mhurhangee/ep-ind-claims huggingface dataset:
A method implemented in a network node (104, 202) configured to communicate with a wireless device, WD,, the method comprising: summing (S134, S146) WD sequential uplink data signals at each of a plurality of antennas of the network node to produce a plurality of antenna signal sums; selecting (S136, S148) one of the antenna signal sums to be used as a reference antenna signal sum; determining (S138, S149) a channel impulse response for each of a plurality of other antennas based on the reference antenna signal sum and the others of the plurality of antenna signal sums; estimating (S140, S152) a time difference of arrival from the channel impulse responses of the plurality of antennas; estimating (S142, S154) an error of the estimated time difference of arrival of each antenna; and calculating (S144, S156) a position of the wireless device using the estimated time differences of arrival. summing (S134, S146) WD sequential uplink data signals at each of a plurality of antennas of the network node to produce a plurality of antenna signal sums; selecting (S136, S148) one of the antenna signal sums to be used as a reference antenna signal sum; determining (S138, S149) a channel impulse response for each of a plurality of other antennas based on the reference antenna signal sum and the others of the plurality of antenna signal sums; estimating (S140, S152) a time difference of arrival from the channel impulse responses of the plurality of antennas; estimating (S142, S154) an error of the estimated time difference of arrival of each antenna; and calculating (S144, S156) a position of the wireless device using the estimated time differences of arrival.
A cooling system for an electric rotor machine having a stator and a rotor, the cooling system comprising: a passageway positioned in a midsection of the stator and configured to provide a pathway for the flow of cooling medium into at least a portion of the stator; a first set of stator ducts and a second set of stator ducts positioned in the stator, the first and second sets of stator ducts being in fluid communication with the passageway and adapted for the flow of cooling medium through at least a portion of the stator, the first set of stator ducts extending from the passageway in a first direction, a second set of stator ducts extending from the passageway in a second direction, the second direction being generally opposite to the first direction; an air gap positioned between the stator and the rotor, the passageway configured to deliver cooling medium to a midsection of the air gap, the air gap configured to provide a channel for the flow of cooling medium from the midsection of the air gap to opposing first and second ends of the stator; and characterized by an outlet positioned at a discharge end of each of the stator ducts and oriented to direct cooling medium flowing out of the outlet radially inward, with respect to a central axis of the stator, to impinge on windings of the stator. a passageway positioned in a midsection of the stator and configured to provide a pathway for the flow of cooling medium into at least a portion of the stator; a first set of stator ducts and a second set of stator ducts positioned in the stator, the first and second sets of stator ducts being in fluid communication with the passageway and adapted for the flow of cooling medium through at least a portion of the stator, the first set of stator ducts extending from the passageway in a first direction, a second set of stator ducts extending from the passageway in a second direction, the second direction being generally opposite to the first direction; an air gap positioned between the stator and the rotor, the passageway configured to deliver cooling medium to a midsection of the air gap, the air gap configured to provide a channel for the flow of cooling medium from the midsection of the air gap to opposing first and second ends of the stator; and characterized by an outlet positioned at a discharge end of each of the stator ducts and oriented to direct cooling medium flowing out of the outlet radially inward, with respect to a central axis of the stator, to impinge on windings of the stator.
A box packing apparatus configured to load a plurality of the articles to be packed into each of boxes which is delivered one after another to a loading location of the articles to be packed, by feeding the articles to be packed into the box through an opening of the box, the box packing apparatus comprising: a first support component configured to support the box in the loading location in a state in which the opening faces sideways and move the box that has been loaded with the articles to be packed from the loading location; a second support component configured to temporarily support the box that is delivered to the loading location in a state in which the opening faces sideways; and a feed mechanism configured to feed the articles to be packed into the box through the opening, the box being supported at least by the second support component, characterized in that the second support component is configured to, when the first support component is moving one of the boxes that has been loaded with the articles to be packed, temporarily support another one of the boxes. a first support component configured to support the box in the loading location in a state in which the opening faces sideways and move the box that has been loaded with the articles to be packed from the loading location; a second support component configured to temporarily support the box that is delivered to the loading location in a state in which the opening faces sideways; and a feed mechanism configured to feed the articles to be packed into the box through the opening, the box being supported at least by the second support component, characterized in that the second support component is configured to, when the first support component is moving one of the boxes that has been loaded with the articles to be packed, temporarily support another one of the boxes.
A method of producing a promoter variant which is a variant of a promoter selected from the group consisting of pG1 consisting of the nucleotide sequence of SEQ ID 1, pG3 consisting of the nucleotide sequence of SEQ ID 2, pG4 consisting of the nucleotide sequence of SEQ ID 4, pG6 consisting of the nucleotide sequence of SEQ ID 3, pG7 consisting of the nucleotide sequence of SEQ ID 5, and pG8 consisting of the nucleotide sequence of SEQ ID 6, which method comprises a) mutagenesis of the respective promoter nucleotide sequence thereby producing variants comprising a nucleotide sequence of at least 200 bp and having at least 80% sequence identity to the respective promoter nucleotide sequence, and b) selecting a promoter variant from said variants which is a carbon source regulatable promoter capable of producing a protein of interest in a recombinant eukaryotic cell by expressing a nucleotide sequence encoding said POI under the transcriptional control of said promoter variant, at a transcription strength of at least 20% as compared to the pGAP promoter (SEQ ID NO:13) when fully induced. a) mutagenesis of the respective promoter nucleotide sequence thereby producing variants comprising a nucleotide sequence of at least 200 bp and having at least 80% sequence identity to the respective promoter nucleotide sequence, and b) selecting a promoter variant from said variants which is a carbon source regulatable promoter capable of producing a protein of interest in a recombinant eukaryotic cell by expressing a nucleotide sequence encoding said POI under the transcriptional control of said promoter variant, at a transcription strength of at least 20% as compared to the pGAP promoter (SEQ ID NO:13) when fully induced.
Adelmidrol for use in the treatment of diseases sensitive to the specific agonism of the PPAR-gamma receptor in humans or animals, wherein said diseases are diseases characterized by an abnormal fibrosis of the connective tissue of the lung.
An optoelectronic device for measuring distances to an object in a monitored area, the device comprising a light transmitter for transmitting coherent transmitted light into the monitored area, a light receiver for receiving received light from the monitored area, and a control and evaluation unit configured to modulate a code sequence onto the transmitted light as a phase modulation of the light wave itself and to compare the code sequence in the received light with the known code sequence in the transmitted light as a reference, in order to determine the light time of flight and, from that, a distance, wherein a portion of the transmitted light is guided as reference light to the light receiver where it interferes with the received light, and wherein the light receiver detects the resulting interference signal, characterized in that the control and evaluation unit is further configured to modulate a phase ramp onto the transmitted light in addition to the code sequence.
Payload of a satellite of a satellite telecommunication system, said payload comprising a reflector, a network of sources, and a beam-forming network (25a, 25b) connected to said sources, said network of sources being suitable for forming beams for transporting signals both in a first frequency band, called band B1, and in a second frequency band, called band B2, said frequency band B2 being different from frequency band B1, each beam being formed by a plurality of sources in said network of sources, each source of the network of sources being suitable for band B1 and for band B2, said reflector comprising two reflective surfaces (22a, 22b) positioned one behind the other with respect to the network of sources and having different curvatures so that each reflective surface (22a, 22b) is suitable for producing an image of the network of sources with a different magnification factor, the reflective surface closer to the network of sources being transparent for all the signals transported on the band B2 and suitable for reflecting signals transported in the band B1, and the other reflective surface being suitable for reflecting signals transported in the band B2.
A method for operation of a blast furnace in which iron ore and coke are charged from a furnace top and pulverized coal is injected from a usual tuyere, comprising blo wing in a blast containing at least one of hydrogen and hydrocarbon from said usual tuyere together with said pulverized coal, wherein said blast is enriched with oxygen by an oxygen enrichment of not less than 10% and not more than a Y% shown in the following formula: Y = 0. 079 × CH 4 + 32 where CH 4 indicates a vol% of methane in the gas blown in from the usual tuyere blowing a gas comprised of a top gas of the blast furnace from which carbon dioxide and steam are removed from a shaft tuyere into the blast furnace, and blowing top gas from the usual tuyere without heating the top gas.
A Magnetoresistive Random Access Memory, MRAM, integrated circuit (400; 500; 600; 700; 1100; 1200; 1300; 1400; 1500), the integrated circuit comprising: a substrate; a magnetic tunnel junction (300; 410; 510; 610; 710) disposed on the substrate, the magnetic tunnel junction comprising a first magnetic layer (310; 412; 512; 612; 712) and a second magnetic layer (330; 414; 514; 614; 714) separated by a tunnel barrier insulating layer (320; 416; 516; 616; 716); a first integrated magnetic material disposed on the substrate, in the same plane as at least one of the first and second magnetic layers (310, 330; 412, 414; 512, 514; 612, 614; 712, 714) of the magnetic tunnel junction (300; 410; 510; 610; 710) and a magnetic circuit element region (404, 406; 504, 506; 604, 606; 704, 706) comprising a plurality of metal portions (460; 560; 660; 760) the first integrated magnetic material disposed on the substrate adjacent above or adjacent below the plurality of metal portions (460; 560; 660; 760); characterised in that the plurality of metal portions (460;560;660;760) are coupled or connected to each other by via interconnects (462; 662). a substrate; a magnetic tunnel junction (300; 410; 510; 610; 710) disposed on the substrate, the magnetic tunnel junction comprising a first magnetic layer (310; 412; 512; 612; 712) and a second magnetic layer (330; 414; 514; 614; 714) separated by a tunnel barrier insulating layer (320; 416; 516; 616; 716); a first integrated magnetic material disposed on the substrate, in the same plane as at least one of the first and second magnetic layers (310, 330; 412, 414; 512, 514; 612, 614; 712, 714) of the magnetic tunnel junction (300; 410; 510; 610; 710) and a magnetic circuit element region (404, 406; 504, 506; 604, 606; 704, 706) comprising a plurality of metal portions (460; 560; 660; 760) the first integrated magnetic material disposed on the substrate adjacent above or adjacent below the plurality of metal portions (460; 560; 660; 760); characterised in that the plurality of metal portions (460;560;660;760) are coupled or connected to each other by via interconnects (462; 662).
A gear transmission having a casing comprising at least one final stage having cylindrical gears, the final stage including a final gear and a coupling member between the final gear and a coupling extremity of a user shaft, the coupling member comprising a flange (20, 30) removably attached to the final gear and directly supported on the casing for supporting the final gear, characterised in that the coupling member further comprises a tapering surface axially defined in the final gear on the side thereof facing the flange (20, 30) for seating a wedge locking system apt to lock to each other the final gear and the user shaft, in which the tapering surface is extended into a blind hole of said final gear.
An oxidized carbon black having the following properties: a BET surface area ranging from 650 to 2100 m 2 /g; an oil absorption number ranging from 35 to 500 mL/100g; and at least one of the following properties: (a) a volatile content of at least 5.5 wt.% relative to the total weight of the oxidized carbon black, as determined by weight loss at 950°C; (b) a total oxygen content of at least 3.5 wt.% relative to the total weight of the oxidized carbon black; (c) a total titratable acidic group content of at least 0.5 μmol/m 2, as determined by Boehm's titration method; and (d) a total titratable acidic group content of at least 0.5 mmol/g, as determined by Boehm's titration method. a BET surface area ranging from 650 to 2100 m 2 /g; an oil absorption number ranging from 35 to 500 mL/100g; and at least one of the following properties: (a) a volatile content of at least 5.5 wt.% relative to the total weight of the oxidized carbon black, as determined by weight loss at 950°C; (b) a total oxygen content of at least 3.5 wt.% relative to the total weight of the oxidized carbon black; (c) a total titratable acidic group content of at least 0.5 μmol/m 2, as determined by Boehm's titration method; and (d) a total titratable acidic group content of at least 0.5 mmol/g, as determined by Boehm's titration method. (a) a volatile content of at least 5.5 wt.% relative to the total weight of the oxidized carbon black, as determined by weight loss at 950°C; (b) a total oxygen content of at least 3.5 wt.% relative to the total weight of the oxidized carbon black; (c) a total titratable acidic group content of at least 0.5 μmol/m 2, as determined by Boehm's titration method; and (d) a total titratable acidic group content of at least 0.5 mmol/g, as determined by Boehm's titration method.
A climbing trainer (100, 200, 302, 900) comprising: a shuttle guide member (207, 902) comprising a base and an upper end, the base and the upper end defining an axis therebetween; a shuttle (106, 206, 906) disposed within the shuttle guide member (207, 902), the shuttle (106, 206, 906) comprising an axle assembly (108, 266) to which a front wheel mount of a bicycle (12, 92) may be connected to operably connect the bicycle (12, 92) to the climbing trainer (100, 200, 302, 900); a drive (220, 916) coupled to the shuttle (106, 206, 906) and adapted to move the shuttle (106, 206, 906) parallel to the axis between a lower shuttle position and an upper shuttle position; and a curved foot (104, 204) coupled to the base of the shuttle guide member (207, 902), wherein the curved foot (104, 204) permits tilting of the climbing trainer (100, 200, 302, 900) in response to movement of the shuttle (106, 206, 906) when the bicycle (12, 92) is operably connected to the axle assembly (108, 266) and the shuttle (106, 206, 906) moves between the lower shuttle position and the upper shuttle position. a shuttle guide member (207, 902) comprising a base and an upper end, the base and the upper end defining an axis therebetween; a shuttle (106, 206, 906) disposed within the shuttle guide member (207, 902), the shuttle (106, 206, 906) comprising an axle assembly (108, 266) to which a front wheel mount of a bicycle (12, 92) may be connected to operably connect the bicycle (12, 92) to the climbing trainer (100, 200, 302, 900); a drive (220, 916) coupled to the shuttle (106, 206, 906) and adapted to move the shuttle (106, 206, 906) parallel to the axis between a lower shuttle position and an upper shuttle position; and a curved foot (104, 204) coupled to the base of the shuttle guide member (207, 902), wherein the curved foot (104, 204) permits tilting of the climbing trainer (100, 200, 302, 900) in response to movement of the shuttle (106, 206, 906) when the bicycle (12, 92) is operably connected to the axle assembly (108, 266) and the shuttle (106, 206, 906) moves between the lower shuttle position and the upper shuttle position.
A method for accelerated object and/or object attribute recognition, wherein a first information item is acquired, wherein the first information item describes at least one object and/or at least one object attribute in an evaluated data form, wherein a second information item is acquired by at least one individual sensor (407, 408, 409, 410) or by a sensor group, wherein the second information item describes the at least one object and/or the at least one object attribute in a sensor raw data form, wherein an object recognition algorithm and/or an object attribute recognition algorithm is/are applied to sensor raw data of the second information item as soon as a threshold value of the object recognition algorithm and/or of the object attribute recognition algorithm is reached, characterized in that the first information item is acquired by a vehicle-to-X communication device, the at least one object and/or the at least one object attribute is recognized in the sensor raw data of the second information item, and the threshold value of the object recognition algorithm and/or of the object attribute recognition algorithm for recognising the at least one object and/or at least one object attribute described by the first information item is reduced in the sensor raw data of the second information item.
A stabilizer fin for a watercraft with a hull, wherein said stabilizer fin comprises; - a fin base arranged to be pivotally mounted to said hull with pivot means so that said stabilizer fin can pivot about a pivot axis (p), - a fin tip, - a leading edge, and - a trailing edge, wherein a forward direction (f) of said stabilizer fin is defined from said trailing edge to said leading edge at said fin base, characterized in that said trailing edge at said fin tip is bent away from a plane defined by said forward direction (f) and said pivot axis (p), to give the trailing edge a concave profile in a lateral direction (Id) perpendicular to said plane. - a fin base arranged to be pivotally mounted to said hull with pivot means so that said stabilizer fin can pivot about a pivot axis (p), - a fin tip, - a leading edge, and - a trailing edge,
An autonomous floor-traversing robot, comprising: a chassis comprising a chassis housing, the chassis defining an interior compartment disposed beneath a chassis ceiling; a cover extending across an area of the chassis ceiling; and characterized by: a liquid-tight button plate coupled to an inner surface of the cover that is aligned with an opening of the chassis ceiling exposing a mechanical button. a chassis comprising a chassis housing, the chassis defining an interior compartment disposed beneath a chassis ceiling; a cover extending across an area of the chassis ceiling; and characterized by: a liquid-tight button plate coupled to an inner surface of the cover that is aligned with an opening of the chassis ceiling exposing a mechanical button.
A filtration system for removing a target gas from a gas to be filtered in a space, the filtration system comprising: a sensor arrangement, which comprises a gas sensor for sensing a concentration of the target gas in the space; a filter for filtering the target gas from the air, wherein the filter comprises an absorption filter or an adsorption filter; and a control system which comprises a ventilation system for controllably driving air through the filter, wherein the control system is adapted to implement different modes of operation of the filtration system, wherein the control system is adapted, based on current sensor arrangement signals, previous sensor arrangement signals and previous modes of operation, to: determine a degree of filter loading with the target gas; and select a mode of operation based on the degree of filter loading and the current sensor arrangement signals the filtration system being characterized in that: the control system is further adapted to determine from the degree of filter loading with the target gas and the current sensor arrangement signals when filter absorption or adsorption is taking place and when filter desorption is taking place. a sensor arrangement, which comprises a gas sensor for sensing a concentration of the target gas in the space; a filter for filtering the target gas from the air, wherein the filter comprises an absorption filter or an adsorption filter; and a control system which comprises a ventilation system for controllably driving air through the filter, wherein the control system is adapted to implement different modes of operation of the filtration system, wherein the control system is adapted, based on current sensor arrangement signals, previous sensor arrangement signals and previous modes of operation, to: determine a degree of filter loading with the target gas; and select a mode of operation based on the degree of filter loading and the current sensor arrangement signals the filtration system being characterized in that: determine a degree of filter loading with the target gas; and select a mode of operation based on the degree of filter loading and the current sensor arrangement signals the filtration system being characterized in that: the control system is further adapted to determine from the degree of filter loading with the target gas and the current sensor arrangement signals when filter absorption or adsorption is taking place and when filter desorption is taking place.