mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a braking system, - wherein the braking system comprises the following: - a first input voltage terminal (KL30_1), - a second input voltage terminal (KL30_2), - an electric motor, characterized by - a switchable connection between a first connection point connected to the first input voltage terminal (KL30_1) and a second connection point connected to the second input voltage terminal (KL30_2) and the electric motor, - wherein the switchable connection is open in normal operation, and - wherein in response to a detected voltage difference (V1-V2) between the first input voltage terminal (KL30_1) and the second input voltage terminal (KL30_2) which is above a first threshold value (Diff1), - the electric motor is operated in a recuperation mode, and then - in response to a detected voltage difference (V3-V4) between the first connection point and the second connection point which is below a second threshold value (Diff2), the switchable connection is closed. - wherein the braking system comprises the following: - a first input voltage terminal (KL30_1), - a second input voltage terminal (KL30_2), - an electric motor, characterized by - a switchable connection between a first connection point connected to the first input voltage terminal (KL30_1) and a second connection point connected to the second input voltage terminal (KL30_2) and the electric motor, - a first input voltage terminal (KL30_1), - a second input voltage terminal (KL30_2), - an electric motor, characterized by - a switchable connection between a first connection point connected to the first input voltage terminal (KL30_1) and a second connection point connected to the second input voltage terminal (KL30_2) and the electric motor, - wherein the switchable connection is open in normal operation, and - wherein in response to a detected voltage difference (V1-V2) between the first input voltage terminal (KL30_1) and the second input voltage terminal (KL30_2) which is above a first threshold value (Diff1), - the electric motor is operated in a recuperation mode, and then - in response to a detected voltage difference (V3-V4) between the first connection point and the second connection point which is below a second threshold value (Diff2), the switchable connection is closed. - the electric motor is operated in a recuperation mode, and then - in response to a detected voltage difference (V3-V4) between the first connection point and the second connection point which is below a second threshold value (Diff2), the switchable connection is closed.
A front end assembly for a plasma arc torch, the front end assembly comprising: a shield; a shield retainer having a surface for engaging the shield; a nozzle retaining cup body having a rearward end removably connectable to a body of the plasma arc torch and a forward end removably connectable to the shield retainer; a nozzle retaining cup insert receivable in an interior space formed by the nozzle retaining cup body, the nozzle retaining cup insert having a forward portion extending forwardly beyond a forward end of the nozzle retaining cup body; a nozzle (14,170) receivable within an interior space formed by the nozzle retaining cup insert, a first central portion of the nozzle having a first diameter, the first central portion positioned in close confronting relation with the forward portion of the nozzle retaining cup insert, the nozzle further including a stop that is engageable with a nose portion of the nozzle retaining cup insert to prevent axial movement towards the rear of the nozzle retaining cup insert once the stop and the nose portion are engaged, and characterised in that the assembly further comprises an insulator disposed between the shield and the nozzle (14,170) wherein engagement of the shield with the insulator and engagement of the insulator with a forward facing surface of the nozzle limits forward axial movement of the nozzle. a shield; a shield retainer having a surface for engaging the shield; a nozzle retaining cup body having a rearward end removably connectable to a body of the plasma arc torch and a forward end removably connectable to the shield retainer; a nozzle retaining cup insert receivable in an interior space formed by the nozzle retaining cup body, the nozzle retaining cup insert having a forward portion extending forwardly beyond a forward end of the nozzle retaining cup body; a nozzle (14,170) receivable within an interior space formed by the nozzle retaining cup insert, a first central portion of the nozzle having a first diameter, the first central portion positioned in close confronting relation with the forward portion of the nozzle retaining cup insert, the nozzle further including a stop that is engageable with a nose portion of the nozzle retaining cup insert to prevent axial movement towards the rear of the nozzle retaining cup insert once the stop and the nose portion are engaged, and characterised in that the assembly further comprises an insulator disposed between the shield and the nozzle (14,170) wherein engagement of the shield with the insulator and engagement of the insulator with a forward facing surface of the nozzle limits forward axial movement of the nozzle.
A method for operating a passive alternating current harmonic filter in order to reduce or to limit distortions and/or harmonics of a base frequency in electrical energy distribution networks, by means of which method, by dimensioning an inductor (L0, L1,... Ln) and a capacitor (C0, C1,... Cn) and optionally one or more resistors (Rd1,... Rdn) of the filter, the tuning frequency and/or impedance of the latter are set, characterised in that during on-going filter operation, and without interrupting the latter, dependently upon on the current or other power loading of the filter, the tuning frequency and/or impedance are changed according to a pre-specified, maximum current or other power load capacity of the filter such that its limit for current or power overloading is not exceeded.
A transmitter (Tx) for transmitting a multicarrier signal in an optical fiber communication system, wherein the transmitter (Tx) is adapted to transmit, towards a receiver (Rx) each subcarrier of the multicarrier signal in a single-sideband modulation format or a double-sideband modulation format characterized in that the transmitter is specifically adapted to select the respective modulation format in which each subcarrier of the multicarrier signal is transmitted towards the receiver (Rx) based on a comparison of a first quality performance when the subcarrier is configured in the SSB modulation format and a second quality performance when the subcarrier is configured in the DSB modulation format.
A spark plug comprising a center electrode, a ground electrode provided so as to form a gap between the ground electrode and the center electrode, and a noble metal tip (8, 9) provided on at least one of the center electrode and the ground electrode, wherein the noble metal tip (8, 9) contains Mp, Cu, and Rh in a total amount of 95 mass% or more, wherein Mp is Pt or Pt and Pd, and the amount of Pd is 20 mass% or less with respect to the mass of the noble metal tip (8, 9); and the proportions by mass of Mp, Cu, and Rh (Mp, Cu, Rh) fall within a region in a Mp-Cu-Rh ternary composition diagram defined by a line connecting a point E, a point F, a point G, a point H, and the point E, in this order, wherein the point E is 94.5, 5, 0.5, wherein the point F is 87, 5, 8, wherein the point G is 80, 12, 8, wherein the point H is 79.5, 20, 0.5, wherein the region includes the line.
Status display device of a firing system, wherein the status display device comprises a first transponder (107, 109) having at least one antenna (111, 113), wherein, in the display situation in a safe state and/or an armed state of the firing system, the first transponder is connected via a connecting element, with the result that the state of the firing system can be transmitted in a contactless manner and without an optical display to an assignable reading module by means of the first transponder having the antenna, and the status display device comprises a second transponder having a second antenna, with the result that, in the display situation, a safe state of the firing system is transmitted by one of the two transponders or an armed state of the firing system is transmitted by the other of the two transponders, wherein depending on the state of the firing system, the transponder for the safe state or the transponder for the armed state is connected via the connecting element.
A MEMS transducer, comprising a micromechanical sensing structure and a package, said package being provided with a substrate, carrying first electrical-connection elements, and a lid, coupled to said substrate to define an internal cavity, in which said micromechanical sensing structure is housed, said lid being formed by: a cap layer having a first surface and a second surface, which are set opposite to one another, said first surface defining an external face of said package and said second surface facing said substrate inside said package; and a wall structure, set between said cap layer and said substrate, and having a coupling face coupled to said substrate, characterized in that at least a first electrical component (10, 11) is coupled to said second surface of said cap layer, inside said package, and said coupling face of said wall structure carries second electrical-connection elements, designed to electrically connect said first electrical component (10, 11) to said first electrical-connection elements.
A substrate for an organic light emitting display device, comprising: a plurality of pixels each including at least one subpixel; a protective layer having a non-flat shape; a plurality of first electrodes on the protective layer; and a bank layer on the first electrodes, the bank layer including openings for exposing the first electrodes in emission areas of corresponding subpixels, wherein the subpixels include at least two or more subpixels, characterized in that the protective layer in the emission area (EA11, EA13) of one subpixel of the at least two or more subpixels includes a plurality of concave portions within the opening of the bank layer and does not include convex portions, and the protective layer (130, 630) in the emission area (EA23, EA21) of another subpixel of the at least two or more subpixels includes a plurality of convex portions within the opening of the bank layer and does not include concave portions. a plurality of pixels each including at least one subpixel; a protective layer having a non-flat shape; a plurality of first electrodes on the protective layer; and a bank layer on the first electrodes, the bank layer including openings for exposing the first electrodes in emission areas of corresponding subpixels, wherein the subpixels include at least two or more subpixels, characterized in that the protective layer in the emission area (EA11, EA13) of one subpixel of the at least two or more subpixels includes a plurality of concave portions within the opening of the bank layer and does not include convex portions, and the protective layer (130, 630) in the emission area (EA23, EA21) of another subpixel of the at least two or more subpixels includes a plurality of convex portions within the opening of the bank layer and does not include concave portions.
A compressor comprising: an electric motor including a stator and a rotor placed on an inner side of the stator; a compressing mechanism; and a housing, wherein the stator is fixed to an inner wall of the housing through a plurality of laser welding portions, the plurality of laser welding portions are formed at predetermined distances from one another in a circumferential direction of the housing, the laser welding portions are formed over predetermined lengths, the stator includes a stator core and a winding wire, the stator core is formed by laminating a plurality of metal electromagnetic steel sheets on one another, the stator core includes an annular yoke portion, teeth projecting inward in a radial direction of the yoke portion from the yoke portion, and slots formed between the adjacent teeth, a plurality of gaps which become refrigerant passages are formed in an outer peripheral surface of the yoke portion, and the laser welding portions are formed between the adjacent gaps, characterized in that the laser welding portions are further formed at locations on an outer side in a radial direction of the slots, and that refrigerant passage holes which become additional refrigerant passages are formed between the adjacent gaps and in the yoke portion located on an outer side in a radial direction of the teeth. the stator is fixed to an inner wall of the housing through a plurality of laser welding portions, the plurality of laser welding portions are formed at predetermined distances from one another in a circumferential direction of the housing, the laser welding portions are formed over predetermined lengths, the stator includes a stator core and a winding wire, the stator core is formed by laminating a plurality of metal electromagnetic steel sheets on one another, the stator core includes an annular yoke portion, teeth projecting inward in a radial direction of the yoke portion from the yoke portion, and slots formed between the adjacent teeth, a plurality of gaps which become refrigerant passages are formed in an outer peripheral surface of the yoke portion, and the laser welding portions are formed between the adjacent gaps, characterized in that the laser welding portions are further formed at locations on an outer side in a radial direction of the slots, and that refrigerant passage holes which become additional refrigerant passages are formed between the adjacent gaps and in the yoke portion located on an outer side in a radial direction of the teeth.
Soil compactor comprising a compaction roller rotatably supported at a compaction roller frame, wherein the compaction roller frame comprises two longitudinal members (14, 16) arranged in a direction longitudinal to the compactor on both sides of the compaction roller and supporting said compaction roller, and two cross members (20, 22) arranged in a direction perpendicular to the compactor and along both sides of the compaction roller and connecting the two longitudinal members (14, 16), wherein the compaction roller frame is connected to a compactor main frame via one of the two cross members, wherein at least one sight opening is provided within the other of the two cross members, characterized in that the other cross member is offset upward with respect to the one cross member in a direction vertical to the compactor. wherein the compaction roller frame is connected to a compactor main frame via one of the two cross members, wherein at least one sight opening is provided within the other of the two cross members, characterized in that the other cross member is offset upward with respect to the one cross member in a direction vertical to the compactor.
A method, performed by a wireless device, of transmitting a Random Access, RA, preamble in Time Division Duplex, TDD, from the wireless device to a base station, the method comprising: selecting a RA preamble format, from among a predetermined set of RA preamble formats, each RA preamble format specifying a predetermined, even number P of symbol groups composing a RA preamble, wherein each symbol group comprises a Cyclic Prefix, CP, and a number X of symbols, wherein each RA preamble format is mapped onto a number of adjacent subframes in a predetermined Long Term Evolution, LTE, TDD configuration; wherein the P symbol groups are divided into symbol group sets fitting into 1, or 2, or 3 contiguous uplink subframes, each symbol group set comprising a number G of symbol groups transmitted contiguously in time; wherein at least two symbol group sets are transmitted non-contiguously in time across a number of uplink subframes over which the RA preamble is transmitted; characterized by that the predetermined set of RA preamble formats includes: Format 0 wherein G=2, P=4, and X=1, and the G=2 symbol group sets fit into 1 contiguous uplink subframe; Format 1 wherein G=2, P=4, and X=2, and the G=2 symbol group sets fit into 2 contiguous uplink subframes; and Format 2 wherein G=2, P=4, and X=4, and the G=2 symbol group sets fit into 3 contiguous uplink subframes. selecting a RA preamble format, from among a predetermined set of RA preamble formats, each RA preamble format specifying a predetermined, even number P of symbol groups composing a RA preamble, wherein each symbol group comprises a Cyclic Prefix, CP, and a number X of symbols, wherein each RA preamble format is mapped onto a number of adjacent subframes in a predetermined Long Term Evolution, LTE, TDD configuration; wherein the P symbol groups are divided into symbol group sets fitting into 1, or 2, or 3 contiguous uplink subframes, each symbol group set comprising a number G of symbol groups transmitted contiguously in time; wherein at least two symbol group sets are transmitted non-contiguously in time across a number of uplink subframes over which the RA preamble is transmitted; characterized by that the predetermined set of RA preamble formats includes: Format 0 wherein G=2, P=4, and X=1, and the G=2 symbol group sets fit into 1 contiguous uplink subframe; Format 1 wherein G=2, P=4, and X=2, and the G=2 symbol group sets fit into 2 contiguous uplink subframes; and Format 2 wherein G=2, P=4, and X=4, and the G=2 symbol group sets fit into 3 contiguous uplink subframes. Format 0 wherein G=2, P=4, and X=1, and the G=2 symbol group sets fit into 1 contiguous uplink subframe; Format 1 wherein G=2, P=4, and X=2, and the G=2 symbol group sets fit into 2 contiguous uplink subframes; and Format 2 wherein G=2, P=4, and X=4, and the G=2 symbol group sets fit into 3 contiguous uplink subframes.
A chimeric fusion protein consisting of a targeting moiety to target a cancer cell, an immunomodulating moiety that counteracts immune tolerance, and an amino acid spacer, wherein the targeting moiety and the immunomodulating moiety are linked by an amino acid spacer of sufficient length of amino acid residues so that both moieties can successfully bind to their individual target, wherein the immunomodulating moiety is TGF-βRII consisting of the amino acid sequence of SEQ ID NO: 4; wherein the amino acid spacer is SEQ ID NO: 3 or SEQ ID NO:11; and wherein the targeting moiety is Anti-EGFR1 consisting of heavy chain SEQ ID NO: 5 and light chain SEQ ID NO: 6; wherein SEQ ID NO:4 is attached via the amino acid spacer to the C-terminus of SEQ ID NO:5 or SEQ ID NO:6 of Anti-EGFR1.
Granules comprising a fiber reinforced composition, comprising i) a propylene polymer having a melt flow rate MFR 2 (230 °C, 2.16 kg) determined according to ISO 1133 in the range of 10.0 to 250.0 g/10 min, ii) an elastomeric ethylene copolymer being a copolymer of ethylene and a C 4 -C 10 α-olefin, iii) an adhesion promoter, and iv) short fibers selected from the group consisting of glass fibers, metal fibers, ceramic fibers, carbon fibers and graphite fibers, wherein said fiber reinforced composition fulfils in-equation w PP w E > 2.0 wherein w is the weight fraction [in wt.-%] of the propylene polymer, based on the overall weight of the polypropylene composition, and w is the weight fraction [in wt.-%] of the elastomeric ethylene copolymer, based on the overall weight of the fiber reinforced composition. i) a propylene polymer having a melt flow rate MFR 2 (230 °C, 2.16 kg) determined according to ISO 1133 in the range of 10.0 to 250.0 g/10 min, ii) an elastomeric ethylene copolymer being a copolymer of ethylene and a C 4 -C 10 α-olefin, iii) an adhesion promoter, and iv) short fibers selected from the group consisting of glass fibers, metal fibers, ceramic fibers, carbon fibers and graphite fibers,
Method of generating power using a combined cycle, the method comprising: - operating a first power system in which fuel is burned to generate primary power and a flue gas stream at a flue gas temperature greater than 450°C, - operating a second power system to generate secondary power from the heat comprised by the flue gas stream, the second power system comprising a waste heat recovery heat exchanger, the method further comprising: - passing the flue gas stream through the waste heat recovery heat exchanger, - passing a pressurized waste heat recovery fluid through the waste heat recovery heat exchanger to receive heat from the flue gas stream thereby obtaining a pressurized vaporous waste heat recovery fluid having a temperature in the range of 350°C - 500°C, wherein the waste heat recovery fluid consists of fluorinated ketones. - operating a first power system in which fuel is burned to generate primary power and a flue gas stream at a flue gas temperature greater than 450°C, - operating a second power system to generate secondary power from the heat comprised by the flue gas stream, the second power system comprising a waste heat recovery heat exchanger, - passing the flue gas stream through the waste heat recovery heat exchanger, - passing a pressurized waste heat recovery fluid through the waste heat recovery heat exchanger to receive heat from the flue gas stream thereby obtaining a pressurized vaporous waste heat recovery fluid having a temperature in the range of 350°C - 500°C,
Topical composition for animals, characterised in that it comprises, in a physiologically acceptable medium, extracts of boldo Peumus boldus and extracts of meadowsweet Spiraea ulmaria.
A method for discovering applications by a transportation infrastructure peripheral device in a transportation infrastructure control network comprising elevators and/or escalators, which method comprises: transmitting a DNS-query, wherein the transmitted DNS-query comprises a special query for receiving addresses for all available applications in the transportation infrastructure control network; receiving a response to the transmitted DNS-query, wherein the response comprises a list including an application address of every available application in the transportation infrastructure control network; transmitting a service query to at least one received application address; and receiving a service for the transmitted service query. transmitting a DNS-query, wherein the transmitted DNS-query comprises a special query for receiving addresses for all available applications in the transportation infrastructure control network; receiving a response to the transmitted DNS-query, wherein the response comprises a list including an application address of every available application in the transportation infrastructure control network; transmitting a service query to at least one received application address; and receiving a service for the transmitted service query.