based on a strength of received one or more of the GPS signal, the A-GPS signal, or the multipath propagation signal fails: prompting a user to provide or confirm whether the device is indoors or outdoors. identifying a geographic position of the device; obtaining operation regulations related to the identified geographic position; determining whether the device is indoors or outdoors; and adjusting settings or operational constraints of the device based on the obtained regulations and the determination of whether the device is indoors or outdoors; the method further comprising receiving one or more of a global positioning system, GPS, signal, an assisted GPS, A-GPS, signal, or a communications signal as a multipath propagation signal; wherein the determining whether the device is indoors or outdoors comprises determining based on a strength of the received one or more of the GPS signal, the A-GPS signal, or the multipath propagation signal; and when determining based on a strength of received one or more of the GPS signal, the A-GPS signal, or the multipath propagation signal fails: prompting a user to provide or confirm whether the device is indoors or outdoors.
3D multi-aperture imaging device for providing 3D information on a scene, comprising: an image sensor ; a first plurality (14 1 ) of optical channels (14 11 , 14 12 , 14 13 , 14 14 ) for projecting overlapping first partial fields of view (30 11 , 30 12 , 30 13 , 30 14 ) of a total field of view on first image sensor areas (12 11 , 12 12 , 12 13 , 12 14 ) of the image sensor; a second plurality (14 2 ) of optical channels (14 21 , 14 22 , 14 23 , 14 24 ) for projecting second partial fields of view (30 21 , 30 22 , 30 23 , 30 24 ) of the total field of view that overlap with one another and with the first partial fields of view on second image sensor areas (12 21 , 12 22 , 12 23 , 12 24 ) of the image sensor, wherein the first and second pluralities of optical channels are arranged laterally offset from one another by a base distance ; wherein the first partial fields of view (30 11 , 30 12 , 30 13 , 30 14 ) together cover the total field of view and the second partial fields of view together cover the total field of view ; a processor for fusing images that have been captured by the first plurality of optical channels to a first total image, wherein the processor is configured to perform fusion in an overlap area of first partial fields of view of a pair of optical channels of the first plurality of optical channels by using disparities in a pair of images, wherein at least one of them has been captured by one of the second plurality of optical channels whose projected second partial field of view overlaps with the overlap area. an image sensor ; a first plurality (14 1 ) of optical channels (14 11 , 14 12 , 14 13 , 14 14 ) for projecting overlapping first partial fields of view (30 11 , 30 12 , 30 13 , 30 14 ) of a total field of view on first image sensor areas (12 11 , 12 12 , 12 13 , 12 14 ) of the image sensor; a second plurality (14 2 ) of optical channels (14 21 , 14 22 , 14 23 , 14 24 ) for projecting second partial fields of view (30 21 , 30 22 , 30 23 , 30 24 ) of the total field of view that overlap with one another and with the first partial fields of view on second image sensor areas (12 21 , 12 22 , 12 23 , 12 24 ) of the image sensor, wherein the first and second pluralities of optical channels are arranged laterally offset from one another by a base distance ; wherein the first partial fields of view (30 11 , 30 12 , 30 13 , 30 14 ) together cover the total field of view and the second partial fields of view together cover the total field of view ; a processor for fusing images that have been captured by the first plurality of optical channels to a first total image, wherein the processor is configured to perform fusion in an overlap area of first partial fields of view of a pair of optical channels of the first plurality of optical channels by using disparities in a pair of images, wherein at least one of them has been captured by one of the second plurality of optical channels whose projected second partial field of view overlaps with the overlap area.
Heat exchanger with at least one external pipe and one central pipe and one long internal body , whereby the internal body is situated in the inside of the central pipe and extends over at least part of the length of the central pipe and the central pipe is located in the inside of the external pipe , and the central pipe extends over a part of the length of the external pipe and being thus characterised by at least one cleaning gutter being located in at least one of the inner intermediary spaces between the internal casing and the central pipe or in an external intermediary space between the internal casing and the central pipe , or in an external intermediary space between the central pipe and the outer pipe , and the central pipe being rotatable with respect to the internal casing and/or to the outer pipe .
Method for transferring a liquid volume in an analyzer , the analyzer comprising a pipetting device mounted on a first shiftable transfer arm and having a pipetting needle and a gripper mounted on a second shiftable transfer arm and intended for a reaction vessel , the method comprising the following steps: a) grabbing a reaction vessel using the gripper ; b) removing a defined liquid volume from a liquid container using the pipetting device ; c) shifting the pipetting device to a position above the reaction vessel ; d) lowering the pipetting needle in a vertical direction into the reaction vessel held by the gripper , to a position in which the pipetting needle does not touch a wall of the reaction vessel ; e) shifting the pipetting device in a horizontal direction such that the tip of the pipetting needle touches the inner wall of the reaction vessel ; f) dispensing the defined liquid volume into the reaction vessel ; g) retracting the pipetting device in a horizontal direction to a position in which the pipetting needle does not touch a wall of the reaction vessel ; and h) raising the pipetting needle in a vertical direction out of the reaction vessel held by the gripper , characterized in that the reaction vessel is held in an inclined position by the gripper at least during the execution of method steps e) to g), and so the longitudinal axis of the reaction vessel is tilted relative to the longitudinal axis of the pipetting needle . a) grabbing a reaction vessel using the gripper ; b) removing a defined liquid volume from a liquid container using the pipetting device ; c) shifting the pipetting device to a position above the reaction vessel ; d) lowering the pipetting needle in a vertical direction into the reaction vessel held by the gripper , to a position in which the pipetting needle does not touch a wall of the reaction vessel ; e) shifting the pipetting device in a horizontal direction such that the tip of the pipetting needle touches the inner wall of the reaction vessel ; f) dispensing the defined liquid volume into the reaction vessel ; g) retracting the pipetting device in a horizontal direction to a position in which the pipetting needle does not touch a wall of the reaction vessel ; and h) raising the pipetting needle in a vertical direction out of the reaction vessel held by the gripper ,