mhurhangee/patent-ind-claim-en huggingface dataset:
A solid Ziegler-Natta catalyst component comprising a transition metal compound of Groups 4 to 6, and an internal organic compound, wherein the internal organic compound is selected from: linear or branched polyalkyleneimines of formula (I), or isomers or mixtures therefrom H 2 N-(CH 2 ) a -[(CH 2 ) b -(N(R 1 )-L-) n -(CH 2 ) c ] m -(CH 2 ) d -NH 2 (I) wherein, each a, b, c and d is an integer of 1 to 4, preferably 1 to 2, n is an integer 3 to 7, preferably 4 to 6, m is 2 to 60, each L is independently an alkylene of 1 to 4 C-atoms, preferably an alkylene of 2 C-atoms each R 1 is independently H, or a group -L-(N(R 2 ) z (R 3 ) y , wherein L is as defined above, each R 2 and R 3 are independently H or an C 1 to C 4 amino alkyl, and z and y are 0, 1 or 2, provided that the sum z + y is 2; or wherein the internal organic compound is of formula (II) wherein n is approximately 2. each a, b, c and d is an integer of 1 to 4, preferably 1 to 2, n is an integer 3 to 7, preferably 4 to 6, m is 2 to 60, each L is independently an alkylene of 1 to 4 C-atoms, preferably an alkylene of 2 C-atoms each R 1 is independently H, or a group -L-(N(R 2 ) z (R 3 ) y , wherein L is as defined above, each R 2 and R 3 are independently H or an C 1 to C 4 amino alkyl, and z and y are 0, 1 or 2, provided that the sum z + y is 2; or wherein the internal organic compound is of formula (II) wherein n is approximately 2.
Computer-implemented method (V) for determining an ACTUAL delivery volume (ist-fv) for a dosing pump (DP) intended for delivering a substance from a container (B) for use in a vehicle washing system (WA), comprising the following method steps: a) Reading in a container data record (bds) for the container (B) from which the substance is to be delivered by means of the metering pump (DP), wherein the container data record (bds) is an electronic data record which is provided for the container (B), and wherein the container data record (bds) contains information about the design, size and/or a holding volume of the container (B); b) Reading in a digital fill level value (fs), which represents a fill level measured in the container (B) by means of at least one analog fill level sensor (FSS) and/or c) Reading in a digital pressure value (p), which represents a pressure measured in the container (B) by means of at least one analog pressure sensor (DS), and reading in a digital density value (ρ) for the substance to be delivered by the dosing pump (DP); d) Determining and outputting the ACTUAL delivery volume (ist-fv) actually delivered by the dosing pump (DP) by applying a first function, f1 , to the digital fill level value (fs) read in in step b) and the container data record (bds) read in in step a) and/or by applying a second function, f2 , to the digital pressure value (p) read in in step c) and the digital density value (ρ) read in in step c) and the container data set (bds) read in in step a). a) Reading in a container data record (bds) for the container (B) from which the substance is to be delivered by means of the metering pump (DP), wherein the container data record (bds) is an electronic data record which is provided for the container (B), and wherein the container data record (bds) contains information about the design, size and/or a holding volume of the container (B); b) Reading in a digital fill level value (fs), which represents a fill level measured in the container (B) by means of at least one analog fill level sensor (FSS) and/or c) Reading in a digital pressure value (p), which represents a pressure measured in the container (B) by means of at least one analog pressure sensor (DS), and reading in a digital density value (ρ) for the substance to be delivered by the dosing pump (DP); d) Determining and outputting the ACTUAL delivery volume (ist-fv) actually delivered by the dosing pump (DP) by applying a first function, f1 , to the digital fill level value (fs) read in in step b) and the container data record (bds) read in in step a) and/or by applying a second function, f2 , to the digital pressure value (p) read in in step c) and the digital density value (ρ) read in in step c) and the container data set (bds) read in in step a).
A signal processing device comprising: a converter configured to convert frequency of an input stereo audio signal; a primary component analyzer configured to perform primary component analysis based on a frequency-converted stereo audio signal from the converter ; a feature extractor configured to extract a feature of a primary component signal based on a primary component signal from the primary component analyzer; a model learning predictor configured to perform prediction based on a deep neural network model based on the feature from the feature extractor ; an envelope adjustor configured to perform envelope adjustment for adjusting envelope of a signal in frequency band based on a prediction result performed by the model learning predictor ; and an inverse converter configured to inversely convert an envelope adjusted signal from the envelope adjustor to output an upmix audio signal of multi-channel. a converter configured to convert frequency of an input stereo audio signal; a primary component analyzer configured to perform primary component analysis based on a frequency-converted stereo audio signal from the converter ; a feature extractor configured to extract a feature of a primary component signal based on a primary component signal from the primary component analyzer; a model learning predictor configured to perform prediction based on a deep neural network model based on the feature from the feature extractor ; an envelope adjustor configured to perform envelope adjustment for adjusting envelope of a signal in frequency band based on a prediction result performed by the model learning predictor ; and an inverse converter configured to inversely convert an envelope adjusted signal from the envelope adjustor to output an upmix audio signal of multi-channel.
A communication method, comprising: determining , by a first device according to a first preset rule, a first resource in at least two preset resources corresponding to a same gap before a first paging occasion, PO; and monitoring , by the first device, at least one wake-up signal sequence on the first resource; wherein the method further comprises: determining, by the first device according to the first preset rule, a second resource in at least two preset resources corresponding to a same gap before a second PO; and monitoring, by the first device, at least one wake-up signal sequence on the second resource. determining , by a first device according to a first preset rule, a first resource in at least two preset resources corresponding to a same gap before a first paging occasion, PO; and monitoring , by the first device, at least one wake-up signal sequence on the first resource; wherein the method further comprises: determining, by the first device according to the first preset rule, a second resource in at least two preset resources corresponding to a same gap before a second PO; and monitoring, by the first device, at least one wake-up signal sequence on the second resource. determining, by the first device according to the first preset rule, a second resource in at least two preset resources corresponding to a same gap before a second PO; and monitoring, by the first device, at least one wake-up signal sequence on the second resource.
Dispersant for inorganic particles, the dispersant being a sulfoxide according to the general formula (I sox ) containing at least one sulfinyl radical (S=O) (I sox ) X-(S=O)-Y or the dispersant being a sulfon according to the general formula (I son ) containing at least one sulfonyl radical (S(=O) 2 ) (I son ) X-(S=O) 2 -Y, X in the formula (I sox ) or (I son ) is a structural unit comprising at least one poly (alkylene glycol) and Y in the formula (I sox ) or (I son ) is a structural unit comprising a secondary amine or a tertiary amine and at least one phosphor containing radical of the general formula (II) (II) -OPO 3 M a M b , M a and M b are the same or different and are independently from each other hydrogen or a cation equivalent. X in the formula (I sox ) or (I son ) is a structural unit comprising at least one poly (alkylene glycol) and Y in the formula (I sox ) or (I son ) is a structural unit comprising a secondary amine or a tertiary amine and at least one phosphor containing radical of the general formula (II)
An apparatus for picking and treating articles comprising: a pair of parallel closed loop conveying tracks having one or more pairs of vertically movable module track portions , each pair of said vertically movable modular track portions including a first modular track portion being part of a first track of said pair of closed loop conveying tracks and a second modular track portion being part of the second track of said pair of closed loop conveying tracks ; a plurality of support means configured transversally to the pair of closed loop conveying tracks , each support means extending between and connected to the pair of conveying tracks at its opposite ends through a support moving mechanism ; a plurality of gripper sets movingly configured onto one or more of the support means ; wherein said apparatus is adapted such that in operation a horizontal movement of the plurality of support means across the pair of circular tracks and a vertically upward and/or downward movement of the one or more pairs of modular track portions are synchronized in such a way that one or more of the gripper sets of one of the support means is adapted to selectively pick up a set of articles from a first location while one or more of the gripper sets of another support means selectively treat a set of already picked articles at a second location. a pair of parallel closed loop conveying tracks having one or more pairs of vertically movable module track portions , each pair of said vertically movable modular track portions including a first modular track portion being part of a first track of said pair of closed loop conveying tracks and a second modular track portion being part of the second track of said pair of closed loop conveying tracks ; a plurality of support means configured transversally to the pair of closed loop conveying tracks , each support means extending between and connected to the pair of conveying tracks at its opposite ends through a support moving mechanism ; a plurality of gripper sets movingly configured onto one or more of the support means ; wherein said apparatus is adapted such that in operation a horizontal movement of the plurality of support means across the pair of circular tracks and a vertically upward and/or downward movement of the one or more pairs of modular track portions are synchronized in such a way that one or more of the gripper sets of one of the support means is adapted to selectively pick up a set of articles from a first location while one or more of the gripper sets of another support means selectively treat a set of already picked articles at a second location.
An organic light-emitting display apparatus comprising: a substrate ; an insulating layer over the substrate , a recess defined in the insulating layer and having a sloped sidewall ; an organic light-emitting diode over the insulating layer , and comprising a first electrode , an organic emission layer and a second electrode , wherein the first electrode , the organic emission layer and the second electrode are located in the recess; a pixel defining layer arranged between the first and second electrodes, and defining an emissive region and a non-emissive region; and a bump on the pixel defining layer , wherein the organic emission layer is arranged to overlap the pixel defining layer and the bump , wherein the first electrode is disposed on the sloped sidewall, wherein the pixel defining layer is disposed on the first electrode; wherein the first electrode is arranged to reflect light which is emitted by the organic emission layer . a substrate ; an insulating layer over the substrate , a recess defined in the insulating layer and having a sloped sidewall ; an organic light-emitting diode over the insulating layer , and comprising a first electrode , an organic emission layer and a second electrode , wherein the first electrode , the organic emission layer and the second electrode are located in the recess; a pixel defining layer arranged between the first and second electrodes, and defining an emissive region and a non-emissive region; and a bump on the pixel defining layer , wherein the organic emission layer is arranged to overlap the pixel defining layer and the bump , wherein the first electrode is disposed on the sloped sidewall, wherein the pixel defining layer is disposed on the first electrode; wherein the first electrode is arranged to reflect light which is emitted by the organic emission layer .
Carrying device for receiving pipeline elements in a surface coating installation, having: - a main body , - an attachment section which is formed on the main body and which serves for the attachment of the carrying device to a ceiling-mounted conveying mechanism, and - multiple cantilevers extending laterally from the main body , characterized in that , on each cantilever , there is arranged a receptacle with support feet arranged in pairwise fashion and spaced apart from one another, wherein the support feet are configured to come into contact with in each case one outer wall section of a pipeline element in order to hold the pipeline element between the support feet . - a main body , - an attachment section which is formed on the main body and which serves for the attachment of the carrying device to a ceiling-mounted conveying mechanism, and - multiple cantilevers extending laterally from the main body ,
A method of capturing an image with an image sensor that includes a plurality of pixels, each pixel comprising a first light sensing element with a first well capacity, a second light sensing element with a second well capacity, wherein the first well capacity is greater than the second well capacity, and one or more common transistors , wherein the first light sensing element and the second light sensing element share the one or more common transistors, the method comprising: determining a first integration time for the first light sensing element of a pixel; determining a second integration time for the second light sensing element of the pixel, where the second integration time is shorter than the first integration time; at the end of the first integration time, performing a readout of the accumulated charge on the first light sensing element, and storing the readout information for the first light sensing element in a buffer; 1⁄2 line time after the end of the first integration time, and at the end of the second integration time, performing a readout of the accumulated charge on the second light sensing element as readout information for the second light sensing element; and combining the readout information from the first light sensing element of the pixel with the readout information from the second light sensing element to form a final pixel output value for the pixel, and forming an image based, at least in part, on the final pixel output values for the plurality of pixels. determining a first integration time for the first light sensing element of a pixel; determining a second integration time for the second light sensing element of the pixel, where the second integration time is shorter than the first integration time; at the end of the first integration time, performing a readout of the accumulated charge on the first light sensing element, and storing the readout information for the first light sensing element in a buffer; 1⁄2 line time after the end of the first integration time, and at the end of the second integration time, performing a readout of the accumulated charge on the second light sensing element as readout information for the second light sensing element; and combining the readout information from the first light sensing element of the pixel with the readout information from the second light sensing element to form a final pixel output value for the pixel, and forming an image based, at least in part, on the final pixel output values for the plurality of pixels.
Fungicidal mixture comprising in synergistically effective amounts (I) N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide ; and (II) difenoconazole; where N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide and difenoconazole are present in a weight ratio of from 10:1 to 1:10. (I) N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide ; and (II) difenoconazole;
A multi-perimeter firewall located in a Cloud and forming part of a global virtual network, comprising: an egress ingress point device (EIP 12-310); a first access point server (SRV_AP 12-302) in communication with the egress ingress point device (EIP 12-310); a second access point server (SRV_AP 12-300) in communication with the first access point sever (SRV_AP 12-302); an endpoint device (EPD 12-100) in communication with the second access point server (SRV_AP 12-300); a first perimeter firewall (FW SPI 12-446) in communication with the first access point server (SRV_AP 12-302), wherein the first perimeter firewall (FW SPI 12-446) prevents at least some traffic from passing from the first access point server (SRV_AP 12-302) to the second access point server (SRV_AP 12-300); and a second perimeter firewall (FW DPI 12-444) in communication with the second access point server (SRV_AP 12-300), wherein the second perimeter firewall (FW DPI 12-444) prevents at least some traffic from passing from the second access point server (SRV_AP 12-300) to the endpoint device (EPD 12-100) ; characterized in that one firewall performs stateful packet inspection and the other firewall performs deep packet inspection. an egress ingress point device (EIP 12-310); a first access point server (SRV_AP 12-302) in communication with the egress ingress point device (EIP 12-310); a second access point server (SRV_AP 12-300) in communication with the first access point sever (SRV_AP 12-302); an endpoint device (EPD 12-100) in communication with the second access point server (SRV_AP 12-300); a first perimeter firewall (FW SPI 12-446) in communication with the first access point server (SRV_AP 12-302), wherein the first perimeter firewall (FW SPI 12-446) prevents at least some traffic from passing from the first access point server (SRV_AP 12-302) to the second access point server (SRV_AP 12-300); and a second perimeter firewall (FW DPI 12-444) in communication with the second access point server (SRV_AP 12-300), wherein the second perimeter firewall (FW DPI 12-444) prevents at least some traffic from passing from the second access point server (SRV_AP 12-300) to the endpoint device (EPD 12-100) ; characterized in that one firewall performs stateful packet inspection and the other firewall performs deep packet inspection.
Arrangement having a continuous furnace for the thermal treatment of steel sheets, in particular for hot forming and press hardening, wherein in the furnace two zones are formed with temperatures different from one another and between the two zones a partition wall is present and that a surface cooling nozzle is arranged in the zone which is relatively cooler , characterised in that between the heel sheet and the partition wall in the closed state a gap is present and a pipe cooling nozzle is formed, wherein the pipe cooling nozzle has outlet openings pointing downwardly in vertical direction (V) relatively to the partition wall and the pipe cooling nozzle is arranged In the direction of a zone which is relatively cooler .
A method of connecting a cartridge having a connection feature to an automatic injector having a motor , said cartridge interconnected to a needle at its distal end and mechanically coupled to a plunger driver at its proximal end, the method comprising: lowering said cartridge while being mechanically coupled with said plunger driver into a receiving frame of said automatic injector, said receiving frame having an open top and a cartridge mount comprising an interference element with a distal stop , the interference element sized to slidably receive the cartridge and allow the cartridge to slide up to the distal stop ; elastically pushing down a snap when lowering the cartridge into the receiving frame ; sliding said cartridge in a direction of said distal end until reaching the distal stop and thereby linking said connection feature to the interference element of said receiving frame wherein upon sliding the cartridge towards the distal end the snap is released to secure the cartridge , such that disconnection of said cartridge is inhibited; and containing forces generated by said plunger driver on said cartridge through said receiving frame , thereby immobilizing said cartridge with respect to said automatic injector. lowering said cartridge while being mechanically coupled with said plunger driver into a receiving frame of said automatic injector, said receiving frame having an open top and a cartridge mount comprising an interference element with a distal stop , the interference element sized to slidably receive the cartridge and allow the cartridge to slide up to the distal stop ; elastically pushing down a snap when lowering the cartridge into the receiving frame ; sliding said cartridge in a direction of said distal end until reaching the distal stop and thereby linking said connection feature to the interference element of said receiving frame wherein upon sliding the cartridge towards the distal end the snap is released to secure the cartridge , such that disconnection of said cartridge is inhibited; and containing forces generated by said plunger driver on said cartridge through said receiving frame , thereby immobilizing said cartridge with respect to said automatic injector.
Heat exchanger arrangement, especially for a vehicle heater, comprising a heat exchanger housing with a heat transfer medium inlet opening and with a heat transfer medium outlet opening , further comprising, in association with at least one opening out of the heat transfer medium inlet opening and the heat transfer medium outlet opening , a connecting piece , which is inserted or can be inserted into the opening, wherein at least one housing locking element meshing recess is provided in association with the at least one connecting piece in the heat exchanger housing and at least one connecting piece locking element meshing recess is provided in the connecting piece , and wherein a locking element locking the connecting piece on the heat exchanger housing is positioned or can be positioned such that it meshes with the at least one housing locking element meshing recess and with the at least one connecting piece locking element meshing recess , wherein the connecting piece , which is inserted or can be inserted into the heat transfer medium inlet opening , and the connecting piece , which is inserted or can be inserted into the heat transfer medium outlet opening , are locked or can be locked at the heat exchanger housing by a common locking element , wherein the locking element has, in association with each connecting piece , a connecting piece locking area and a housing locking area for locking the locking element in relation to the heat exchanger housing in a locked state locking at least one connecting piece at the heat exchanger housing, characterized in that the housing locking area has an essentially U-shaped configuration connecting the two connecting piece locking areas to one another, and that a locking projection , which engages behind the housing locking area in the locked state, is provided on the heat exchanger housing .