mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger, in particular for a motor vehicle, having a first coolant circuit which has multiple first tubes, and having a second coolant circuit which has multiple second tubes, having a plate, wherein the plate has a bead, wherein the plate has a first plate region with openings for receiving the first tubes and a second plate region with openings for receiving the second tubes, having a cover which is connected to the plate, characterised in that the cover has a first collecting tank and a second collecting tank, wherein the first collecting tank is connected in fluid-tight fashion to the first plate region and the second collecting tank is connected in fluid-tight fashion to the second plate region, wherein the cover has, between the first and the second collecting tank (24, 28), an opening for receiving the bead.
A method for provisioning policy rules for multiple data packet sessions over a wireless communication network to a user equipment, UE, (104, 750), comprising: establishing a first Internet Protocol, IP, session via a first access gateway for the UE (104, 750) for wireless data packet communications by obtaining an IP address provided by an access policy enforcement function at an access node, wherein the first IP session is established between the UE and the access node; instantiating a second IP session for the UE (104, 750) for the wireless data packet communications by binding the IP address of the first session with a home address, HoA, provided by a core policy enforcement function wherein the core policy enforcement function is provided remote to the access node and wherein the second IP session is established between the UE and a packet data network gateway; communicating the establishment of the first and second IP sessions to a policy rule function provided in a cellular communication network; communicating an associated IP address of the first session in response to instantiation of the second IP session to the policy rule function; and tying the first and the second IP sessions in a binding update to the packet data network gateway to identify the policy enforcement function (138, 140) where the policy rules need to be enforced. establishing a first Internet Protocol, IP, session via a first access gateway for the UE (104, 750) for wireless data packet communications by obtaining an IP address provided by an access policy enforcement function at an access node, wherein the first IP session is established between the UE and the access node; instantiating a second IP session for the UE (104, 750) for the wireless data packet communications by binding the IP address of the first session with a home address, HoA, provided by a core policy enforcement function wherein the core policy enforcement function is provided remote to the access node and wherein the second IP session is established between the UE and a packet data network gateway; communicating the establishment of the first and second IP sessions to a policy rule function provided in a cellular communication network; communicating an associated IP address of the first session in response to instantiation of the second IP session to the policy rule function; and tying the first and the second IP sessions in a binding update to the packet data network gateway to identify the policy enforcement function (138, 140) where the policy rules need to be enforced.
Compound of formula: where R 1, R 2 are selected from -H, -(C 1 -C 12) alkyl, -O-(C 1 -C 12) alkyl, -(C 6 -C 20) aryl, -O-(C 6 -C 20) aryl; wherein the named alkyl moieties and aryl moieties may be substituted as follows: substituted -(C 1 -C 12) alkyl moieties, substituted -O-(C 1 -C 12) alkyl, substituted -(C 6 -C 20) aryl, substituted -O-(C 6 -C 20) aryl may have one or more substituents; the substituents are independently selected from: -(C 1 -C 12) alkyl, -O-(C 1 -C 12) alkyl, halogen.
An apparatus for identifying which sound sources are associated with which close microphone audio signals, the apparatus comprising a processor configured to: determine/receive a position/orientation of at least one sound source of the sound sources relative to a microphone array; and obtain a beam-formed audio signal from the microphone array, wherein the beam-formed audio signal is directed from the microphone array towards the position/orientation of one of the at least one sound source so as to enhance the beam-formed audio signal; characterized by the processor being configured to: receive at least one close microphone audio signal of the close microphone audio signals, wherein each close microphone audio signal is received from a respective close microphone; compare (505, 507) the beam-formed audio signal against each close microphone audio signal to identify a match between one of the at least one close microphone audio signal and the beam-formed audio signal; and associate the one of the at least one close microphone audio signal with the at least one sound source, based on the identified match. determine/receive a position/orientation of at least one sound source of the sound sources relative to a microphone array; and obtain a beam-formed audio signal from the microphone array, wherein the beam-formed audio signal is directed from the microphone array towards the position/orientation of one of the at least one sound source so as to enhance the beam-formed audio signal; characterized by the processor being configured to: receive at least one close microphone audio signal of the close microphone audio signals, wherein each close microphone audio signal is received from a respective close microphone; compare (505, 507) the beam-formed audio signal against each close microphone audio signal to identify a match between one of the at least one close microphone audio signal and the beam-formed audio signal; and associate the one of the at least one close microphone audio signal with the at least one sound source, based on the identified match. receive at least one close microphone audio signal of the close microphone audio signals, wherein each close microphone audio signal is received from a respective close microphone; compare (505, 507) the beam-formed audio signal against each close microphone audio signal to identify a match between one of the at least one close microphone audio signal and the beam-formed audio signal; and associate the one of the at least one close microphone audio signal with the at least one sound source, based on the identified match.
A beverage preparation machine having: - a beverage preparation module comprising a beverage outlet and at least one module interface (21',25,26,26',26"); and - an auxiliary device comprising at least one device interface (15,16) and forming a cup support for supporting a cup under the beverage outlet, the module and device interfaces being arranged for assembling the module and the device together, at least one of said module and device interfaces (15,16,21',25,26) comprising one or more dampening members so arranged that the module and the device are in direct contact only via the dampening member(s) when the module and device are assembled together via the interfaces (15,16, 21',25,26,26',26"), characterised in that the module and the auxiliary device are arranged to rest directly on a common external support surface and to be supported thereby during use, the auxiliary device comprising an upright wall in or on which the device interface (15,16) is mounted and the module comprising a first face in or on which the module interface (21', 25, 26) is located, the wall and the first face facing each other when the module and device are assembled together via the interfaces (15,16,21',25,26). - a beverage preparation module comprising a beverage outlet and at least one module interface (21',25,26,26',26"); and - an auxiliary device comprising at least one device interface (15,16) and forming a cup support for supporting a cup under the beverage outlet, the module and device interfaces being arranged for assembling the module and the device together,
A fuel cell system for generating power by supplying anode gas and cathode gas to a fuel cell, comprising: a compressor configured to supply the cathode gas to the fuel cell; an anode gas discharge system configured to discharge anode off-gas discharged from the fuel cell into a cathode gas flow passage; a pulsating operation control unit configured to cause a pressure of the anode gas to pulsate based on an operating state of the fuel cell; and a purge control unit configured to purge the anode off-gas into the cathode gas flow passage based on an impurity concentration of an anode of the fuel cell, and calculate a purge flow rate based on the impurity concentration of the anode of the fuel cell and a pressure of the anode; characterized by further comprising a compressor control unit configured to control the compressor based on the purge flow rate calculated by the purge control unit, wherein the purge control unit is configured to set the pressure of the anode to a predetermined value determined according to a pulsating width of the anode gas to suppress beat noise of the compressor due to the pulsation of the anode gas. a compressor configured to supply the cathode gas to the fuel cell; an anode gas discharge system configured to discharge anode off-gas discharged from the fuel cell into a cathode gas flow passage; a pulsating operation control unit configured to cause a pressure of the anode gas to pulsate based on an operating state of the fuel cell; and a purge control unit configured to purge the anode off-gas into the cathode gas flow passage based on an impurity concentration of an anode of the fuel cell, and calculate a purge flow rate based on the impurity concentration of the anode of the fuel cell and a pressure of the anode; characterized by further comprising a compressor control unit configured to control the compressor based on the purge flow rate calculated by the purge control unit, wherein the purge control unit is configured to set the pressure of the anode to a predetermined value determined according to a pulsating width of the anode gas to suppress beat noise of the compressor due to the pulsation of the anode gas.
Differential amplifier with an amplifier circuit comprising two differential pairs (Q1, Q2), wherein a first differential pair is connected in series to a second differential pair, wherein the second differential pair is connected at control terminals in a crosswise manner at least indirectly to a differential output signal (I outp, I outn) of the first differential pair, wherein the first differential pair and the second differential pair form a first differential current path and a second differential current path, wherein a first emulation device is connected in parallel to the first current path, and wherein a second emulation device is connected in parallel to the second current path, characterised in that the first emulation device comprises a series connection of a first transistor (Q4p) and a second transistor (Q3p), and in that the second emulation device comprises a series connection of a third transistor (Q4n) and a fourth transistor (Q3n).
Operator control apparatus for a domestic appliance, having an electronic display panel and an operator control element which can be moved relative to the display panel in order to adjust operating conditions of the domestic appliance, wherein the operator control element is arranged at least partially within the surface of the display panel, wherein the display panel is covered by a cover which is permeable in respect of the light of the display panel and the operator control element is arranged on the cover, and wherein the front side of the cover is arranged offset to the rear from a front side of an operator control panel adjoining the cover and bordering the display panel at least partially, characterised in that bearing elements (25 to 32) with bearing surfaces for supporting the actuation of touch-sensitive operator control points (16 to 23) which are arranged in the display panel are formed in a free space formed by the offset of the front side of the cover and the front side of the operator control panel, wherein the operator control points (16 to 23) are formed in the lower region of the display panel adjacent to the bearing elements (25 to 32).
A wound packing material comprising an open-cell polymer selected from a polyvinyl alcohol or a polyurethane admixed with at least one chemoattractant agent that is chemoattractant to a microorganism, selected from the group consisting of N-(3-hydroxydodecanoyl)-L-homoserine lactone, N-Dodecanoyl-L-homoserine lactone, N-Tetradecanoyl-L-homoserine lactone, N-(3-Oxotridecanoyl)-L-homoserine lactone, N-Hexanoyldecanoyl-L-homoserine lactone, enzymatic hydrolysate of casein (Trypticase), N-acetylneuraminic acid from egg mucin, L-aspartate, human intestinal mucus proteins, canine intestinal mucus proteins, porcine intestinal mucus proteins, quorum sensing autoinducer 2 (AI-2), α-Methyl-DL-aspartate, (±)-α-Amino-3- hydroxy-5-methyl-4-isoxazolepropionic acid (AMPA), N-methyl-L-aspartate, (2-Imino-4-oxo-thiazolidin-5-yl)-acetic acid (IOTA), cis -1,2-cyclohexane-dicarboxylic acid (CHDCA), phthalic acid, cis -(2R, 3S)-2,3-piperidine dicarboxylic acid ( cis -PDA), L-malic acid, D-glucose, D-galactose, 3,4-dihydroxymandelic acid, D-ribose, L-arabinose, L-sorbose, tryptose, gamma-aminobutyrate (GABA), L-fucose, ferret airway mucus, human respiratory tract glycolipids, human salivary mucins, human nasal mucin, chitin oligosaccharides, Mucin Type O -glycans, secretory gel-forming mucins, MUC2, MUC5AC, MUC5B, MUC6, MUC7, MUC1, MUC3, MUC4, MUC12, MUC13, MUC17, Human Milk Oligosaccharides, bovine submaxillary mucin, bacterial chemotaxin, CCL1, TCA3, 1-309, MCAF, JE, LD78α, CCL3L1, LD78β, CCL3P1, CCL3L2, CCL3L3, CCL4, CCL4L1, LAG-1, CCL4L2, MARC, CCL8, CCL11, CCL13, CCL14, HCC-1, CCL15, HCC-2, CCL16, HCC-4, LEC, CCL17, TARC, ABCD-2, CCL18, DC-CK-1, PARC, AMAC-1, Exodus-3, LARC, Exodus-1, 6Ckine, SLC, Exodus-2, MDC, STCP-1, AMCD-1, CCL23, CKP8, MPIF-1, CCL24, MPIF-2, TECK, CCL26, IMAC, CCL27, CTACK, ILC, ESKINE, CCL28, MEC, CXCL1, GRO-α, MGSA-α, p-CXCL1, CXCL1P, CXCL2, GRO-β, MGSA-β, MIP-2α, CXCL3, GRO-γ, MGSA-γ, CXCL4, PF4, CXCL4L1, PF4V1, PF4-ALT, CXCL4V1, CXCL5, ENA-78, CXCL6, GCP-2, PPBP, NAP-2, beta-TG, CTAP-III, p-CXCL7, PPBPL1, CXC:10, IP10, CRG-2, CXCL11, I-TAC, SDF-1α, SDF-1β, SDF-1γ, BCA-1, BLC, CXCL14, CXCL16, SR-PSOX, CXCL17, XCL1, Lymphotactin, SCM-1α, ATAC, XCL2, SCM-1β, Fractalkine, Neurotactin, ABCD-3, Macrophage migration inhibitory factor, glycosylation-inhibiting factor, 656 Hex2Sial, 657 Hex2Fuc2, 730 Hex3HexNAcl, 876 Hex3HexNAclFucl, 1022 Hex3HexNAclFuc2, 1095 Hex4HexNAc2, 1241 Hex4HexNAc2Fucl, 1387 Hex4HexNAc2Fuc2, 1533 Hex4HexNAc2Fuc3, E-selectin, L-selectin, P-selectin, VCAM1, ICAM-1, Mucosal vascular cell-adhesion molecule 1 (MADCAM1), neutrophil P2-integrins (CD11a/CD18 (LFA-1) and CD11b/CD18), and combinations thereof.
A pharmaceutical composition comprising a 1,2-hydroxypyridonate (HOPO) chelating agent for use in a medicament for treating of a heavy metal exposure by administering a therapeutically effective amount of the pharmaceutical composition to the subject that has an excess amount of gadolinium, wherein administering results in decorporating, clearing or reducing the amount of gadolinium from the subject.
Method for transmitting an optical transmission signal (k(t)) with reduced polarisation-dependent loss, wherein a first transmission signal component (k X (t)) and a second orthogonal transmission signal component (k Y (t)) of the optical transmission signal (k(t)) are transmitted with a time difference between said orthogonal transmission signal components (k X (t), k Y (t)), wherein the optical transmission signal (k(t)) is implemented by - splitting a data modulated optical signal (s(t)) into the orthogonal transmission signal components (k X (t), k Y (t)), - delaying one transmission signal component (k Y (t)) by an optical delay element, and then - combining both transmission signal components (k X (t), k Y (t)). - splitting a data modulated optical signal (s(t)) into the orthogonal transmission signal components (k X (t), k Y (t)), - delaying one transmission signal component (k Y (t)) by an optical delay element, and then - combining both transmission signal components (k X (t), k Y (t)).
A refrigerator comprising: an inner case configured to define a storage space; a cool air duct configured to guide a flow of air within the storage space, the cool air duct being configured to define a heat exchange space together with the inner case; an evaporator disposed in the heat exchange space between the inner case and the cool air duct; a bypass passage disposed in the cool air duct, the bypass passage being configured so that the air flows to bypass the evaporator; a sensor disposed in the bypass passage, a defroster configured to remove frost generated on a surface of the evaporator; and a controller configured to control the defroster based on an output value of the sensor, characterized in that the sensor comprises a sensor housing (271, 371, 471, 571), a sensor printed circuit board, PCB, accommodated in the sensor housing (271, 371, 471, 571), a heat generating element installed on the sensor PCB to generate heat when current is applied, a sensing element configured to sense a temperature of the heat generating element, and a molding material filled in an inner space of the sensor housing (271, 371, 471, 571) and configured to surround the sensor PCB, the heat generating element and the sensing element to prevent the air in the bypass passage and moisture from flowing through the sensor housing (271, 371, 471, 571). an inner case configured to define a storage space; a cool air duct configured to guide a flow of air within the storage space, the cool air duct being configured to define a heat exchange space together with the inner case; an evaporator disposed in the heat exchange space between the inner case and the cool air duct; a bypass passage disposed in the cool air duct, the bypass passage being configured so that the air flows to bypass the evaporator; a sensor disposed in the bypass passage, a defroster configured to remove frost generated on a surface of the evaporator; and a controller configured to control the defroster based on an output value of the sensor, characterized in that the sensor comprises a sensor housing (271, 371, 471, 571), a sensor printed circuit board, PCB, accommodated in the sensor housing (271, 371, 471, 571), a heat generating element installed on the sensor PCB to generate heat when current is applied, a sensing element configured to sense a temperature of the heat generating element, and a molding material filled in an inner space of the sensor housing (271, 371, 471, 571) and configured to surround the sensor PCB, the heat generating element and the sensing element to prevent the air in the bypass passage and moisture from flowing through the sensor housing (271, 371, 471, 571).
A method performed by a distributed unit, DU, of a base station in a wireless communication system, the method comprising: generating a control plane message using a section type 5 for user equipment, UE, scheduling information, the control plane message including section extension information; and transmitting the control plane message to a radio unit, RU, via a fronthaul interface, wherein the section extension information includes information indicating a regularization factor which is used for minimum means square error, MMSE, calculation of generating multi-user, MU, beamforming weight for UEs in a slot. generating a control plane message using a section type 5 for user equipment, UE, scheduling information, the control plane message including section extension information; and transmitting the control plane message to a radio unit, RU, via a fronthaul interface, wherein the section extension information includes information indicating a regularization factor which is used for minimum means square error, MMSE, calculation of generating multi-user, MU, beamforming weight for UEs in a slot.
A set of shafts (34, 72) for an aircraft turbomachine, the set comprising: - a first shaft comprising external splines oriented parallel to an axis of rotation of the shaft, - a second shaft comprising internal splines complementary to said external splines, this second shaft being axially engaged with the first shaft and these shafts rotating as one by engagement of their splines, and - a system for axially locking the shafts with respect to one another, characterised in that said system comprises screws which are oriented radially with respect to said axis, each of these screws being screwed into a first orifice of one of the shafts and comprising a free end capable of being engaged in a second orifice of the other of the shafts, each of these screws being movable by screwing from a first radial position in which its free end is engaged in the said second orifice and ensures axial locking of the shafts, and a second radial position in which its free end is disengaged from said second orifice and ensures axial unlocking of the shafts. - a first shaft comprising external splines oriented parallel to an axis of rotation of the shaft, - a second shaft comprising internal splines complementary to said external splines, this second shaft being axially engaged with the first shaft and these shafts rotating as one by engagement of their splines, and - a system for axially locking the shafts with respect to one another,
An infrared transmitting glass for mold forming which is composed of, in molar concentrations, 2-22% of Ge, 6-34% of at least one element selected from the group consisting of Sb and Bi, 1-20% of at least one element selected from the group consisting of Sn and Zn and 58-70% of at least one element chosen from the group comprising S and Te.